18 Commits

Author SHA1 Message Date
weipengzhe 3d44400521 Merge pull request '机械臂与灵巧手驱动已构建完成' (#1) from feature/2026-9-20 into main
Reviewed-on: #1
2026-09-20 13:46:33 +08:00
weipengzhe 6427597624 加入测试脚本 2026-09-20 13:39:08 +08:00
weipengzhe 14fa685f7f 新增了关于灵巧手can口更换的说明 2026-09-20 10:10:17 +08:00
weipengzhe 3ac6498bcb 新增了关于灵巧手的说明 2026-09-20 09:57:55 +08:00
weipengzhe 58aa9e2964 加入灵巧手的rosbag录制 2026-09-18 18:39:55 +08:00
weipengzhe 579aa958e5 加入本机订阅话题的隔离机制,修改话题名字避免被内网透传消息引发冲突 2026-09-18 18:27:40 +08:00
weipengzhe b4d6c9876c 已经可以正常驱动灵巧手并获取反馈 2026-09-18 14:55:07 +08:00
weipengzhe 37c426f994 L20灵巧手启动文件 2026-09-18 13:14:27 +08:00
weipengzhe fb682422d3 灵巧手通信驱动已构建 2026-09-18 12:58:38 +08:00
weipengzhe d40d0c3940 加入灵巧手控制包 2026-09-18 09:57:33 +08:00
weipengzhe 9b2279f2d2 修复了rosbag录制服务崩溃的bug 2026-09-17 16:34:27 +08:00
weipengzhe c3613d9e41 已加入对机械臂反馈值和控制量的参数录制 2026-09-17 16:17:50 +08:00
weipengzhe 8b997e1e79 加入随sh脚本生命周期的使能和失能功能 2026-09-17 15:30:07 +08:00
weipengzhe f0633b6ff7 完善提交规则 2026-09-17 13:44:10 +08:00
weipengzhe 50aba5217f 删除手部串联控制驱动,加入系统报错信息话题发布 2026-09-17 13:42:11 +08:00
weipengzhe 9479a8ccb2 机械臂与灵巧手位控逻辑已完备 2026-09-17 10:50:14 +08:00
weipengzhe c649b25845 删掉了官方sdk 2026-09-17 09:48:36 +08:00
weipengzhe 3955956604 加入官方sdk,后续将在此基础上修改 2026-09-17 09:44:19 +08:00
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# weipz-Lbot_Bridge 接口说明
本工程当前使用 `src/officer_sdk/lbot_driver` 作为机器人网口连接和 ROS2 bridge。启动脚本为:
```bash
cd ~/workspace/weipz-Lbot_Bridge/scripts
./lbot_arm_control.sh start
```
停止服务:
```bash
cd ~/workspace/weipz-Lbot_Bridge/scripts
./lbot_arm_control.sh stop
```
默认启动的机器人 namespace 是 `/robot1`,默认连接控制器 IP 为 `192.168.10.21`。
## 机械臂反馈订阅
外部软件如果需要订阅机器人当前机械臂各关节角度、速度、电流/力矩,使用下面两个 topic:
```text
/robot1/left_arm/joint_states
/robot1/right_arm/joint_states
```
消息类型:
```text
sensor_msgs/msg/JointState
```
字段含义:
```text
name[] 关节名称
position[] 当前 7 个关节角度,单位 rad
velocity[] 当前 7 个关节速度,单位 rad/s
effort[] 当前 7 个关节 effort 字段;当前 driver 直接填入 SDK 的 effort[7],按项目使用可视为关节电流/力矩反馈字段
```
示例:
```bash
ros2 topic echo /robot1/left_arm/joint_states
ros2 topic echo /robot1/right_arm/joint_states
```
当前反馈中没有关节加速度字段。如果外部软件必须获取关节加速度,需要在上游根据 `velocity[]` 和时间戳自行差分,或者让厂家提供 SDK 原生加速度反馈接口。
## 机器人健康/故障状态
当前 `officer_sdk/lbot_driver` 已发布系统错误信息 topic:
```text
/robot1/system_error
```
消息类型:
```text
lbot_arm_interfaces/msg/SystemError
```
消息定义:
```text
std_msgs/Header header
int32 error_code
string error_msg
bool connected
```
字段含义:
```text
error_code SDK 或 driver 上报的错误码
error_msg 错误信息
connected 发布错误时 driver 是否认为机器人处于连接状态
```
示例:
```bash
ros2 topic echo /robot1/system_error
```
目前该 topic 会在以下情况发布:
```text
SDK error callback 触发时
连接机器人失败时,error_code = -1
状态监控启动失败时,error_code = -2
```
注意:SDK 当前状态结构 `lbot_full_state_t` 只包含左右臂关节状态、末端位姿、时间戳和 IP;没有完整的故障码、告警码、使能状态、急停状态等字段。因此 `/robot1/system_error` 当前是错误事件 topic,不是完整健康状态快照。
仍然可以辅助查看 ROS 日志:
```text
/rosout
```
示例:
```bash
ros2 topic echo /rosout
```
也可以查看启动脚本日志:
```bash
tail -f ~/workspace/weipz-Lbot_Bridge/log/lbot_arm_control.log
```
如果后续需要稳定给外部软件使用的完整健康状态快照,建议在 `SystemError.msg` 之外再新增 `RobotHealth.msg`,并在连接/重连逻辑、使能/急停服务回调中维护并周期发布该状态。需要修改的位置:
```text
src/officer_sdk/lbot_arm_interfaces/msg/RobotHealth.msg
src/officer_sdk/lbot_arm_interfaces/CMakeLists.txt
src/officer_sdk/lbot_driver/include/lbot_driver/lbot_driver.h
src/officer_sdk/lbot_driver/src/lbot_driver.cpp
```
## 机械臂关节空间控制
外部软件如果需要发送机械臂各关节目标位置,使用 MoveJ 服务,不是 topic。
左臂:
```text
/robot1/left_arm/move_joint
```
右臂:
```text
/robot1/right_arm/move_joint
```
服务类型:
```text
lbot_arm_interfaces/srv/MoveJ
```
服务定义:
```srv
float32[] joints
float32 speed
float32 acce
bool block
---
bool success
```
字段含义:
```text
joints 7 个目标关节角,单位 rad
speed 整条机械臂统一目标速度,单位 rad/s
acce 整条机械臂统一目标加速度,单位 rad/s^2
block true 表示阻塞等待运动完成,false 表示非阻塞下发
```
示例:
```bash
ros2 service call /robot1/left_arm/move_joint lbot_arm_interfaces/srv/MoveJ \
"{joints: [0.0, 0.0, 0.0, 0.0, 0.0, 0.0, 0.0], speed: 1.0, acce: 1.0, block: true}"
```
当前限制:
```text
MoveJ 支持每个关节独立目标位置 joints[7]
MoveJ 不支持每个关节独立目标速度 velocity[7]
MoveJ 不支持每个关节独立目标加速度 acceleration[7]
speed 和 acce 是整条机械臂统一标量
```
如果后续必须支持每个关节单独目标速度和加速度,需要修改:
```text
src/officer_sdk/lbot_arm_interfaces/srv/MoveJ.srv
src/officer_sdk/lbot_driver/src/lbot_driver.cpp
src/officer_sdk/lbot_driver/include/lbot_driver/lbot_driver.h
```
但当前 SDK 的 `lbot_move_joint()` 接口本身只接收:
```cpp
const double joints[7], double speed, double accel, bool block
```
因此即使 ROS service 增加 `velocity[7]`、`acceleration[7]` 字段,也不能直接传给现有 SDK。要真正实现每关节速度/加速度控制,需要厂家提供更底层的控制接口,或者在 ROS 层自己做轨迹插值,再周期性下发关节位置。
## L20/R20 灵巧手整手位置控制
外部软件如果需要一次性控制机器人灵巧手所有关节位置,使用下面两个 topic:
```text
/robot1/left_hand/set_l20_joint
/robot1/right_hand/set_l20_joint
```
消息类型:
```text
std_msgs/msg/Int32MultiArray
```
字段含义:
```text
data[] L20/R20 灵巧手目标位置数组
```
当前 driver 中该 topic 直接调用 SDK:
```cpp
lbot_l20_set_all_position(lbot_handle, LBOT_LEFT_ARM, hand_joints)
lbot_l20_set_all_position(lbot_handle, LBOT_RIGHT_ARM, hand_joints)
```
SDK 头文件注释写明该接口参数是:
```text
16 个自由度的目标位置,单位 degree
```
因此当前整手控制按 16 个整数位置发送。
示例:
```bash
ros2 topic pub --once /robot1/left_hand/set_l20_joint std_msgs/msg/Int32MultiArray \
"{data: [0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0]}"
```
右手示例:
```bash
ros2 topic pub --once /robot1/right_hand/set_l20_joint std_msgs/msg/Int32MultiArray \
"{data: [0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0]}"
```
## Linker Hand L20 独立 CAN 控制
当前工程也集成了 `src/linker_hand_ros2_sdk`,用于在灵巧手单独接入域控 CAN 口时控制左右 L20 灵巧手,并获取关节状态和矩阵触觉合力反馈。
启动服务:
```bash
cd ~/workspace/weipz-Lbot_Bridge
./scripts/linker_hand_control.sh start
```
停止服务:
```bash
cd ~/workspace/weipz-Lbot_Bridge
./scripts/linker_hand_control.sh stop
```
查看状态:
```bash
./scripts/linker_hand_control.sh status
```
脚本当前会启动 `can0` 和 `can1`,波特率为 `1000000`。默认 launch 配置为:
```text
左手:can1,hand_type = left,hand_joint = L20
右手:can0,hand_type = right,hand_joint = L20
```
脚本会强制设置:
```text
ROS_AUTOMATIC_DISCOVERY_RANGE=LOCALHOST
```
这样当前机器只发现本机 ROS 2 节点,避免同一局域网内旧的 `/linker_hand_sdk` 节点污染话题。
### 灵巧手控制话题
左手整手位置控制:
```text
/l20_left_hand_control_cmd
```
右手整手位置控制:
```text
/l20_right_hand_control_cmd
```
消息类型:
```text
sensor_msgs/msg/JointState
```
字段含义:
```text
position[] L20 目标关节位置数组,当前按 20 个 uint8 位置值使用,范围 0~255
velocity[] 可选速度数组;不需要设置速度时可以不填
effort[] 当前控制链路不使用
```
左手发布示例:
```bash
ros2 topic pub --once /l20_left_hand_control_cmd sensor_msgs/msg/JointState \
"{position: [205, 206, 230, 220, 226, 159, 127, 127, 32, 101, 80, 0, 0, 0, 0, 226, 254, 254, 248, 253]}"
```
右手发布示例:
```bash
ros2 topic pub --once /l20_right_hand_control_cmd sensor_msgs/msg/JointState \
"{position: [252, 147, 150, 136, 96, 255, 254, 202, 88, 0, 198, 0, 0, 0, 0, 254, 244, 241, 235, 211]}"
```
如果需要同时设置速度,可以填入 `velocity[]`:
```bash
ros2 topic pub --once /l20_right_hand_control_cmd sensor_msgs/msg/JointState \
"{position: [252, 147, 150, 136, 96, 255, 254, 202, 88, 0, 198, 0, 0, 0, 0, 254, 244, 241, 235, 211], velocity: [1, 1, 1, 1, 1, 1, 1, 1, 1, 1, 1, 1, 1, 1, 1, 1, 1, 1, 1, 1]}"
```
注意:这里的 `position[]` 不是弧度,是 Linker Hand CAN 协议中的 0~255 位置值。
### 灵巧手状态反馈
左手状态:
```text
/l20_left_hand_state
```
右手状态:
```text
/l20_right_hand_state
```
消息类型:
```text
sensor_msgs/msg/JointState
```
字段含义:
```text
name[] 关节名称
position[] 当前 L20 关节位置反馈,0~255
velocity[] 当前 L20 速度/速度阈值反馈,按 SDK 原始值发布
effort[] 当前未填有效力矩,通常为 0
```
订阅示例:
```bash
ros2 topic echo /l20_left_hand_state
ros2 topic echo /l20_right_hand_state
```
### 灵巧手矩阵触觉合力反馈
左手触觉合力:
```text
/l20_left_hand_matrix_touch_mass
```
右手触觉合力:
```text
/l20_right_hand_matrix_touch_mass
```
消息类型:
```text
std_msgs/msg/Float32MultiArray
```
字段含义:
```text
data[0] thumb_mass,拇指矩阵触觉合力
data[1] index_mass,食指矩阵触觉合力
data[2] middle_mass,中指矩阵触觉合力
data[3] ring_mass,无名指矩阵触觉合力
data[4] little_mass,小指矩阵触觉合力
```
订阅示例:
```bash
ros2 topic echo /l20_left_hand_matrix_touch_mass
ros2 topic echo /l20_right_hand_matrix_touch_mass
```
完整矩阵触觉和点云话题也会发布:
```text
/l20_left_hand_matrix_touch
/l20_left_hand_matrix_touch_pc
/l20_right_hand_matrix_touch
/l20_right_hand_matrix_touch_pc
```
其中 `matrix_touch` 当前仍是 JSON 字符串,`matrix_touch_pc` 为 `sensor_msgs/msg/PointCloud2`。
### 灵巧手配置指令
配置指令话题:
```text
/l20_hand_setting_cmd
```
消息类型:
```text
std_msgs/msg/String
```
该话题用于向 SDK 发送设置类 JSON 指令,例如清故障、读取故障、设置电流等。一般控制整手位置不需要使用该话题。
### 灵巧手 rosbag 录制
`linker_hand_control.sh start` 会同时启动 rosbag 录制,`stop` 会停止录制。每满 1 小时自动切一个新包。
录制文件命名:
```text
/tmp/L20_Hand_YYYYmmdd_HHMMSS.mcap
```
录制话题:
```text
/l20_left_hand_control_cmd
/l20_left_hand_state
/l20_left_hand_matrix_touch_mass
/l20_right_hand_control_cmd
/l20_right_hand_state
/l20_right_hand_matrix_touch_mass
```
录制日志:
```bash
tail -f ~/workspace/weipz-Lbot_Bridge/log/linker_hand_rosbag.log
```
查看录包进程状态:
```bash
./scripts/linker_hand_control.sh status
```
回放示例:
```bash
ros2 bag play /tmp/L20_Hand_YYYYmmdd_HHMMSS.mcap
```
## 相关代码位置
反馈发布:
```text
src/officer_sdk/lbot_driver/src/lbot_driver.cpp
```
主要位置:
```text
LBot::state_publish_timer_callback()
```
机械臂 MoveJ 服务:
```text
LeftArmServiceNode::move_joint_callback()
RightArmServiceNode::move_joint_callback()
```
L20/R20 灵巧手 topic:
```text
LeftArmServiceNode::left_hand_l20_set_joint_callback()
RightArmServiceNode::right_hand_l20_set_joint_callback()
```
SDK API 声明:
```text
src/officer_sdk/lbot_driver/include/lbot_driver/lbot_api_cpp.h
```
ROS 接口定义:
```text
src/officer_sdk/lbot_arm_interfaces/srv/MoveJ.srv
```
Linker Hand L20 独立 CAN 控制:
```text
src/linker_hand_ros2_sdk/linker_hand_ros2_sdk/linker_hand.py
src/linker_hand_ros2_sdk/launch/linker_hand_double.launch.py
scripts/linker_hand_control.sh
```
## 左右灵巧手 CAN 口对调
如果后续需要再次颠倒左右灵巧手的 CAN 口,只需要修改:
```text
src/linker_hand_ros2_sdk/launch/linker_hand_double.launch.py
```
当前默认配置为:
```python
左手:'hand_type': 'left', 'can': 'can1'
右手:'hand_type': 'right', 'can': 'can0'
```
如果要左右 CAN 口对调,改成:
```python
左手:'hand_type': 'left', 'can': 'can0'
右手:'hand_type': 'right', 'can': 'can1'
```
修改后重新编译并重启服务:
```bash
cd ~/workspace/weipz-Lbot_Bridge
colcon build --packages-select linker_hand_ros2_sdk
source install/setup.bash
./scripts/linker_hand_control.sh stop
./scripts/linker_hand_control.sh start
```
注意:只改 `can` 字段,不要交换 `hand_type`。`hand_type` 决定 ROS 话题名和左右手设备 ID,交换它会导致 `/l20_left_*` 和 `/l20_right_*` 语义反掉。
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#!/usr/bin/env bash
set -euo pipefail
SCRIPT_DIR="$(cd "$(dirname "${BASH_SOURCE[0]}")" && pwd)"
WS_DIR="$(cd "${SCRIPT_DIR}/.." && pwd)"
STATE_DIR="/tmp/lbot_arm_control"
PID_FILE="${STATE_DIR}/lbot_driver.pid"
PGID_FILE="${STATE_DIR}/lbot_driver.pgid"
BAG_PID_FILE="${STATE_DIR}/rosbag.pid"
BAG_PGID_FILE="${STATE_DIR}/rosbag.pgid"
LOG_FILE="${WS_DIR}/log/lbot_arm_control.log"
BAG_LOG_FILE="${WS_DIR}/log/lbot_arm_rosbag.log"
usage() {
echo "Usage: $0 {start|stop|status}"
}
is_running() {
[[ -f "${PID_FILE}" ]] || return 1
local pid
pid="$(cat "${PID_FILE}")"
[[ -n "${pid}" ]] || return 1
kill -0 "${pid}" 2>/dev/null
}
is_bag_running() {
[[ -f "${BAG_PID_FILE}" ]] || return 1
local pid
pid="$(cat "${BAG_PID_FILE}")"
[[ -n "${pid}" ]] || return 1
kill -0 "${pid}" 2>/dev/null
}
source_workspace() {
set +u
if [[ -n "${ROS_DISTRO:-}" && -f "/opt/ros/${ROS_DISTRO}/setup.bash" ]]; then
# shellcheck disable=SC1090
source "/opt/ros/${ROS_DISTRO}/setup.bash"
elif [[ -f "/opt/ros/jazzy/setup.bash" ]]; then
# shellcheck disable=SC1091
source "/opt/ros/jazzy/setup.bash"
fi
set -u
if [[ ! -f "${WS_DIR}/install/setup.bash" ]]; then
echo "Workspace is not built: ${WS_DIR}/install/setup.bash not found"
echo "Run: cd ${WS_DIR} && colcon build --packages-select lbot_arm_interfaces lbot_driver"
exit 1
fi
# shellcheck disable=SC1091
set +u
source "${WS_DIR}/install/setup.bash"
set -u
}
start_bag_recorder() {
mkdir -p "${STATE_DIR}" "$(dirname "${BAG_LOG_FILE}")"
if is_bag_running; then
echo "rosbag recorder is already running, pid=$(cat "${BAG_PID_FILE}")"
return 0
fi
echo "Starting rosbag recorder..."
echo "Rosbag log: ${BAG_LOG_FILE}"
: > "${BAG_LOG_FILE}"
setsid env WS_DIR="${WS_DIR}" bash -lc '
set -euo pipefail
set +u
source "${WS_DIR}/install/setup.bash"
set -u
while true; do
start_time=$(date +%Y%m%d_%H%M%S)
output=/tmp/lbot_arm_${start_time}.mcap
echo "Starting rosbag: ${output}"
set +e
timeout 3600 ros2 bag record \
--storage mcap \
--output "${output}" \
--polling-interval 2 \
--include-unpublished-topics \
--disable-keyboard-controls \
--log-level warn \
--topics \
/robot1/left_arm/joint_states \
/robot1/right_arm/joint_states \
/robot1/system_error \
/robot1/left_hand/set_l20_joint \
/robot1/right_hand/set_l20_joint \
--services \
/robot1/left_arm/move_joint \
/robot1/right_arm/move_joint
rc=$?
set -e
if [[ ${rc} -ne 124 ]]; then
exit ${rc}
fi
done
' >> "${BAG_LOG_FILE}" 2>&1 &
local pid=$!
local pgid
pgid="$(ps -o pgid= -p "${pid}" | tr -d ' ')"
echo "${pid}" > "${BAG_PID_FILE}"
echo "${pgid:-${pid}}" > "${BAG_PGID_FILE}"
sleep 1
if is_bag_running; then
echo "rosbag recorder started, pid=${pid}, pgid=$(cat "${BAG_PGID_FILE}")"
else
echo "rosbag recorder failed to start. Check log: ${BAG_LOG_FILE}"
rm -f "${BAG_PID_FILE}" "${BAG_PGID_FILE}"
return 1
fi
}
stop_bag_recorder() {
if ! [[ -f "${BAG_PID_FILE}" ]]; then
return 0
fi
local pid pgid
pid="$(cat "${BAG_PID_FILE}")"
pgid="${pid}"
if [[ -f "${BAG_PGID_FILE}" ]]; then
pgid="$(cat "${BAG_PGID_FILE}")"
fi
if ! kill -0 "${pid}" 2>/dev/null; then
rm -f "${BAG_PID_FILE}" "${BAG_PGID_FILE}"
return 0
fi
echo "Stopping rosbag recorder, pid=${pid}, pgid=${pgid}..."
kill -TERM -- "-${pgid}" 2>/dev/null || kill -TERM "${pid}" 2>/dev/null || true
for _ in {1..30}; do
if ! kill -0 "${pid}" 2>/dev/null; then
rm -f "${BAG_PID_FILE}" "${BAG_PGID_FILE}"
echo "rosbag recorder stopped"
return 0
fi
sleep 0.2
done
echo "rosbag recorder did not exit after SIGTERM, forcing stop..."
kill -KILL -- "-${pgid}" 2>/dev/null || kill -KILL "${pid}" 2>/dev/null || true
rm -f "${BAG_PID_FILE}" "${BAG_PGID_FILE}"
echo "rosbag recorder stopped"
}
start_driver() {
mkdir -p "${STATE_DIR}" "$(dirname "${LOG_FILE}")"
if is_running; then
echo "lbot_driver is already running, pid=$(cat "${PID_FILE}")"
start_bag_recorder
return 0
fi
source_workspace
echo "Starting lbot_driver from officer_sdk..."
echo "Log: ${LOG_FILE}"
: > "${LOG_FILE}"
setsid bash -lc "set +u; source '${WS_DIR}/install/setup.bash'; set -u; exec ros2 launch lbot_driver lbot_start_driver.launch.py" \
>> "${LOG_FILE}" 2>&1 &
local pid=$!
local pgid
pgid="$(ps -o pgid= -p "${pid}" | tr -d ' ')"
echo "${pid}" > "${PID_FILE}"
echo "${pgid:-${pid}}" > "${PGID_FILE}"
sleep 1
if is_running; then
echo "lbot_driver started, pid=${pid}, pgid=$(cat "${PGID_FILE}")"
start_bag_recorder
else
echo "lbot_driver failed to start. Check log: ${LOG_FILE}"
rm -f "${PID_FILE}" "${PGID_FILE}"
exit 1
fi
}
stop_driver() {
if ! [[ -f "${PID_FILE}" ]]; then
echo "lbot_driver is not running"
stop_bag_recorder
return 0
fi
local pid pgid
pid="$(cat "${PID_FILE}")"
pgid="${pid}"
if [[ -f "${PGID_FILE}" ]]; then
pgid="$(cat "${PGID_FILE}")"
fi
if ! kill -0 "${pid}" 2>/dev/null; then
echo "lbot_driver process is not alive, cleaning state"
rm -f "${PID_FILE}" "${PGID_FILE}"
stop_bag_recorder
return 0
fi
echo "Stopping lbot_driver, pid=${pid}, pgid=${pgid}..."
kill -TERM -- "-${pgid}" 2>/dev/null || kill -TERM "${pid}" 2>/dev/null || true
for _ in {1..30}; do
if ! kill -0 "${pid}" 2>/dev/null; then
rm -f "${PID_FILE}" "${PGID_FILE}"
echo "lbot_driver stopped"
stop_bag_recorder
return 0
fi
sleep 0.2
done
echo "lbot_driver did not exit after SIGTERM, forcing stop..."
kill -KILL -- "-${pgid}" 2>/dev/null || kill -KILL "${pid}" 2>/dev/null || true
rm -f "${PID_FILE}" "${PGID_FILE}"
echo "lbot_driver stopped"
stop_bag_recorder
}
status_driver() {
if is_running; then
echo "lbot_driver is running, pid=$(cat "${PID_FILE}"), pgid=$(cat "${PGID_FILE}" 2>/dev/null || cat "${PID_FILE}")"
else
echo "lbot_driver is not running"
fi
if is_bag_running; then
echo "rosbag recorder is running, pid=$(cat "${BAG_PID_FILE}"), pgid=$(cat "${BAG_PGID_FILE}" 2>/dev/null || cat "${BAG_PID_FILE}")"
else
echo "rosbag recorder is not running"
fi
}
case "${1:-}" in
start)
start_driver
;;
stop)
stop_driver
;;
status)
status_driver
;;
*)
usage
exit 1
;;
esac
+321
View File
@@ -0,0 +1,321 @@
#!/usr/bin/env bash
set -euo pipefail
SCRIPT_DIR="$(cd "$(dirname "${BASH_SOURCE[0]}")" && pwd)"
WS_DIR="$(cd "${SCRIPT_DIR}/.." && pwd)"
STATE_DIR="/tmp/linker_hand_control"
PID_FILE="${STATE_DIR}/linker_hand.pid"
PGID_FILE="${STATE_DIR}/linker_hand.pgid"
BAG_PID_FILE="${STATE_DIR}/rosbag.pid"
BAG_PGID_FILE="${STATE_DIR}/rosbag.pgid"
LOG_FILE="${WS_DIR}/log/linker_hand_control.log"
BAG_LOG_FILE="${WS_DIR}/log/linker_hand_rosbag.log"
CAN_INTERFACES=(can0 can1)
CAN_BITRATE=1000000
ROSBAG_TOPICS=(
/l20_left_hand_control_cmd
/l20_left_hand_state
/l20_left_hand_matrix_touch_mass
/l20_right_hand_control_cmd
/l20_right_hand_state
/l20_right_hand_matrix_touch_mass
)
# Keep this driver isolated from ROS 2 nodes on other machines in the same LAN.
# Without this, DDS discovery can pick up stale linker_hand_sdk nodes from the
# subnet and make the same topic appear to have multiple publishers.
export ROS_AUTOMATIC_DISCOVERY_RANGE=LOCALHOST
usage() {
echo "Usage: $0 {start|stop|status}"
}
is_running() {
[[ -f "${PID_FILE}" ]] || return 1
local pid
pid="$(cat "${PID_FILE}")"
[[ -n "${pid}" ]] || return 1
kill -0 "${pid}" 2>/dev/null
}
is_bag_running() {
[[ -f "${BAG_PID_FILE}" ]] || return 1
local pid
pid="$(cat "${BAG_PID_FILE}")"
[[ -n "${pid}" ]] || return 1
kill -0 "${pid}" 2>/dev/null
}
source_workspace() {
set +u
if [[ -n "${ROS_DISTRO:-}" && -f "/opt/ros/${ROS_DISTRO}/setup.bash" ]]; then
# shellcheck disable=SC1090
source "/opt/ros/${ROS_DISTRO}/setup.bash"
elif [[ -f "/opt/ros/jazzy/setup.bash" ]]; then
# shellcheck disable=SC1091
source "/opt/ros/jazzy/setup.bash"
fi
set -u
if [[ ! -f "${WS_DIR}/install/setup.bash" ]]; then
echo "Workspace is not built: ${WS_DIR}/install/setup.bash not found"
echo "Run: cd ${WS_DIR} && colcon build --packages-select linker_hand_ros2_sdk"
exit 1
fi
set +u
# shellcheck disable=SC1091
source "${WS_DIR}/install/setup.bash"
set -u
}
restart_ros_daemon_localhost() {
ros2 daemon stop >/dev/null 2>&1 || true
ros2 daemon start >/dev/null 2>&1 || true
}
start_can() {
for can_if in "${CAN_INTERFACES[@]}"; do
if ! ip link show "${can_if}" >/dev/null 2>&1; then
echo "CAN interface not found: ${can_if}"
exit 1
fi
echo "Starting ${can_if} at ${CAN_BITRATE} bps..."
sudo ip link set "${can_if}" down 2>/dev/null || true
sudo ip link set "${can_if}" type can bitrate "${CAN_BITRATE}"
sudo ip link set "${can_if}" up
done
}
stop_can() {
for can_if in "${CAN_INTERFACES[@]}"; do
if ip link show "${can_if}" >/dev/null 2>&1; then
echo "Stopping ${can_if}..."
sudo ip link set "${can_if}" down 2>/dev/null || true
fi
done
}
start_bag_recorder() {
mkdir -p "${STATE_DIR}" "$(dirname "${BAG_LOG_FILE}")"
if is_bag_running; then
echo "rosbag recorder is already running, pid=$(cat "${BAG_PID_FILE}")"
return 0
fi
echo "Starting rosbag recorder..."
echo "Rosbag log: ${BAG_LOG_FILE}"
: > "${BAG_LOG_FILE}"
setsid env \
WS_DIR="${WS_DIR}" \
ROS_AUTOMATIC_DISCOVERY_RANGE="${ROS_AUTOMATIC_DISCOVERY_RANGE}" \
bash -lc '
set -euo pipefail
set +u
source "${WS_DIR}/install/setup.bash"
set -u
while true; do
start_time=$(date +%Y%m%d_%H%M%S)
output=/tmp/L20_Hand_${start_time}.mcap
echo "Starting rosbag: ${output}"
set +e
timeout 3600 ros2 bag record \
--storage mcap \
--output "${output}" \
--polling-interval 2 \
--include-unpublished-topics \
--disable-keyboard-controls \
--log-level warn \
--topics \
/l20_left_hand_control_cmd \
/l20_left_hand_state \
/l20_left_hand_matrix_touch_mass \
/l20_right_hand_control_cmd \
/l20_right_hand_state \
/l20_right_hand_matrix_touch_mass
rc=$?
set -e
if [[ ${rc} -ne 124 ]]; then
exit ${rc}
fi
done
' >> "${BAG_LOG_FILE}" 2>&1 &
local pid=$!
local pgid
pgid="$(ps -o pgid= -p "${pid}" | tr -d ' ')"
echo "${pid}" > "${BAG_PID_FILE}"
echo "${pgid:-${pid}}" > "${BAG_PGID_FILE}"
sleep 1
if is_bag_running; then
echo "rosbag recorder started, pid=${pid}, pgid=$(cat "${BAG_PGID_FILE}")"
else
echo "rosbag recorder failed to start. Check log: ${BAG_LOG_FILE}"
rm -f "${BAG_PID_FILE}" "${BAG_PGID_FILE}"
return 1
fi
}
stop_bag_recorder() {
if ! [[ -f "${BAG_PID_FILE}" ]]; then
return 0
fi
local pid pgid
pid="$(cat "${BAG_PID_FILE}")"
pgid="${pid}"
if [[ -f "${BAG_PGID_FILE}" ]]; then
pgid="$(cat "${BAG_PGID_FILE}")"
fi
if ! kill -0 "${pid}" 2>/dev/null; then
rm -f "${BAG_PID_FILE}" "${BAG_PGID_FILE}"
return 0
fi
echo "Stopping rosbag recorder, pid=${pid}, pgid=${pgid}..."
kill -TERM -- "-${pgid}" 2>/dev/null || kill -TERM "${pid}" 2>/dev/null || true
for _ in {1..30}; do
if ! kill -0 "${pid}" 2>/dev/null; then
rm -f "${BAG_PID_FILE}" "${BAG_PGID_FILE}"
echo "rosbag recorder stopped"
return 0
fi
sleep 0.2
done
echo "rosbag recorder did not exit after SIGTERM, forcing stop..."
kill -KILL -- "-${pgid}" 2>/dev/null || kill -KILL "${pid}" 2>/dev/null || true
rm -f "${BAG_PID_FILE}" "${BAG_PGID_FILE}"
echo "rosbag recorder stopped"
}
start_driver() {
mkdir -p "${STATE_DIR}" "$(dirname "${LOG_FILE}")"
if is_running; then
echo "linker_hand service is already running, pid=$(cat "${PID_FILE}")"
start_bag_recorder
return 0
fi
source_workspace
restart_ros_daemon_localhost
start_can
echo "Starting linker_hand service..."
echo "Log: ${LOG_FILE}"
: > "${LOG_FILE}"
setsid bash -lc "export ROS_AUTOMATIC_DISCOVERY_RANGE=LOCALHOST; set +u; source '${WS_DIR}/install/setup.bash'; set -u; exec ros2 launch linker_hand_ros2_sdk linker_hand_double.launch.py" \
>> "${LOG_FILE}" 2>&1 &
local pid=$!
local pgid
pgid="$(ps -o pgid= -p "${pid}" | tr -d ' ')"
echo "${pid}" > "${PID_FILE}"
echo "${pgid:-${pid}}" > "${PGID_FILE}"
sleep 1
if is_running; then
echo "linker_hand service started, pid=${pid}, pgid=$(cat "${PGID_FILE}")"
start_bag_recorder
else
echo "linker_hand service failed to start. Check log: ${LOG_FILE}"
rm -f "${PID_FILE}" "${PGID_FILE}"
stop_can
exit 1
fi
}
stop_driver() {
if ! [[ -f "${PID_FILE}" ]]; then
echo "linker_hand service is not running"
stop_bag_recorder
stop_can
return 0
fi
local pid pgid
pid="$(cat "${PID_FILE}")"
pgid="${pid}"
if [[ -f "${PGID_FILE}" ]]; then
pgid="$(cat "${PGID_FILE}")"
fi
if ! kill -0 "${pid}" 2>/dev/null; then
echo "linker_hand process is not alive, cleaning state"
rm -f "${PID_FILE}" "${PGID_FILE}"
stop_bag_recorder
stop_can
return 0
fi
echo "Stopping linker_hand service, pid=${pid}, pgid=${pgid}..."
kill -TERM -- "-${pgid}" 2>/dev/null || kill -TERM "${pid}" 2>/dev/null || true
for _ in {1..30}; do
if ! kill -0 "${pid}" 2>/dev/null; then
rm -f "${PID_FILE}" "${PGID_FILE}"
echo "linker_hand service stopped"
stop_bag_recorder
stop_can
return 0
fi
sleep 0.2
done
echo "linker_hand service did not exit after SIGTERM, forcing stop..."
kill -KILL -- "-${pgid}" 2>/dev/null || kill -KILL "${pid}" 2>/dev/null || true
rm -f "${PID_FILE}" "${PGID_FILE}"
echo "linker_hand service stopped"
stop_bag_recorder
stop_can
}
status_driver() {
if is_running; then
echo "linker_hand service is running, pid=$(cat "${PID_FILE}"), pgid=$(cat "${PGID_FILE}" 2>/dev/null || cat "${PID_FILE}")"
else
echo "linker_hand service is not running"
fi
echo "ROS_AUTOMATIC_DISCOVERY_RANGE=${ROS_AUTOMATIC_DISCOVERY_RANGE}"
if is_bag_running; then
echo "rosbag recorder is running, pid=$(cat "${BAG_PID_FILE}"), pgid=$(cat "${BAG_PGID_FILE}" 2>/dev/null || cat "${BAG_PID_FILE}")"
else
echo "rosbag recorder is not running"
fi
echo "rosbag topics: ${ROSBAG_TOPICS[*]}"
for can_if in "${CAN_INTERFACES[@]}"; do
if ip link show "${can_if}" >/dev/null 2>&1; then
ip -details link show "${can_if}" | sed -n '1,2p'
else
echo "${can_if}: not found"
fi
done
}
case "${1:-}" in
start)
start_driver
;;
stop)
stop_driver
;;
status)
status_driver
;;
*)
usage
exit 1
;;
esac
@@ -0,0 +1,21 @@
#!/usr/bin/env python3
# -*- coding: utf-8 -*-
from launch import LaunchDescription
from launch_ros.actions import Node
def generate_launch_description():
return LaunchDescription([
Node(
package='linker_hand_ros2_sdk',
executable='linker_hand_sdk',
name='linker_hand_sdk',
output='screen',
parameters=[{
'hand_type': 'left', # 配置Linker Hand灵巧手类型 left | right 字母为小写
'hand_joint': "O6", # O6\L6P\L6\L7\L10\L20\G20(工业版)\L21 字母为大写
'is_touch': True, # 配置Linker Hand灵巧手是否有压力传感器 True | False
'can': 'can0', # 这里需要修改为实际的CAN总线名称 如果是win系统则类似于 PCAN_USBBUS1。注:蓝色盒子为Linux下can0,WIN下位PCAN_USBBUS1。透明盒子Linux下为can0,WIN下为0
"modbus": "None" # "None" | "/dev/ttyUSB0" 这里需要修改为实际的Modbus总线名称 如果是win系统则 COM* Ubuntu则为/dev/ttyUSB* 注意添加sudo chmod 777 /dev/ttyUSB*权限
}],
),
])
@@ -0,0 +1,35 @@
#!/usr/bin/env python3
# -*- coding: utf-8 -*-
from launch import LaunchDescription
from launch_ros.actions import Node
def generate_launch_description():
return LaunchDescription([
Node(
package='linker_hand_ros2_sdk',
executable='linker_hand_sdk',
name='linker_hand_sdk_left',
output='screen',
parameters=[{
'hand_type': 'left', # 配置Linker Hand灵巧手类型 left | right 字母为小写
'hand_joint': "L20", # O6\L6P\L6\L7\L10\L20\G20(工业版)\L21 字母为大写
'is_touch': True, # 配置Linker Hand灵巧手是否有压力传感器 True | False
'can': 'can0', # 这里需要修改为实际的CAN总线名称 如果是win系统则类似于 PCAN_USBBUS1
"modbus": "None" # "None" | "/dev/ttyUSB0" 这里需要修改为实际的Modbus总线名称 如果是win系统则 COM* Ubuntu则为/dev/ttyUSB*
}],
),
Node(
package='linker_hand_ros2_sdk',
executable='linker_hand_sdk',
name='linker_hand_sdk_right',
output='screen',
parameters=[{
'hand_type': 'right', # 配置Linker Hand灵巧手类型 left | right 字母为小写
'hand_joint': "L20", # O6\L6P\L6\L7\L10\L20\G20(工业版)\L21 字母为大写
'is_touch': True, # 配置Linker Hand灵巧手是否有压力传感器 True | False
'can': 'can1', # 这里需要修改为实际的CAN总线名称 如果是win系统则类似于 PCAN_USBBUS1
"modbus": "None" # "None" | "/dev/ttyUSB0" 这里需要修改为实际的Modbus总线名称 如果是win系统则 COM* Ubuntu则为/dev/ttyUSB*
}],
),
])
+31
View File
@@ -0,0 +1,31 @@
from launch import LaunchDescription
from launch_ros.actions import Node
def generate_launch_description():
return LaunchDescription([
Node(
package='linker_hand_ros2_sdk',
executable='linker_hand_sdk',
name='linker_hand_sdk_left',
output='screen',
parameters=[{
'hand_type': 'left',
'hand_joint': "L10", # 这里需要修改为实际Linker Hand的型号 L7、L10、L20、L21、L25
'is_touch': True, # 是否带有压力传感器
'can': 'can0', # 这里需要修改为实际的CAN总线名称
}],
),
Node(
package='linker_hand_ros2_sdk',
executable='linker_hand_sdk',
name='linker_hand_sdk_right',
output='screen',
parameters=[{
'hand_type': 'right',
'hand_joint': "L10", # 这里需要修改为实际Linker Hand的型号 L7、L10、L20、L21、L25
'is_touch': True, # 是否带有压力传感器
'can': 'can0', # 这里需要修改为实际的CAN总线名称
}],
),
])
@@ -0,0 +1,146 @@
LEFT_HAND:
- ACTION_NAME: 张开
POSITION:
- 255
- 70
- 255
- 255
- 255
- 255
- 255
- 255
- 255
- 255
- ACTION_NAME: 捏合5CM
POSITION:
- 165
- 70
- 165
- 165
- 255
- 255
- 113
- 255
- 255
- 88
- ACTION_NAME: 捏合1CM
POSITION:
- 150
- 70
- 155
- 155
- 255
- 255
- 113
- 255
- 255
- 88
- ACTION_NAME: 握3CM物品
POSITION:
- 113
- 70
- 85
- 85
- 85
- 85
- 85
- 255
- 255
- 88
- ACTION_NAME: 准备抓握
POSITION:
- 255
- 70
- 255
- 255
- 255
- 255
- 255
- 255
- 255
- 121
- ACTION_NAME: 拇指弯曲
POSITION:
- 35
- 140
- 255
- 255
- 255
- 255
- 255
- 255
- 255
- 30
- ACTION_NAME: 食指弯曲
POSITION:
- 255
- 70
- 0
- 255
- 255
- 255
- 255
- 255
- 255
- 255
- ACTION_NAME: shishi
POSITION:
- 85
- 30
- 255
- 0
- 0
- 255
- 0
- 0
- 0
- 66
RIGHT_HAND:
- ACTION_NAME: 张开
POSITION:
- 255
- 70
- 255
- 255
- 255
- 255
- 255
- 255
- 255
- 255
- ACTION_NAME: 捏合5CM
POSITION:
- 165
- 70
- 165
- 165
- 255
- 255
- 113
- 255
- 255
- 88
- ACTION_NAME: 捏合1CM
POSITION:
- 150
- 70
- 155
- 155
- 255
- 255
- 113
- 255
- 255
- 88
- ACTION_NAME: 准备抓握
POSITION:
- 255
- 70
- 255
- 255
- 255
- 255
- 255
- 255
- 255
- 121
@@ -0,0 +1,110 @@
LEFT_HAND:
- ACTION_NAME: 张开
POSITION:
- 96
- 255
- 255
- 255
- 255
- 150
- 114
- 151
- 189
- 255
- 180
- 255
- 255
- 255
- 255
- 255
- 255
- 255
- 255
- 255
- 255
- 255
- 255
- 255
- 255
- ACTION_NAME: 握拳
POSITION:
- 177
- 0
- 0
- 0
- 0
- 51
- 114
- 151
- 189
- 255
- 79
- 255
- 255
- 255
- 255
- 131
- 222
- 244
- 255
- 255
- 0
- 0
- 0
- 0
- 0
RIGHT_HAND:
- ACTION_NAME: 张开
POSITION:
- 96
- 255
- 255
- 255
- 255
- 150
- 114
- 151
- 189
- 255
- 180
- 255
- 255
- 255
- 255
- 255
- 255
- 255
- 255
- 255
- 255
- 255
- 255
- 255
- 255
- ACTION_NAME: 握拳
POSITION:
- 230
- 80
- 51
- 42
- 7
- 35
- 114
- 151
- 189
- 255
- 58
- 255
- 255
- 255
- 255
- 133
- 5
- 0
- 0
- 0
- 30
- 0
- 0
- 0
- 0
@@ -0,0 +1,83 @@
LEFT_HAND:
- ACTION_NAME: 张开
POSITION:
- 96
- 255
- 255
- 255
- 255
- 150
- 114
- 151
- 189
- 255
- 180
- 255
- 255
- 255
- 255
- 255
- 255
- 255
- 255
- 255
- 255
- 255
- 255
- 255
- 255
RIGHT_HAND:
- ACTION_NAME: 张开
POSITION:
- 96
- 255
- 255
- 255
- 255
- 150
- 114
- 151
- 189
- 255
- 180
- 255
- 255
- 255
- 255
- 255
- 255
- 255
- 255
- 255
- 255
- 255
- 255
- 255
- 255
- ACTION_NAME: 握拳
POSITION:
- 230
- 80
- 51
- 42
- 7
- 35
- 114
- 151
- 189
- 255
- 58
- 255
- 255
- 255
- 255
- 133
- 5
- 0
- 0
- 0
- 30
- 0
- 0
- 0
- 0
@@ -0,0 +1,26 @@
LEFT_HAND:
- ACTION_NAME: 握拳
POSITION:
- 67
- 151
- 0
- 0
- 0
- 0
- ACTION_NAME: 张开
POSITION:
- 255
- 179
- 255
- 255
- 255
- 255
RIGHT_HAND:
- ACTION_NAME: 张开
POSITION:
- 255
- 70
- 255
- 255
- 255
- 255
@@ -0,0 +1,29 @@
LEFT_HAND:
- ACTION_NAME: 握拳
POSITION:
- 67
- 151
- 0
- 0
- 0
- 0
- 37
- ACTION_NAME: 张开
POSITION:
- 255
- 179
- 255
- 255
- 255
- 255
- 83
RIGHT_HAND:
- ACTION_NAME: 张开
POSITION:
- 255
- 70
- 255
- 255
- 255
- 255
- 255
@@ -0,0 +1,26 @@
LEFT_HAND:
- ACTION_NAME: 握拳
POSITION:
- 67
- 151
- 0
- 0
- 0
- 0
- ACTION_NAME: 张开
POSITION:
- 255
- 179
- 255
- 255
- 255
- 255
RIGHT_HAND:
- ACTION_NAME: 张开
POSITION:
- 255
- 70
- 255
- 255
- 255
- 255
@@ -0,0 +1,58 @@
VERSION: 3.1.1 # 支持O6、L6在RS485模式
LINKER_HAND: # 手部配置信息
LEFT_HAND:
EXISTS: True # 是否存在左手
TOUCH: True # 是否有压力传感器
CAN: "can1" # 配置CAN端口 默认can0 如果MODUBS不为"None",则CAN配置失效。 如果是win系统则类似于 PCAN_USBBUS1。注:蓝色盒子为Linux下can0,WIN下位PCAN_USBBUS1。透明盒子Linux下为can0,WIN下为0
MODBUS: "None" # 通讯协议是否为485 默认None 如果启动485,则是设备端口 /dev/ttyUSB* CAN配置失效 当前只支持O6/L6.后续版本正在努力增加中
JOINT: L20 # 左手型号 O6/L6/L7/L10/L20/G20/L21/L25/
NAME: # 默认值,不用修改
- joint41
- joint42
- joint43
- joint44
- joint45
- joint46
- joint47
- joint48
- joint49
- joint50
- joint51
- joint52
- joint53
- joint54
- joint55
- joint56
- joint57
- joint58
- joint59
- joint60
RIGHT_HAND:
EXISTS: True # 是否存在右手
TOUCH: True # 是否有压力传感器
CAN: "can0" # 配置CAN端口 默认can0 如果MODUBS不为"None",则CAN配置失效。 如果是win系统则类似于 PCAN_USBBUS1。注:蓝色盒子为Linux下can0,WIN下位PCAN_USBBUS1。透明盒子Linux下为can0,WIN下为0
MODBUS: "None" # 通讯协议是否为485 默认None 如果启动485,则是设备端口 /dev/ttyUSB* CAN配置失效 当前只支持O6/L6.后续版本正在努力增加中
JOINT: L20 # 右手型号 O6/L6/L7/L10/L20/G20/L21/L25/
NAME: # 默认值,不用修改
- joint71
- joint72
- joint73
- joint77
- joint75
- joint76
- joint77
- joint78
- joint79
- joint80
- joint81
- joint82
- joint83
- joint84
- joint88
- joint86
- joint87
- joint88
- joint89
- joint90
PASSWORD: "12345678" # 由于与can通讯,需要激活通讯接口用到系统管理员密码。只有Linux系统需要,windows系统不需要。RS485不需要修改,RS485需要给/dev/ttyUSB* 777权限
@@ -0,0 +1,531 @@
#!/usr/bin/env python3
# -*- coding: utf-8 -*-
import can
import time,sys
import threading
import numpy as np
#from tabulate import tabulate
from enum import Enum
from utils.open_can import OpenCan
from utils.color_msg import ColorMsg
from can.exceptions import CanError
class FrameProperty(Enum):
INVALID_FRAME_PROPERTY = 0x00
JOINT_POSITION_RCO = 0x01
MAX_PRESS_RCO = 0x02
MAX_PRESS_RCO2 = 0x03
JOINT_POSITION2_RCO = 0x04
JOINT_SPEED = 0x05
JOINT_SPEED2 = 0x06
REQUEST_DATA_RETURN = 0x09
JOINT_POSITION_N = 0x11
MAX_PRESS_N = 0x12
HAND_NORMAL_FORCE = 0X20
HAND_TANGENTIAL_FORCE = 0X21
HAND_TANGENTIAL_FORCE_DIR = 0X22
HAND_APPROACH_INC = 0X23
MOTOR_TEMPERATURE_1 = 0x33
MOTOR_TEMPERATURE_2 = 0x34
class LinkerHandL10Can:
def __init__(self,can_id, can_channel='can0', baudrate=1000000, yaml=""):
self.can_id = can_id
self.can_channel = can_channel
self.baudrate = baudrate
self.open_can = OpenCan(load_yaml=yaml)
self.is_cmd = False
self.x01 = [-1] * 5
self.x02 = [-1] * 5
self.x03 = [-1] * 5
self.x04 = [-1] * 5
self.x05 = [-1] * 5
self.x06 = [-1] * 5
self.x33 = self.x34 = [0] * 5
# Fault codes
self.x35,self.x36 = [0] * 5,[0] * 5
# New pressure sensors
self.xb0,self.xb1,self.xb2,self.xb3,self.xb4,self.xb5 = [-1] * 5,[-1] * 5,[-1] * 5,[-1] * 5,[-1] * 5,[-1] * 5
self.thumb_matrix = np.full((12, 6), -1)
self.index_matrix = np.full((12, 6), -1)
self.middle_matrix = np.full((12, 6), -1)
self.ring_matrix = np.full((12, 6), -1)
self.little_matrix = np.full((12, 6), -1)
self.matrix_map = {
0: 0,
16: 1,
32: 2,
48: 3,
64: 4,
80: 5,
96: 6,
112: 7,
128: 8,
144: 9,
160: 10,
176: 11,
}
self.serial_number = []
self.serial_number_map = {
0: 0,
1: 1,
2: 2,
3: 3,
}
self.can_id = can_id
self.joint_angles = [0] * 10
self.pressures = [200] * 5 # Default torque 200
self.bus = self.init_can_bus(can_channel, baudrate)
self.normal_force, self.tangential_force, self.tangential_force_dir, self.approach_inc = [[-1] * 5 for _ in range(4)]
self.version = None
# Start receiving thread
self.running = True
self.receive_thread = threading.Thread(target=self.receive_response)
self.receive_thread.daemon = True
self.receive_thread.start()
self.version = self.get_version()
def init_can_bus(self, channel, baudrate):
"""
尝试按优先级连接 CAN 总线,并实现回退机制。
"""
# --- 统一异常处理块开始 ---
try:
if sys.platform == "linux":
# Linux 优先级:1. socketcan
try:
self.open_can.open_can(self.can_channel)
# 尝试 socketcan
bus = can.interface.Bus(channel=channel, interface="socketcan", bitrate=baudrate)
ColorMsg(msg=f"成功连接: interface='socketcan', channel='{channel}'", color="green")
return bus
except CanError as e:
# 如果 socketcan 失败,可以考虑在这里尝试其他 Linux 接口 (如 'pcan')
ColorMsg(msg=f"socketcan 接口连接失败: {e}", color="yellow")
raise # 重新抛出异常,让外层 try 捕获
elif sys.platform == "win32":
# Windows 优先级:1. pcan
try:
bus = can.interface.Bus(channel=channel, interface='pcan', bitrate=baudrate)
ColorMsg(msg=f"成功连接: interface='pcan', channel='{channel}'", color="green")
return bus
except CanError as e:
ColorMsg(msg=f"pcan 接口连接失败,尝试回退到 'candle': {e}", color="yellow")
# Windows 优先级:2. candle (回退方法)
try:
bus = can.Bus(interface="candle", channel=channel, bitrate=baudrate)
ColorMsg(msg=f"成功连接: interface='candle', channel='{channel}'", color="green")
return bus
except CanError as e:
ColorMsg(msg=f"candle 接口连接失败: {e}", color="yellow")
raise # 两个接口都失败,抛出异常
else:
raise EnvironmentError("Unsupported platform for CAN interface")
# --- 统一异常处理块结束 ---
except Exception as e:
# 如果任何一个接口尝试失败并抛出异常(包括 EnvironmentError)
ColorMsg(msg=f"致命错误:所有 CAN 接口连接尝试均失败或平台不受支持。请检查设备连接或驱动安装和配置文件中CAN参数的配置。\n错误详情: {e}", color="red")
# 保持 raise 动作,将错误信息传递给调用者,避免程序继续运行
raise
def send_frame(self, frame_property, data_list,sleep=0.002):
"""Send a single CAN frame with specified properties and data."""
frame_property_value = int(frame_property.value) if hasattr(frame_property, 'value') else frame_property
data = [frame_property_value] + [int(val) for val in data_list]
msg = can.Message(arbitration_id=self.can_id, data=data, is_extended_id=False)
try:
self.bus.send(msg)
except can.CanError as e:
print(f"Failed to send message: {e}")
self.open_can.open_can(self.can_channel)
time.sleep(1)
self.is_can = self.open_can.is_can_up_sysfs(interface=self.can_channel)
time.sleep(1)
if self.is_can:
self.bus = can.interface.Bus(channel=self.can_channel, interface="socketcan", bitrate=self.baudrate)
else:
print("Reconnecting CAN devices ....")
# time.sleep(1)
#
time.sleep(sleep)
def set_joint_positions(self, joint_angles):
"""Set the positions of 10 joints (joint_angles: list of 10 values)."""
self.joint_angles = joint_angles
self.is_cmd = True
# Send angle control in frames, L10 protocol splits into first 6 and last 4
self.send_frame(FrameProperty.JOINT_POSITION2_RCO, self.joint_angles[6:])
#time.sleep(0.001)
self.send_frame(FrameProperty.JOINT_POSITION_RCO, self.joint_angles[:6])
#time.sleep(0.002)
self.is_cmd = False
def set_max_torque_limits(self, pressures,type="get"):
"""Set maximum torque limits"""
if type == "get":
self.pressures = [0.0]
else:
self.pressures = pressures[:5]
#self.send_frame(FrameProperty.MAX_PRESS_RCO, self.pressures)
def set_joint_speed_l10(self,speed=[180]*5):
self.x05 = speed
for i in range(2):
time.sleep(0.01)
self.send_frame(0x05, speed)
def set_speed(self,speed=[180]*5):
if len(speed) == 5:
self.x05 = speed
for i in range(2):
time.sleep(0.01)
self.send_frame(0x05, speed)
elif len(speed) == 10:
for i in range(2):
time.sleep(0.01)
self.send_frame(0x05, speed[:5])
self.send_frame(0x06, speed[5:])
else:
raise ValueError("Speed list must have 10 elements.")
def request_all_status(self):
"""Get all joint positions and pressures."""
self.send_frame(FrameProperty.REQUEST_DATA_RETURN, [])
''' -------------------Pressure Sensors---------------------- '''
def get_normal_force(self):
self.send_frame(FrameProperty.HAND_NORMAL_FORCE,[],sleep=0.004)
def get_tangential_force(self):
self.send_frame(FrameProperty.HAND_TANGENTIAL_FORCE,[],sleep=0.004)
def get_tangential_force_dir(self):
self.send_frame(FrameProperty.HAND_TANGENTIAL_FORCE_DIR,[],sleep=0.004)
def get_approach_inc(self):
self.send_frame(FrameProperty.HAND_APPROACH_INC,[],sleep=0.004)
''' -------------------Motor Temperature---------------------- '''
def get_motor_temperature(self):
self.send_frame(FrameProperty.MOTOR_TEMPERATURE_1,[],sleep=0.01)
self.send_frame(FrameProperty.MOTOR_TEMPERATURE_2,[],sleep=0.01)
# Motor fault codes
def get_motor_fault_code(self):
self.send_frame(0x35,[],sleep=0.1)
self.send_frame(0x36,[],sleep=0.1)
def receive_response(self):
"""Receive CAN responses and process them."""
while self.running:
try:
msg = self.bus.recv(timeout=1.0)
if msg:
self.process_response(msg)
except can.CanError as e:
print(f"Error receiving CAN message: {e}")
def process_response(self, msg):
"""Process received CAN messages."""
if msg.arbitration_id == self.can_id:
frame_type = msg.data[0]
response_data = msg.data[1:]
if len(list(response_data)) == 0:
return
if frame_type == FrameProperty.JOINT_POSITION_RCO.value: # 0x01
self.x01 = list(response_data)
elif frame_type == FrameProperty.MAX_PRESS_RCO.value: # 0x02
self.x02 = list(response_data)
elif frame_type == FrameProperty.MAX_PRESS_RCO2.value: # 0x03
self.x03 = list(response_data)
elif frame_type == FrameProperty.JOINT_POSITION2_RCO.value: # 0x04
self.x04 = list(response_data)
elif frame_type == 0x05:
self.x05 = list(response_data)
elif frame_type == 0x06:
self.x06 = list(response_data)
elif frame_type == 0x20:
# Five-finger normal force
d = list(response_data)
self.normal_force = [float(i) for i in d]
elif frame_type == 0x21:
# Five-finger tangential force
d = list(response_data)
self.tangential_force = [float(i) for i in d]
elif frame_type == 0x22:
# Five-finger tangential force direction
d = list(response_data)
self.tangential_force_dir = [float(i) for i in d]
elif frame_type == 0x23:
# Five-finger approach increment
d = list(response_data)
self.approach_inc = [float(i) for i in d]
elif frame_type == 0x33:
self.x33 = list(response_data)
elif frame_type == 0x34:
self.x34 = list(response_data)
elif frame_type == 0x35:
self.x35 = list(response_data)
elif frame_type == 0x36:
self.x36 = list(response_data)
elif frame_type == 0xb0:
self.xb0 = list(response_data)
elif frame_type == 0xb1:
d = list(response_data)
if len(d) == 2:
self.xb1 = d
elif len(d) == 7:
index = self.matrix_map.get(d[0])
if index is not None:
self.thumb_matrix[index] = d[1:] # Remove the first flag bit
elif frame_type == 0xb2:
d = list(response_data)
if len(d) == 2:
self.xb2 = d
elif len(d) == 7:
index = self.matrix_map.get(d[0])
if index is not None:
self.index_matrix[index] = d[1:] # Remove the first flag bit
elif frame_type == 0xb3:
d = list(response_data)
if len(d) == 2:
self.xb3 = d
elif len(d) == 7:
index = self.matrix_map.get(d[0])
if index is not None:
self.middle_matrix[index] = d[1:] # Remove the first flag bit
elif frame_type == 0xb4:
d = list(response_data)
if len(d) == 2:
self.xb4 = d
elif len(d) == 7:
index = self.matrix_map.get(d[0])
if index is not None:
self.ring_matrix[index] = d[1:] # Remove the first flag bit
elif frame_type == 0xb5:
d = list(response_data)
if len(d) == 2:
self.xb5 = d
elif len(d) == 7:
index = self.matrix_map.get(d[0])
if index is not None:
self.little_matrix[index] = d[1:] # Remove the first flag bit
elif frame_type == 0x64:
self.version = list(response_data)
elif frame_type == 0xC2: # version number
self.version = list(response_data)
elif frame_type == 0xC0:
d = list(response_data)
index = self.serial_number_map.get(d[0])
if index is not None:
self.serial_number=self.serial_number + d[1:]
else:
self.serial_number=self.serial_number + [-1] * 6
def get_version(self):
self.send_frame(0x64, [], sleep=0.1)
time.sleep(0.1)
if self.version is None:
self.send_frame(0xC2, [], sleep=0.1)
time.sleep(0.1)
return self.version
def set_torque(self,torque=[]):
'''Set maximum torque'''
if len(torque) == 5:
self.send_frame(0x02, torque)
time.sleep(0.002)
self.send_frame(0x03,torque)
elif len(torque) > 5:
self.send_frame(0x02, torque[:5])
time.sleep(0.002)
self.send_frame(0x03,torque[5:])
def get_current_status(self):
'''Get current joint status'''
if self.is_cmd == False:
#if self.version != None and self.version[4] > 35:
self.send_frame(0x01,[],sleep=0.003)
self.send_frame(0x04,[],sleep=0.003)
state = self.x01 + self.x04
return state
else:
state = self.x01 + self.x04
return state
def get_current_pub_status(self):
state = self.x01 + self.x04
return state
def get_speed(self):
'''Get current speed'''
self.send_frame(0x05,[],sleep=0.003)
self.send_frame(0x06,[],sleep=0.003)
return self.x05 + self.x06
def get_force(self):
'''Get pressure sensor data'''
return [self.normal_force,self.tangential_force , self.tangential_force_dir , self.approach_inc]
def get_temperature(self):
'''Get current motor temperature'''
self.get_motor_temperature()
return self.x33+self.x34
def get_touch_type(self):
'''Get touch type'''
self.send_frame(0xb0,[],sleep=0.03)
self.send_frame(0xb1,[],sleep=0.03)
t = []
for i in range(3):
t = self.xb1
time.sleep(0.01)
if len(t) == 2:
return 2
else:
self.send_frame(0x20,[],sleep=0.03)
time.sleep(0.01)
if self.normal_force[0] == -1:
return -1
else:
return 1
def get_touch(self):
'''Get touch data'''
self.send_frame(0xb1,[],sleep=0.03)
self.send_frame(0xb2,[],sleep=0.03)
self.send_frame(0xb3,[],sleep=0.03)
self.send_frame(0xb4,[],sleep=0.03)
self.send_frame(0xb5,[],sleep=0.03)
return [self.xb1[1],self.xb2[1],self.xb3[1],self.xb4[1],self.xb5[1],0] # The last digit is palm, currently not available
def get_matrix_touch(self):
self.send_frame(0xb1,[0xc6],sleep=0.06)
self.send_frame(0xb2,[0xc6],sleep=0.06)
self.send_frame(0xb3,[0xc6],sleep=0.06)
self.send_frame(0xb4,[0xc6],sleep=0.06)
self.send_frame(0xb5,[0xc6],sleep=0.06)
return self.thumb_matrix , self.index_matrix , self.middle_matrix , self.ring_matrix , self.little_matrix
def get_matrix_touch_v2(self):
self.send_frame(0xb1,[0xc6],sleep=0.005)
self.send_frame(0xb2,[0xc6],sleep=0.005)
self.send_frame(0xb3,[0xc6],sleep=0.005)
self.send_frame(0xb4,[0xc6],sleep=0.005)
self.send_frame(0xb5,[0xc6],sleep=0.005)
return self.thumb_matrix , self.index_matrix , self.middle_matrix , self.ring_matrix , self.little_matrix
def get_thumb_matrix_touch(self,sleep_time=0.005):
self.send_frame(0xb1,[0xc6],sleep=sleep_time)
return self.thumb_matrix
def get_index_matrix_touch(self,sleep_time=0.005):
self.send_frame(0xb2,[0xc6],sleep=sleep_time)
return self.index_matrix
def get_middle_matrix_touch(self,sleep_time=0.005):
self.send_frame(0xb3,[0xc6],sleep=sleep_time)
return self.middle_matrix
def get_ring_matrix_touch(self,sleep_time=0.005):
self.send_frame(0xb4,[0xc6],sleep=sleep_time)
return self.ring_matrix
def get_little_matrix_touch(self,sleep_time=0.005):
self.send_frame(0xb5,[0xc6],sleep=sleep_time)
return self.little_matrix
def get_torque(self):
'''Get current motor torque'''
if self.version != None and self.version[4]< 36:
return [-1] * 5
else:
self.send_frame(0x02, [])
time.sleep(0.002)
self.send_frame(0x03,[])
time.sleep(0.002)
return self.x02+self.x03
def get_fault(self):
'''Get motor fault'''
self.get_motor_fault_code()
return self.x35+self.x36
def get_current(self):
'''Get current'''
#return [-1] * 5
self.send_frame(0x02, [])
time.sleep(0.002)
self.send_frame(0x03,[])
return self.x02+self.x03
def get_serial_number(self):
try:
self.send_frame(0xC0,[],sleep=0.005)
# 1. 使用 bytes() 函数将整数列表转换为字节对象
# bytes() 接收一个由 0-255 之间的整数组成的列表。
byte_data = bytes(self.serial_number)
# 2. 使用 .decode() 方法将字节对象解码为 ASCII 字符串
result_string = byte_data.decode('ascii')
if result_string == "":
return "-1"
else:
# print(f"原始 ASCII 码列表: {self.serial_number}")
# print(f"解码后的字符串: {result_string}")
return result_string
except:
return "-1"
def get_finger_order(self):
return ["thumb_cmc_pitch", "thumb_cmc_yaw", "index_mcp_pitch", "middle_mcp_pitch", "ring_mcp_pitch", "pinky_mcp_pitch",
"index_mcp_roll", "ring_mcp_roll", "pinky_mcp_roll", "thumb_cmc_roll"]
def clear_faults(self, finger_mask=[1, 1, 1, 1, 1]):
"""L10 暂不支持清除故障码"""
pass
def show_fun_table(self):
# if len(data) != 8 or data[0] != 0x64:
# raise ValueError("数据格式不正确")
data = self.version
result = {
"自由度": data[0],
"机械版本": data[1],
"版本序号": data[2],
"手方向": chr(data[3]), # ASCII 转字符
"软件版本": f"V{data[4] >> 4}.{data[4] & 0x0F}",
"硬件版本": f"V{data[5] >> 4}.{data[5] & 0x0F}",
"修订标志": data[6],
"set_position": "Y",
"set_torque": "Y",
"set_speed": "Y",
"get_version": "Y",
"get_current_status": "Y",
"get_speed": "Y",
"get_temperature": "Y",
"get_touch_type": "Y",
"get_matrix_touch": "Y",
"get_fault": "Y",
"get_current": "current == torque"
}
#return [data[0],data[1],data[2],chr(data[3]),f"V{data[4] >> 4}.{data[4] & 0x0F}",f"V{data[5] >> 4}.{data[5] & 0x0F}",data[6]]
table = [[k, v] for k, v in result.items()]
#print(tabulate(table, tablefmt="grid"), flush=True)
# # 示例数据
# data = [0x64, 0x15, 0x03, 0x0A, 0x4C, 0x11, 0x22, 0x01]
# parsed = parse_version_data(data)
# # 打印结果
# for k, v in parsed.items():
# print(f"{k}: {v}")
def close_can_interface(self):
"""Stop the CAN communication."""
self.running = False
if self.receive_thread.is_alive():
self.receive_thread.join()
if self.bus:
self.bus.shutdown()
@@ -0,0 +1,546 @@
import sys
import time
import can
import threading
from enum import Enum
import numpy as np
from utils.open_can import OpenCan
from utils.color_msg import ColorMsg
from can.exceptions import CanError
class FrameProperty(Enum):
INVALID_FRAME_PROPERTY = 0x00 # Invalid CAN frame property | No return
ROLL_POS = 0x01 # All fingers roll joint position
YAW_POS = 0x02 # All fingers yaw joint position
ROOT1_POS = 0x03 # All fingers root1 joint position
ROOT2_POS = 0x04 # All fingers root2 joint position
ROOT3_POS = 0x05 # All fingers root3 joint position
TIP_POS = 0x06 # All fingers tip joint position
ROLL_SPEED = 0x09 # All fingers roll joint speed
YAW_SPEED = 0x0A # All fingers yaw joint speed
ROOT1_SPEED = 0x0B # All fingers root1 joint speed
ROOT2_SPEED = 0x0C # All fingers root2 joint speed
ROOT3_SPEED = 0x0D # All fingers root3 joint speed
TIP_SPEED = 0x0E # All fingers tip joint speed
ROLL_TORQUE = 0x11 # All fingers roll joint load/current threshold
YAW_TORQUE = 0x12 # All fingers yaw joint load/current threshold
ROOT1_TORQUE = 0x13 # All fingers root1 joint load/current threshold
ROOT2_TORQUE = 0x14 # All fingers root2 joint load/current threshold
ROOT3_TORQUE = 0x15 # All fingers root3 joint load/current threshold
TIP_TORQUE = 0x16 # All fingers tip joint load/current threshold
ROLL_FAULT = 0x19 # All fingers roll joint fault
YAW_FAULT = 0x1A # All fingers yaw joint fault
ROOT1_FAULT = 0x1B # All fingers root1 joint fault
ROOT2_FAULT = 0x1C # All fingers root2 joint fault
ROOT3_FAULT = 0x1D # All fingers root3 joint fault
TIP_FAULT = 0x1E # All fingers tip joint fault
ROLL_TEMPERATURE = 0x21 # All fingers roll joint temperature
YAW_TEMPERATURE = 0x22 # All fingers yaw joint temperature
ROOT1_TEMPERATURE = 0x23 # All fingers root1 joint temperature
ROOT2_TEMPERATURE = 0x24 # All fingers root2 joint temperature
ROOT3_TEMPERATURE = 0x25 # All fingers root3 joint temperature
TIP_TEMPERATURE = 0x26 # All fingers tip joint temperature
FINGER_SPEED = 0x81 # Per-finger speed
FINGER_TORQUE = 0x82 # Per-finger torque/current threshold
FINGER_FAULT = 0x83 # Per-finger fault
FINGER_TEMPERATURE = 0x84 # Per-finger temperature
HAND_UID = 0xC0 # Device unique identifier Read only --------
HAND_HARDWARE_VERSION = 0xC1 # Hardware version Read only --------
HAND_SOFTWARE_VERSION = 0xC2 # Software version Read only --------
HAND_COMM_ID = 0xC3 # Device ID Read/Write 1 byte
HAND_SAVE_PARAMETER = 0xCF # Save parameters Write only --------
class LinkerHandL20Can:
def __init__(self, can_channel='can0', baudrate=1000000, can_id=0x28,yaml=""):
self.can_id = can_id
self.can_channel = can_channel
self.baudrate = baudrate
self.open_can = OpenCan(load_yaml=yaml)
self.running = True
self.x05 = [255] * 5
self.x06, self.x07 = [],[]
self.x09, self.x0a, self.x0b, self.x0c, self.x0d, self.x0e = [[-1] * 5 for _ in range(6)]
self.x11, self.x12, self.x13, self.x14, self.x15, self.x16 = [[-1] * 5 for _ in range(6)]
self.x19, self.x1a, self.x1b, self.x1c, self.x1d, self.x1e = [[-1] * 5 for _ in range(6)]
self.x21, self.x22, self.x23, self.x24, self.x25, self.x26 = [[-1] * 5 for _ in range(6)]
self.x81, self.x82, self.x83, self.x84 = [[-1] * 5 for _ in range(4)]
# New pressure sensors
self.xb0,self.xb1,self.xb2,self.xb3,self.xb4,self.xb5 = [-1] * 5,[-1] * 5,[-1] * 5,[-1] * 5,[-1] * 5,[-1] * 5
self.thumb_matrix = np.full((12, 6), -1)
self.index_matrix = np.full((12, 6), -1)
self.middle_matrix = np.full((12, 6), -1)
self.ring_matrix = np.full((12, 6), -1)
self.little_matrix = np.full((12, 6), -1)
self.matrix_map = {
0: 0,
16: 1,
32: 2,
48: 3,
64: 4,
80: 5,
96: 6,
112: 7,
128: 8,
144: 9,
160: 10,
176: 11,
}
# Initialize CAN bus according to operating system
# try:
# if sys.platform == "linux":
# self.open_can.open_can(self.can_channel)
# time.sleep(0.1)
# self.bus = can.interface.Bus(
# channel=can_channel, interface="socketcan", bitrate=baudrate,
# can_filters=[{"can_id": can_id, "can_mask": 0x7FF}]
# )
# elif sys.platform == "win32":
# self.bus = can.interface.Bus(
# channel=can_channel, interface='pcan', bitrate=baudrate,
# can_filters=[{"can_id": can_id, "can_mask": 0x7FF}]
# )
# else:
# raise EnvironmentError("Unsupported platform for CAN interface")
# except:
# print("Please insert CAN device",flush=True)
self.bus = self.init_can_bus(channel=self.can_channel, baudrate=baudrate)
# Initialize data storage
self.x01, self.x02, self.x03, self.x04 = [[-1] * 5 for _ in range(4)]
self.normal_force, self.tangential_force, self.tangential_force_dir, self.approach_inc = \
[[-1] * 5 for _ in range(4)]
# Start receive thread before querying touch type so replies can be processed.
self.receive_thread = threading.Thread(target=self.receive_response)
self.receive_thread.daemon = True
self.receive_thread.start()
self.get_touch_type()
time.sleep(0.1)
def init_can_bus(self, channel, baudrate):
"""
尝试按优先级连接 CAN 总线,并实现回退机制。
"""
# --- 统一异常处理块开始 ---
try:
if sys.platform == "linux":
# Linux 优先级:1. socketcan
try:
self.open_can.open_can(self.can_channel)
# 尝试 socketcan
bus = can.interface.Bus(channel=channel, interface="socketcan", bitrate=baudrate)
ColorMsg(msg=f"成功连接: interface='socketcan', channel='{channel}'", color="green")
return bus
except CanError as e:
# 如果 socketcan 失败,可以考虑在这里尝试其他 Linux 接口 (如 'pcan')
ColorMsg(msg=f"socketcan 接口连接失败: {e}", color="yellow")
raise # 重新抛出异常,让外层 try 捕获
elif sys.platform == "win32":
# Windows 优先级:1. pcan
try:
bus = can.interface.Bus(channel=channel, interface='pcan', bitrate=baudrate)
ColorMsg(msg=f"成功连接: interface='pcan', channel='{channel}'", color="green")
return bus
except CanError as e:
ColorMsg(msg=f"pcan 接口连接失败,尝试回退到 'candle': {e}", color="yellow")
# Windows 优先级:2. candle (回退方法)
try:
bus = can.Bus(interface="candle", channel=channel, bitrate=baudrate)
ColorMsg(msg=f"成功连接: interface='candle', channel='{channel}'", color="green")
return bus
except CanError as e:
ColorMsg(msg=f"candle 接口连接失败: {e}", color="yellow")
raise # 两个接口都失败,抛出异常
else:
raise EnvironmentError("Unsupported platform for CAN interface")
# --- 统一异常处理块结束 ---
except Exception as e:
# 如果任何一个接口尝试失败并抛出异常(包括 EnvironmentError)
ColorMsg(msg=f"致命错误:所有 CAN 接口连接尝试均失败或平台不受支持。请检查设备连接或驱动安装和配置文件中CAN参数的配置。\n错误详情: {e}", color="red")
# 保持 raise 动作,将错误信息传递给调用者,避免程序继续运行
raise
# def send_command(self, frame_property, data_list):
# print("66666")
# """
# Send command to CAN bus
# :param frame_property: Data frame property
# :param data_list: Data payload
# """
# frame_property_value = int(frame_property.value) if hasattr(frame_property, 'value') else frame_property
# data = [frame_property_value] + [int(val) for val in data_list]
# msg = can.Message(arbitration_id=self.can_id, data=data, is_extended_id=False)
# try:
# self.bus.send(msg)
# print(f"Message sent: ID={hex(self.can_id)}, Data={data}")
# except can.CanError as e:
# print(f"Failed to send message: {e}")
def receive_response(self):
"""
Receive and process CAN bus response messages
"""
while self.running:
try:
msg = self.bus.recv(timeout=1.0) # Blocking receive, 1 second timeout
if msg:
self.process_response(msg)
except can.CanError as e:
print(f"Error receiving message666: {e}",flush=True)
def set_finger_base(self, angles):
self.send_command(FrameProperty.ROOT1_POS, angles)
def set_finger_tip(self, angles):
self.send_command(FrameProperty.TIP_POS, angles)
def set_finger_middle(self, angles):
self.send_command(FrameProperty.YAW_POS, angles)
def set_thumb_roll(self, angle):
self.send_command(FrameProperty.ROLL_POS, angle)
def send_command(self, frame_property, data_list,sleep=0.002):
frame_property_value = int(frame_property.value) if hasattr(frame_property, 'value') else frame_property
data = [frame_property_value] + [int(val) for val in data_list]
msg = can.Message(arbitration_id=self.can_id, data=data, is_extended_id=False)
try:
self.bus.send(msg)
except can.CanError:
print("Message NOT sent")
self.open_can.open_can(self.can_channel)
time.sleep(1)
self.is_can = self.open_can.is_can_up_sysfs(interface=self.can_channel)
time.sleep(1)
if self.is_can:
self.bus = can.interface.Bus(channel=self.can_channel, interface="socketcan", bitrate=self.baudrate)
else:
print("Reconnecting CAN devices ....",flush=True)
time.sleep(sleep)
def set_joint_pitch(self, frame, angles):
self.send_command(frame, angles)
def set_joint_yaw(self, angles):
self.send_command(FrameProperty.YAW_POS, angles)
def set_joint_roll(self, thumb_roll):
self.send_command(FrameProperty.ROLL_POS, [thumb_roll, 0, 0, 0, 0])
def set_joint_speed(self, speed):
self.x81 = speed
self.send_command(FrameProperty.FINGER_SPEED, speed)
def set_electric_current(self, e_c=[]):
self.x82 = e_c
self.send_command(FrameProperty.FINGER_TORQUE, e_c)
def get_normal_force(self):
self.send_command(0x90, [])
def get_tangential_force(self):
self.send_command(0x91, [])
def get_tangential_force_dir(self):
self.send_command(0x92, [])
def get_approach_inc(self):
self.send_command(0x93, [])
def get_electric_current(self, e_c=[]):
self.send_command(FrameProperty.FINGER_TORQUE, e_c)
def request_device_info(self):
self.send_command(0xC0, [0])
self.send_command(0xC1, [0])
self.send_command(0xC2, [0])
def save_parameters(self):
self.send_command(0xCF, [])
def process_response(self, msg):
if msg.arbitration_id == self.can_id:
frame_type = msg.data[0]
response_data = msg.data[1:]
if len(list(response_data)) == 0:
return
if frame_type == 0x01:
self.x01 = list(response_data)
elif frame_type == 0x02:
self.x02 = list(response_data)
elif frame_type == 0x03:
self.x03 = list(response_data)
elif frame_type == 0x04:
self.x04 = list(response_data)
elif frame_type == 0xC0:
print(f"Device ID info: {response_data}")
if self.can_id == 0x28:
self.right_hand_info = response_data
elif self.can_id == 0x27:
self.left_hand_info = response_data
elif frame_type == 0x05:
self.x05 = list(response_data)
elif frame_type == 0x06:
self.x06 = list(response_data)
elif frame_type == 0x09:
self.x09 = list(response_data)
elif frame_type == 0x0A:
self.x0a = list(response_data)
elif frame_type == 0x0B:
self.x0b = list(response_data)
elif frame_type == 0x0C:
self.x0c = list(response_data)
elif frame_type == 0x0D:
self.x0d = list(response_data)
elif frame_type == 0x0E:
self.x0e = list(response_data)
elif frame_type == 0x11:
self.x11 = list(response_data)
elif frame_type == 0x12:
self.x12 = list(response_data)
elif frame_type == 0x13:
self.x13 = list(response_data)
elif frame_type == 0x14:
self.x14 = list(response_data)
elif frame_type == 0x15:
self.x15 = list(response_data)
elif frame_type == 0x16:
self.x16 = list(response_data)
elif frame_type == 0x19:
self.x19 = list(response_data)
elif frame_type == 0x1A:
self.x1a = list(response_data)
elif frame_type == 0x1B:
self.x1b = list(response_data)
elif frame_type == 0x1C:
self.x1c = list(response_data)
elif frame_type == 0x1D:
self.x1d = list(response_data)
elif frame_type == 0x1E:
self.x1e = list(response_data)
elif frame_type == 0x20:
d = list(response_data)
self.normal_force = [float(i) for i in d]
elif frame_type == 0x21:
self.x21 = list(response_data)
elif frame_type == 0x22:
self.x22 = list(response_data)
elif frame_type == 0x23:
self.x23 = list(response_data)
elif frame_type == 0x24:
self.x24 = list(response_data)
elif frame_type == 0x25:
self.x25 = list(response_data)
elif frame_type == 0x26:
self.x26 = list(response_data)
elif frame_type == 0x81:
self.x81 = list(response_data)
elif frame_type == 0x82:
self.x82 = list(response_data)
elif frame_type == 0x83:
self.x83 = list(response_data)
elif frame_type == 0x84:
self.x84 = list(response_data)
elif frame_type == 0x90:
self.normal_force = [float(i) for i in list(response_data)]
elif frame_type == 0x91:
self.tangential_force = [float(i) for i in list(response_data)]
elif frame_type == 0x92:
self.tangential_force_dir = [float(i) for i in list(response_data)]
elif frame_type == 0x93:
self.approach_inc = [float(i) for i in list(response_data)]
elif frame_type == 0xb0:
self.xb0 = list(response_data)
elif frame_type == 0xb1:
d = list(response_data)
if len(d) == 2:
self.xb1 = d
elif len(d) == 7:
index = self.matrix_map.get(d[0])
if index is not None:
self.thumb_matrix[index] = d[1:] # Remove the first flag bit
elif frame_type == 0xb2:
d = list(response_data)
if len(d) == 2:
self.xb2 = d
elif len(d) == 7:
index = self.matrix_map.get(d[0])
if index is not None:
self.index_matrix[index] = d[1:] # Remove the first flag bit
elif frame_type == 0xb3:
d = list(response_data)
if len(d) == 2:
self.xb3 = d
elif len(d) == 7:
index = self.matrix_map.get(d[0])
if index is not None:
self.middle_matrix[index] = d[1:] # Remove the first flag bit
elif frame_type == 0xb4:
d = list(response_data)
if len(d) == 2:
self.xb4 = d
elif len(d) == 7:
index = self.matrix_map.get(d[0])
if index is not None:
self.ring_matrix[index] = d[1:] # Remove the first flag bit
elif frame_type == 0xb5:
d = list(response_data)
if len(d) == 2:
self.xb5 = d
elif len(d) == 7:
index = self.matrix_map.get(d[0])
if index is not None:
self.little_matrix[index] = d[1:] # Remove the first flag bit
def pose_slice(self, p):
"""Slice the joint array into finger action arrays"""
try:
finger_base = [int(val) for val in p[0:5]] # Finger base
yaw_angles = [int(val) for val in p[5:10]] # Yaw
thumb_yaw = [int(val) for val in p[10:15]] # Thumb yaw to palm, others are 0
finger_tip = [int(val) for val in p[15:20]] # Fingertip flexion
return finger_base, yaw_angles, thumb_yaw, finger_tip
except Exception as e:
print(e)
def set_joint_positions(self, position):
if len(position) != 20:
print("L20 finger joint length is incorrect")
return
finger_base, yaw_angles, thumb_yaw, finger_tip = self.pose_slice(position)
self.set_thumb_roll(thumb_yaw) # Thumb yaw to palm movement
self.set_finger_tip(finger_tip) # Fingertip movement
self.set_finger_base(finger_base) # Finger base movement
self.set_finger_middle(yaw_angles) # Yaw movement
def set_speed(self, speed=[]):
if len(speed) != 5:
raise ValueError("Speed list must have 5 elements.")
return
self.x81 = speed
self.send_command(FrameProperty.FINGER_SPEED, speed)
def set_torque(self, torque=[]):
'''Set torque, not supported for L20'''
print("Set torque, not supported for L20")
def set_current(self, current=[]):
'''Set per-finger torque/current threshold.'''
self.x82 = current
self.send_command(FrameProperty.FINGER_TORQUE, current)
def get_version(self):
'''Get version, currently not supported'''
return [0] * 5
def get_current_status(self):
'''Get current finger joint status'''
self.send_command(FrameProperty.ROOT1_POS, [], sleep=0.01)
self.send_command(FrameProperty.YAW_POS, [], sleep=0.01)
self.send_command(FrameProperty.ROLL_POS, [], sleep=0.01)
self.send_command(FrameProperty.TIP_POS, [], sleep=0.01)
return self.x03 + self.x02 + self.x01 + self.x06
def get_current_pub_status(self):
time.sleep(0.01)
return self.x03 + self.x02 + self.x01 + self.x06
def get_speed(self):
'''Get current motor speed'''
self.send_command(FrameProperty.FINGER_SPEED, [])
time.sleep(0.001)
return self.x81
def get_current(self):
'''Get per-finger torque/current threshold.'''
self.send_command(FrameProperty.FINGER_TORQUE, [])
return self.x82
def get_torque(self):
'''Get current motor torque/current threshold.'''
self.send_command(FrameProperty.FINGER_TORQUE, [])
return self.x82
def get_fault(self):
self.send_command(FrameProperty.FINGER_FAULT, [])
time.sleep(0.01)
return self.x83
def get_temperature(self):
'''Get motor temperature'''
self.send_command(FrameProperty.FINGER_TEMPERATURE, [])
return self.x84
def clear_faults(self):
'''Clear motor faults'''
self.send_command(FrameProperty.FINGER_FAULT, [1, 1, 1, 1, 1])
def get_touch_type(self):
'''Get touch type'''
t = []
for i in range(3):
self.send_command(0xb0,[],sleep=0.03)
if self.xb0 == [2]:
return 2
elif self.xb0 == [1]:
return 1
else:
self.send_command(0x90, [], sleep=0.03)
time.sleep(0.01)
if self.normal_force[0] == -1:
return -1
def get_touch(self):
'''Get touch data'''
self.send_command(0xb1,[],sleep=0.03)
self.send_command(0xb2,[],sleep=0.03)
self.send_command(0xb3,[],sleep=0.03)
self.send_command(0xb4,[],sleep=0.03)
self.send_command(0xb5,[],sleep=0.03)
return [self.xb1[1],self.xb2[1],self.xb3[1],self.xb4[1],self.xb5[1],0] # The last digit is palm, currently not available
def get_matrix_touch(self):
self.send_command(0xb1,[0xc6],sleep=0.04)
self.send_command(0xb2,[0xc6],sleep=0.04)
self.send_command(0xb3,[0xc6],sleep=0.04)
self.send_command(0xb4,[0xc6],sleep=0.04)
self.send_command(0xb5,[0xc6],sleep=0.04)
return self.thumb_matrix , self.index_matrix , self.middle_matrix , self.ring_matrix , self.little_matrix
def get_thumb_matrix_touch(self,sleep_time=0.009):
self.send_command(0xb1,[0xc6],sleep=sleep_time)
return self.thumb_matrix
def get_index_matrix_touch(self,sleep_time=0.009):
self.send_command(0xb2,[0xc6],sleep=sleep_time)
return self.index_matrix
def get_middle_matrix_touch(self,sleep_time=0.009):
self.send_command(0xb3,[0xc6],sleep=sleep_time)
return self.middle_matrix
def get_ring_matrix_touch(self,sleep_time=0.009):
self.send_command(0xb4,[0xc6],sleep=sleep_time)
return self.ring_matrix
def get_little_matrix_touch(self,sleep_time=0.009):
self.send_command(0xb5,[0xc6],sleep=sleep_time)
return self.little_matrix
def get_faults(self):
'''Get motor fault codes'''
self.send_command(FrameProperty.FINGER_FAULT, [])
return self.x83
def get_force(self):
'''Get pressure sensor data'''
return [self.normal_force,self.tangential_force,self.tangential_force_dir,self.approach_inc]
def get_serial_number(self):
return [0] * 6
def show_fun_table(self):
pass
def get_finger_order(self):
return []
def close_can_interface(self):
if self.bus:
self.bus.shutdown() # Close CAN bus
@@ -0,0 +1,822 @@
#!/usr/bin/env python3
import can
import time, sys, os
import threading
import numpy as np
from enum import Enum
from utils.open_can import OpenCan
from utils.color_msg import ColorMsg
from can.exceptions import CanError
current_dir = os.path.dirname(os.path.abspath(__file__))
target_dir = os.path.abspath(os.path.join(current_dir, ".."))
sys.path.append(target_dir)
class FrameProperty(Enum):
# Finger motion control - parallel control commands
ROLL_POS = 0x01 # Roll joint position
YAWPOS = 0x02 # Yaw joint position
ROOT1_POS = 0x03 # Root joint 1 position
ROOT2_POS = 0x04 # Root joint 2 position
ROOT3_POS = 0x05 # Root joint 3 position
TIP_POS = 0x06 # Fingertip joint position
# Finger motion control - serial control commands
THUMB_POS = 0x41 # Thumb joint position
INDEX_POS = 0x42 # Index finger joint position
MIDDLE_POS = 0x43 # Middle finger joint position
RING_POS = 0x44 # Ring finger joint position
LITTLE_POS = 0x45 # Little finger joint position
# Finger motion control - speed
ROLL_SPEED = 0x09 # Roll joint speed
YAW_SPEED = 0x0A # Yaw joint speed
ROOT1_SPEED = 0x0B # Root joint 1 speed
ROOT2_SPEED = 0x0C # Root joint 2 speed
ROOT3_SPEED = 0x0D # Root joint 3 speed
TIP_SPEED = 0x0E # Fingertip joint speed
THUMB_SPEED = 0x49 # Thumb speed
INDEX_SPEED = 0x4A # Index finger speed
MIDDLE_SPEED = 0x4B # Middle finger speed
RING_SPEED = 0x4C # Ring finger speed
LITTLE_SPEED = 0x4D # Little finger speed
# Finger motion control - torque
ROLL_TORQUE = 0x11 # Roll joint torque
YAW_TORQUE = 0x12 # Yaw joint torque
ROOT1_TORQUE = 0x13 # Root joint 1 torque
ROOT2_TORQUE = 0x14 # Root joint 2 torque
ROOT3_TORQUE = 0x15 # Root joint 3 torque
TIP_TORQUE = 0x16 # Fingertip joint torque
THUMB_TORQUE = 0x51 # Thumb torque
INDEX_TORQUE = 0x52 # Index finger torque
MIDDLE_TORQUE = 0x53 # Middle finger torque
RING_TORQUE = 0x54 # Ring finger torque
LITTLE_TORQUE = 0x55 # Little finger torque
THUMB_FAULT = 0x59 # Thumb fault code | Returns this type of data
INDEX_FAULT = 0x5A # Index finger fault code | Returns this type of data
MIDDLE_FAULT = 0x5B # Middle finger fault code | Returns this type of data
RING_FAULT = 0x5C # Ring finger fault code | Returns this type of data
LITTLE_FAULT = 0x5D # Little finger fault code | Returns this type of data
# Finger faults and temperature
ROLL_FAULT = 0x19 # Roll joint fault code
YAW_FAULT = 0x1A # Yaw joint fault code
ROOT1_FAULT = 0x1B # Root joint 1 fault code
ROOT2_FAULT = 0x1C # Root joint 2 fault code
ROOT3_FAULT = 0x1D # Root joint 3 fault code
TIP_FAULT = 0x1E # Fingertip joint fault code
ROLL_TEMPERATURE = 0x21 # Roll joint over-temperature protection threshold
YAW_TEMPERATURE = 0x22 # Yaw joint over-temperature protection threshold
ROOT1_TEMPERATURE = 0x23 # Root joint 1 over-temperature protection threshold
ROOT2_TEMPERATURE = 0x24 # Root joint 2 over-temperature protection threshold
ROOT3_TEMPERATURE = 0x25 # Root joint 3 over-temperature protection threshold
TIP_TEMPERATURE = 0x26 # Fingertip joint over-temperature protection threshold
THUMB_TEMPERATURE = 0x61 # Thumb over-temperature protection threshold
INDEX_TEMPERATURE = 0x62 # Index finger over-temperature protection threshold
MIDDLE_TEMPERATURE = 0x63 # Middle finger over-temperature protection threshold
RING_TEMPERATURE = 0x64 # Ring finger over-temperature protection threshold
LITTLE_TEMPERATURE = 0x65 # Little finger over-temperature protection threshold
# Configuration and preset actions
HAND_UID = 0xC0 # Device unique identifier
HAND_HARDWARE_VERSION = 0xC1 # Hardware version
HAND_SOFTWARE_VERSION = 0xC2 # Software version
HAND_COMM_ID = 0xC3 # Device ID
HAND_FACTORY_RESET = 0xCE # Restore factory settings
HAND_SAVE_PARAMETER = 0xCF # Save parameters
# Tactile sensor data
HAND_NORMAL_FORCE = 0x90 # Normal force of five fingers
HAND_TANGENTIAL_FORCE = 0x91 # Tangential force of five fingers
HAND_TANGENTIAL_FORCE_DIR = 0x92 # Tangential direction of five fingers
HAND_APPROACH_INC = 0x93 # Approach sensing of five fingers
TOUCH_SENSOR_TYPE = 0xB0 # Sensor type
THUMB_TOUCH = 0xB1 # Thumb tactile sensing
INDEX_TOUCH = 0xB2 # Index finger tactile sensing
MIDDLE_TOUCH = 0xB3 # Middle finger tactile sensing
RING_TOUCH = 0xB4 # Ring finger tactile sensing
LITTLE_TOUCH = 0xB5 # Little finger tactile sensing
PALM_TOUCH = 0xB6 # Palm tactile sensing
# Action control
ACTION_PLAY = 0xA0 # Action
# Combined command area
FINGER_SPEED = 0x81 # Set maximum finger speed
FINGER_TORQUE = 0x82 # Set maximum finger torque
FINGER_FAULT = 0x83 # Clear finger faults and fault codes
FINGER_TEMPERATURE = 0x84 # Finger joint temperatures
class LinkerHandL21Can:
def __init__(self, can_channel='can0', baudrate=1000000, can_id=0x28,yaml=""):
self.can_id = can_id
self.can_channel = can_channel
self.baudrate = baudrate
self.open_can = OpenCan(load_yaml=yaml)
self.running = True
self.last_thumb_pos, self.last_index_pos,self.last_ring_pos,self.last_middle_pos, self.last_little_pos = None,None,None,None,None
self.x01, self.x02, self.x03, self.x04,self.x05,self.x06,self.x07, self.x08,self.x09,self.x0A,self.x0B,self.x0C,self.x0D,self.x0E,self.speed = [],[],[],[],[],[],[],[],[],[],[],[],[],[],[]
self.last_root1,self.last_yaw,self.last_roll,self.last_root2,self.last_tip = None,None,None,None,None
# Speed
self.x49, self.x4a, self.x4b, self.x4c, self.x4d,self.xc1 = [],[],[],[],[],[]
self.x41,self.x42,self.x43,self.x44,self.x45 = [],[],[],[],[]
self.x83 = [-1] * 5
# Torque
self.x51, self.x52, self.x53, self.x54,self.x55 = [],[],[],[],[]
# Fault codes
self.x59,self.x5a,self.x5b,self.x5c,self.x5d = [-1] * 5,[-1] * 5,[-1] * 5,[-1] * 5,[-1] * 5
# Temperature thresholds
self.x61,self.x62,self.x63,self.x64,self.x65 = [],[],[],[],[]
# Pressure sensors
self.x90,self.x91,self.x92,self.x93 = [],[],[],[]
# New pressure sensors
self.xb0,self.xb1,self.xb2,self.xb3,self.xb4,self.xb5,self.xb6 = [-1] * 5,[-1] * 5,[-1] * 5,[-1] * 5,[-1] * 5,[-1] * 5,[-1] * 5
self.thumb_matrix = np.full((12, 6), -1)
self.index_matrix = np.full((12, 6), -1)
self.middle_matrix = np.full((12, 6), -1)
self.ring_matrix = np.full((12, 6), -1)
self.little_matrix = np.full((12, 6), -1)
self.matrix_map = {
0: 0,
16: 1,
32: 2,
48: 3,
64: 4,
80: 5,
96: 6,
112: 7,
128: 8,
144: 9,
160: 10,
176: 11,
}
# Initialize CAN bus according to operating system
# try:
# if sys.platform == "linux":
# self.open_can.open_can(self.can_channel)
# time.sleep(0.1)
# self.bus = can.interface.Bus(
# channel=can_channel, interface="socketcan", bitrate=baudrate,
# can_filters=[{"can_id": can_id, "can_mask": 0x7FF}]
# )
# elif sys.platform == "win32":
# self.bus = can.interface.Bus(
# channel=can_channel, interface='pcan', bitrate=baudrate,
# can_filters=[{"can_id": can_id, "can_mask": 0x7FF}]
# )
# else:
# raise EnvironmentError("Unsupported platform for CAN interface")
# except:
# print("Please insert CAN device")
self.bus = self.init_can_bus(channel=self.can_channel, baudrate=baudrate)
# Start receive thread
self.receive_thread = threading.Thread(target=self.receive_response)
self.receive_thread.daemon = True
self.receive_thread.start()
def init_can_bus(self, channel, baudrate):
"""
尝试按优先级连接 CAN 总线,并实现回退机制。
"""
# --- 统一异常处理块开始 ---
try:
if sys.platform == "linux":
# Linux 优先级:1. socketcan
try:
self.open_can.open_can(self.can_channel)
# 尝试 socketcan
bus = can.interface.Bus(channel=channel, interface="socketcan", bitrate=baudrate)
ColorMsg(msg=f"成功连接: interface='socketcan', channel='{channel}'", color="green")
return bus
except CanError as e:
# 如果 socketcan 失败,可以考虑在这里尝试其他 Linux 接口 (如 'pcan')
ColorMsg(msg=f"socketcan 接口连接失败: {e}", color="yellow")
raise # 重新抛出异常,让外层 try 捕获
elif sys.platform == "win32":
# Windows 优先级:1. pcan
try:
bus = can.interface.Bus(channel=channel, interface='pcan', bitrate=baudrate)
ColorMsg(msg=f"成功连接: interface='pcan', channel='{channel}'", color="green")
return bus
except CanError as e:
ColorMsg(msg=f"pcan 接口连接失败,尝试回退到 'candle': {e}", color="yellow")
# Windows 优先级:2. candle (回退方法)
try:
bus = can.Bus(interface="candle", channel=channel, bitrate=baudrate)
ColorMsg(msg=f"成功连接: interface='candle', channel='{channel}'", color="green")
return bus
except CanError as e:
ColorMsg(msg=f"candle 接口连接失败: {e}", color="yellow")
raise # 两个接口都失败,抛出异常
else:
raise EnvironmentError("Unsupported platform for CAN interface")
# --- 统一异常处理块结束 ---
except Exception as e:
# 如果任何一个接口尝试失败并抛出异常(包括 EnvironmentError)
ColorMsg(msg=f"致命错误:所有 CAN 接口连接尝试均失败或平台不受支持。请检查设备连接或驱动安装和配置文件中CAN参数的配置。\n错误详情: {e}", color="red")
# 保持 raise 动作,将错误信息传递给调用者,避免程序继续运行
raise
def send_command(self, frame_property, data_list,sleep_time=0.003):
"""
Send command to CAN bus
:param frame_property: Data frame property
:param data_list: Data payload
"""
frame_property_value = int(frame_property.value) if hasattr(frame_property, 'value') else frame_property
data = [frame_property_value] + [int(val) for val in data_list]
msg = can.Message(arbitration_id=self.can_id, data=data, is_extended_id=False)
try:
self.bus.send(msg)
except can.CanError as e:
print(f"Failed to send message: {e}")
self.open_can.open_can(self.can_channel)
time.sleep(1)
self.is_can = self.open_can.is_can_up_sysfs(interface=self.can_channel)
time.sleep(1)
if self.is_can:
self.bus = can.interface.Bus(channel=self.can_channel, interface="socketcan", bitrate=self.baudrate)
else:
print("Reconnecting CAN devices ....")
time.sleep(sleep_time)
def receive_response(self):
"""
Receive and process CAN bus response messages
"""
while self.running:
try:
msg = self.bus.recv(timeout=1.0)
if msg:
self.process_response(msg)
except can.CanError as e:
print(f"Error receiving message: {e}")
def set_joint_positions(self, joint_ranges):
if len(joint_ranges) == 25:
l21_pose = self.joint_map(joint_ranges)
# Use list comprehension to split the list into subarrays of 6 elements each
chunks = [l21_pose[i:i+6] for i in range(0, 30, 6)]
for i in range(3):
self.send_command(FrameProperty.THUMB_POS, chunks[0])
time.sleep(0.001)
self.send_command(FrameProperty.INDEX_POS, chunks[1])
time.sleep(0.001)
self.send_command(FrameProperty.MIDDLE_POS, chunks[2])
time.sleep(0.001)
self.send_command(FrameProperty.RING_POS, chunks[3])
time.sleep(0.001)
self.send_command(FrameProperty.LITTLE_POS, chunks[4])
time.sleep(0.001)
def set_joint_positions_by_topic(self, joint_ranges):
if len(joint_ranges) == 25:
l21_pose = self.slice_list(joint_ranges,5)
if self._list_d_value(self.last_root1, l21_pose[0]):
self.set_root1_positions(l21_pose[0])
self.last_root1 = l21_pose[0]
if self._list_d_value(self.last_yaw, l21_pose[1]):
self.set_yaw_positions(l21_pose[1])
self.last_yaw = l21_pose[1]
if self._list_d_value(self.last_roll, l21_pose[2]):
self.set_roll_positions(l21_pose[2])
self.last_roll = l21_pose[2]
if self._list_d_value(self.last_root2, l21_pose[3]):
self.set_root2_positions(l21_pose[3])
self.last_root2 = l21_pose[3]
if self._list_d_value(self.last_tip, l21_pose[4]):
self.set_tip_positions(l21_pose[4])
self.last_tip = l21_pose[4]
def slice_list(self, input_list, slice_size):
"""
Slice a list into pieces of specified size.
Args:
input_list (list): The list to be sliced.
slice_size (int): Number of elements per slice.
Returns:
list of lists: The sliced list.
"""
sliced_list = [input_list[i:i + slice_size] for i in range(0, len(input_list), slice_size)]
return sliced_list
def _list_d_value(self,list1, list2):
if list1 == None:
return True
for a, b in zip(list1, list2):
if abs(b - a) > 2:
return True
break
return False
# Set all finger roll joint positions
def set_roll_positions(self, joint_ranges):
self.send_command(FrameProperty.ROLL_POS, joint_ranges)
# Set all finger yaw joint positions
def set_yaw_positions(self, joint_ranges):
self.send_command(FrameProperty.YAW_POS, joint_ranges)
# Set all finger root1 joint positions
def set_root1_positions(self, joint_ranges):
self.send_command(FrameProperty.ROOT1_POS, joint_ranges)
# Set all finger root2 joint positions
def set_root2_positions(self, joint_ranges):
self.send_command(FrameProperty.ROOT2_POS, joint_ranges)
# Set all finger root3 joint positions
def set_root3_positions(self, joint_ranges):
self.send_command(FrameProperty.ROOT3_POS, joint_ranges)
# Set all finger tip joint positions
def set_tip_positions(self, joint_ranges=[80]*5):
self.send_command(FrameProperty.TIP_POS, joint_ranges)
# Set thumb torque
def set_thumb_torque(self, j=[]):
self.send_command(FrameProperty.THUMB_TORQUE, j)
# Set index finger torque
def set_index_torque(self, j=[]):
self.send_command(FrameProperty.INDEX_TORQUE, j)
# Set middle finger torque
def set_middle_torque(self, j=[]):
self.send_command(FrameProperty.MIDDLE_TORQUE, j)
# Set ring finger torque
def set_ring_torque(self, j=[]):
self.send_command(FrameProperty.RING_TORQUE, j)
# Set little finger torque
def set_little_torque(self, j=[]):
self.send_command(FrameProperty.LITTLE_TORQUE, j)
# Get thumb joint positions
def get_thumb_positions(self,j=[0]):
self.send_command(FrameProperty.THUMB_POS, j)
# Get index finger joint positions
def get_index_positions(self, j=[0]):
self.send_command(FrameProperty.INDEX_POS,j)
# Get middle finger joint positions
def get_middle_positions(self, j=[0]):
self.send_command(FrameProperty.MIDDLE_POS,j)
# Get ring finger joint positions
def get_ring_positions(self, j=[0]):
self.send_command(FrameProperty.RING_POS,j)
# Get little finger joint positions
def get_little_positions(self, j=[0]):
self.send_command(FrameProperty.LITTLE_POS, j)
# Get all thumb motor fault codes
def get_thumbn_fault(self,j=[]):
self.send_command(FrameProperty.THUMB_FAULT,j)
# Get all index finger motor fault codes
def get_index_fault(self,j=[]):
self.send_command(FrameProperty.INDEX_FAULT,j)
# Get all middle finger motor fault codes
def get_middle_fault(self,j=[]):
self.send_command(FrameProperty.MIDDLE_FAULT,j)
# Get all ring finger motor fault codes
def get_ring_fault(self,j=[]):
self.send_command(FrameProperty.RING_FAULT,j)
# Get all little finger motor fault codes
def get_little_fault(self,j=[]):
self.send_command(FrameProperty.LITTLE_FAULT,j)
# Get thumb temperature threshold
def get_thumb_threshold(self,j=[]):
self.send_command(FrameProperty.THUMB_TEMPERATURE, '')
# Get index finger temperature threshold
def get_index_threshold(self,j=[]):
self.send_command(FrameProperty.INDEX_TEMPERATURE, j)
# Get middle finger temperature threshold
def get_middle_threshold(self,j=[]):
self.send_command(FrameProperty.MIDDLE_TEMPERATURE, j)
# Get ring finger temperature threshold
def get_ring_threshold(self,j=[]):
self.send_command(FrameProperty.RING_TEMPERATURE, j)
# Get little finger temperature threshold
def get_little_threshold(self,j=[]):
self.send_command(FrameProperty.LITTLE_TEMPERATURE, j)
# Disable mode 01
def set_disability_mode(self, j=[1,1,1,1,1]):
self.send_command(0x85,j)
# Enable mode 00
def set_enable_mode(self, j=[00,00,00,00,00]):
self.send_command(0x85,j)
# Set all finger torques
def set_torque(self,torque=[250]*5):
t = torque[0]
i = torque[1]
m = torque[2]
r = torque[3]
l = torque[4]
self.set_thumb_torque(j=[t]*5)
self.set_index_torque(j=[i]*5)
self.set_middle_torque(j=[m]*5)
self.set_ring_torque(j=[r]*5)
self.set_little_torque(j=[l]*5)
def set_speed(self, speed):
self.speed = speed
if len(speed) < 25:
thumb_speed = [self.speed[0]]*5
index_speed = [self.speed[1]]*5
middle_speed = [self.speed[2]]*5
ring_speed = [self.speed[3]]*5
little_speed = [self.speed[4]]*5
else:
thumb_speed = [self.speed[0],self.speed[1],self.speed[2],self.speed[3],self.speed[4]]
index_speed = [self.speed[5],self.speed[6],self.speed[7],self.speed[8],self.speed[9]]
middle_speed = [self.speed[10],self.speed[11],self.speed[12],self.speed[13],self.speed[14]]
ring_speed = [self.speed[15],self.speed[16],self.speed[17],self.speed[18],self.speed[19]]
little_speed = [self.speed[20],self.speed[21],self.speed[22],self.speed[23],self.speed[24]]
self.send_command(FrameProperty.THUMB_SPEED, thumb_speed)
self.send_command(FrameProperty.INDEX_SPEED, index_speed)
self.send_command(FrameProperty.MIDDLE_SPEED, middle_speed)
self.send_command(FrameProperty.RING_SPEED, ring_speed)
self.send_command(FrameProperty.LITTLE_SPEED, little_speed)
def set_finger_torque(self, torque):
self.send_command(0x42, torque)
def request_device_info(self):
self.send_command(0xC0, [0])
self.send_command(0xC1, [0])
self.send_command(0xC2, [0])
def save_parameters(self):
self.send_command(0xCF, [])
def process_response(self, msg):
if msg.arbitration_id == self.can_id:
frame_type = msg.data[0]
response_data = msg.data[1:]
if len(list(response_data)) == 0:
return
if frame_type == 0x01:
self.x01 = list(response_data)
elif frame_type == 0x02:
self.x02 = list(response_data)
elif frame_type == 0x03:
self.x03 = list(response_data)
elif frame_type == 0x04:
self.x04 = list(response_data)
elif frame_type == 0x05:
self.x05 = list(response_data)
elif frame_type == 0x06:
self.x06 = list(response_data)
elif frame_type == 0xC0:
print(f"Device ID info: {response_data}")
if self.can_id == 0x28:
self.right_hand_info = response_data
elif self.can_id == 0x27:
self.left_hand_info = response_data
elif frame_type == 0x08:
self.x08 = list(response_data)
elif frame_type == 0x09:
self.x09 = list(response_data)
elif frame_type == 0x0A:
self.x0A = list(response_data)
elif frame_type == 0x0B:
self.x0B = list(response_data)
elif frame_type == 0x0C:
self.x0C = list(response_data)
elif frame_type == 0x0D:
self.x0D = list(response_data)
elif frame_type == 0x22:
d = list(response_data)
self.tangential_force_dir = [float(i) for i in d]
elif frame_type == 0x23:
d = list(response_data)
self.approach_inc = [float(i) for i in d]
elif frame_type == 0x41:
self.x41 = list(response_data)
elif frame_type == 0x42:
self.x42 = list(response_data)
elif frame_type == 0x43:
self.x43 = list(response_data)
elif frame_type == 0x44:
self.x44 = list(response_data)
elif frame_type == 0x45:
self.x45 = list(response_data)
elif frame_type == 0x49:
self.x49 = list(response_data)
elif frame_type == 0x4a:
self.x4a = list(response_data)
elif frame_type == 0x4b:
self.x4b = list(response_data)
elif frame_type == 0x4c:
self.x4c = list(response_data)
elif frame_type == 0x4d:
self.x4d = list(response_data)
elif frame_type == 0xc1:
self.xc1 = list(response_data)
elif frame_type == 0x51:
self.x51 = list(response_data)
elif frame_type == 0x52:
self.x52 = list(response_data)
elif frame_type == 0x53:
self.x53 = list(response_data)
elif frame_type == 0x54:
self.x54 = list(response_data)
elif frame_type == 0x55:
self.x55 = list(response_data)
elif frame_type == 0x59:
self.x59 = list(response_data)
elif frame_type == 0x5a:
self.x5a = list(response_data)
elif frame_type == 0x5b:
self.x5b = list(response_data)
elif frame_type == 0x5c:
self.x5c = list(response_data)
elif frame_type == 0x5d:
self.x5d = list(response_data)
elif frame_type == 0x61:
self.x61 = list(response_data)
elif frame_type == 0x62:
self.x62 = list(response_data)
elif frame_type == 0x63:
self.x63 = list(response_data)
elif frame_type == 0x64:
self.x64 = list(response_data)
elif frame_type == 0x65:
self.x65 = list(response_data)
elif frame_type == 0x83:
self.x83 = list(response_data)
elif frame_type == 0x90:
self.x90 = list(response_data)
elif frame_type == 0x91:
self.x91 = list(response_data)
elif frame_type == 0x92:
self.x92 = list(response_data)
elif frame_type == 0x93:
self.x93 = list(response_data)
elif frame_type == 0xb0:
self.xb0 = list(response_data)
elif frame_type == 0xb1:
d = list(response_data)
if len(d) == 2:
self.xb1 = d
elif len(d) == 7:
index = self.matrix_map.get(d[0])
if index is not None:
self.thumb_matrix[index] = d[1:]
elif frame_type == 0xb2:
d = list(response_data)
if len(d) == 2:
self.xb2 = d
elif len(d) == 7:
index = self.matrix_map.get(d[0])
if index is not None:
self.index_matrix[index] = d[1:]
elif frame_type == 0xb3:
d = list(response_data)
if len(d) == 2:
self.xb3 = d
elif len(d) == 7:
index = self.matrix_map.get(d[0])
if index is not None:
self.middle_matrix[index] = d[1:]
elif frame_type == 0xb4:
d = list(response_data)
if len(d) == 2:
self.xb4 = d
elif len(d) == 7:
index = self.matrix_map.get(d[0])
if index is not None:
self.ring_matrix[index] = d[1:]
elif frame_type == 0xb5:
d = list(response_data)
if len(d) == 2:
self.xb5 = d
elif len(d) == 7:
index = self.matrix_map.get(d[0])
if index is not None:
self.little_matrix[index] = d[1:]
elif frame_type == 0xb6:
self.xb6 = list(response_data)
def joint_map(self, pose):
# l21 CAN data by default receives 30 data
l21_pose = [0.0] * 30
mapping = {
0: 10, 1: 5, 2: 0, 3: 15, 4: None, 5: 20,
6: None, 7: 6, 8: 1, 9: 16, 10: None, 11: 21,
12: None, 13: 7, 14: 2, 15: 17, 16: None, 17: 22,
18: None, 19: 8, 20: 3, 21: 18, 22: None, 23: 23,
24: None, 25: 9, 26: 4, 27: 19, 28: None, 29: 24
}
for l21_idx, pose_idx in mapping.items():
if pose_idx is not None:
l21_pose[l21_idx] = pose[pose_idx]
return l21_pose
def state_to_cmd(self, l21_state):
pose = [0.0] * 25
mapping = {
0: 10, 1: 5, 2: 0, 3: 15, 5: 20, 7: 6,
8: 1, 9: 16, 11: 21, 13:7, 14: 2, 15: 17, 17: 22,
19: 8, 20: 3, 21: 18, 23: 23, 25: 9, 26: 4,
27: 19, 29: 24
}
for l21_idx, pose_idx in mapping.items():
pose[pose_idx] = l21_state[l21_idx]
return pose
def action_play(self):
self.send_command(0xA0,[])
def get_current_status(self, j=''):
self.send_command(FrameProperty.THUMB_POS, j,sleep_time=0.001)
self.send_command(FrameProperty.INDEX_POS,j,sleep_time=0.001)
self.send_command(FrameProperty.MIDDLE_POS,j,sleep_time=0.001)
self.send_command(FrameProperty.RING_POS,j,sleep_time=0.001)
self.send_command(FrameProperty.LITTLE_POS, j,sleep_time=0.001)
state= self.x41+ self.x42+ self.x43+ self.x44+ self.x45
if len(state) == 30:
l21_state = self.state_to_cmd(l21_state=state)
return l21_state
def get_current_pub_status(self):
state= self.x41+ self.x42+ self.x43+ self.x44+ self.x45
if len(state) == 30:
l21_state = self.state_to_cmd(l21_state=state)
return l21_state
def get_current_state_topic(self):
self.send_command(0x01,[])
self.send_command(0x02,[])
self.send_command(0x03,[])
self.send_command(0x04,[])
self.send_command(0x06,[])
state = self.x03+self.x02+self.x01+self.x04+self.x06
return state
def get_speed(self,j=''):
self.send_command(FrameProperty.THUMB_SPEED, j)
self.send_command(FrameProperty.INDEX_SPEED, j)
self.send_command(FrameProperty.MIDDLE_SPEED, j)
self.send_command(FrameProperty.RING_SPEED, j)
self.send_command(FrameProperty.LITTLE_SPEED, j)
speed = self.x49+ self.x4a+ self.x4b+ self.x4c+ self.x4d
if len(speed) == 30:
l21_speed = self.state_to_cmd(l21_state=speed)
return l21_speed
# def get_finger_torque(self):
# return self.finger_torque()
def get_fault(self):
self.get_thumbn_fault()
self.get_index_fault()
self.get_middle_fault()
self.get_ring_fault()
self.get_little_fault()
return [self.x59]+[self.x5a]+[self.x5b]+[self.x5c]+[self.x5d]
def get_threshold(self):
self.get_thumb_threshold()
self.get_index_threshold()
self.get_middle_threshold()
self.get_ring_threshold()
self.get_little_threshold()
return [self.x61]+[self.x62]+[self.x63]+[self.x64]+[self.x65]
def get_version(self):
if self.xc1 == []:
self.send_command(FrameProperty.HAND_HARDWARE_VERSION,[])
return self.xc1
def get_normal_force(self):
self.send_command(FrameProperty.HAND_NORMAL_FORCE,[])
return self.x90
def get_tangential_force(self):
self.send_command(FrameProperty.HAND_TANGENTIAL_FORCE,[])
return self.x91
def get_tangential_force_dir(self):
self.send_command(FrameProperty.HAND_TANGENTIAL_FORCE_DIR,[])
return self.x92
def get_approach_inc(self):
self.send_command(FrameProperty.HAND_APPROACH_INC,[])
return self.x93
def get_touch_type(self):
'''Get tactile sensor type data'''
self.send_command(FrameProperty.TOUCH_SENSOR_TYPE,[])
try:
return self.xb0[0]
except:
pass
def get_finger_torque(self):
self.send_command(FrameProperty.THUMB_TORQUE,[])
self.send_command(FrameProperty.INDEX_TORQUE,[])
self.send_command(FrameProperty.MIDDLE_TORQUE,[])
self.send_command(FrameProperty.RING_TORQUE,[])
self.send_command(FrameProperty.LITTLE_TORQUE,[])
return self.x51+self.x52+self.x53+self.x54+self.x55
def get_torque(self):
return self.get_finger_torque()
def get_thumb_touch(self):
'''Get thumb tactile sensor data'''
self.send_command(FrameProperty.THUMB_TOUCH,[],sleep_time=0.015)
return self.xb1
def get_index_touch(self):
'''Get index finger tactile sensor data'''
self.send_command(FrameProperty.INDEX_TOUCH,[0xc6],sleep_time=0.015)
return self.xb2
def get_middle_touch(self):
'''Get middle finger tactile sensor data'''
self.send_command(FrameProperty.MIDDLE_TOUCH,[],sleep_time=0.015)
return self.xb3
def get_ring_touch(self):
'''Get ring finger tactile sensor data'''
self.send_command(FrameProperty.RING_TOUCH,[],sleep_time=0.015)
return self.xb4
def get_little_touch(self):
'''Get little finger tactile sensor data'''
self.send_command(FrameProperty.LITTLE_TOUCH,[],sleep_time=0.015)
return self.xb5
def get_palm_touch(self):
'''Get palm tactile sensor data'''
self.send_command(FrameProperty.PALM_TOUCH,[],sleep_time=0.015)
return self.xb6
def get_force(self):
'''Get pressure sensor data'''
return [self.x90,self.x91 , self.x92 , self.x93]
def get_touch(self):
'''Get tactile sensor data'''
self.get_thumb_touch()
self.get_index_touch()
self.get_middle_touch()
self.get_ring_touch()
self.get_little_touch()
self.get_palm_touch()
try:
return [self.xb1[1],self.xb2[1] , self.xb3[1] , self.xb4[1],self.xb5[1],self.xb6[1]]
except:
pass
def get_matrix_touch(self):
self.send_command(0xb1,[0xc6],sleep_time=0.04)
self.send_command(0xb2,[0xc6],sleep_time=0.04)
self.send_command(0xb3,[0xc6],sleep_time=0.04)
self.send_command(0xb4,[0xc6],sleep_time=0.04)
self.send_command(0xb5,[0xc6],sleep_time=0.04)
return self.thumb_matrix , self.index_matrix , self.middle_matrix , self.ring_matrix , self.little_matrix
def get_current(self):
'''Not supported yet'''
return [0] * 21
def get_temperature(self):
self.get_thumb_threshold()
self.get_index_threshold()
self.get_middle_threshold()
self.get_ring_threshold()
self.get_little_threshold()
return self.x61+self.x62+self.x63+self.x64+self.x65
def get_serial_number(self):
return [0] * 6
def get_finger_order(self):
return [
"thumb_root",
"index_finger_root",
"middle_finger_root",
"ring_finger_root",
"little_finger_root",
"thumb_abduction",
"index_finger_abduction",
"middle_finger_abduction",
"ring_finger_abduction",
"little_finger_abduction",
"thumb_roll",
"reserved",
"reserved",
"reserved",
"reserved",
"thumb_middle_joint",
"reserved",
"reserved",
"reserved",
"reserved",
"thumb_tip",
"index_finger_tip",
"middle_finger_tip",
"ring_finger_tip",
"little_finger_tip"
]
def clear_faults(self):
'''Clear motor faults'''
self.send_command(0x83, [1, 1, 1, 1, 1],sleep_time=0.003)
return self.x83
def close_can_interface(self):
if self.bus:
self.bus.shutdown() # Close CAN bus
@@ -0,0 +1,448 @@
#!/usr/bin/env python3
import can
import time,sys,os
import threading
import numpy as np
from enum import Enum
current_dir = os.path.dirname(os.path.abspath(__file__))
target_dir = os.path.abspath(os.path.join(current_dir, ".."))
sys.path.append(target_dir)
from utils.color_msg import ColorMsg
class FrameProperty(Enum):
INVALID_FRAME_PROPERTY = 0x00 # 无效的can帧属性 | 无返回
# 并行指令区域
ROLL_POS = 0x01 # 横滚关节位置 | 坐标系建在每个手指的指根部位,按手指伸直的状态去定义旋转角度
YAW_POS = 0x02 # 航向关节位置 | 坐标系建在每个手指的指根部位,按手指伸直的状态去定义旋转角度
ROOT1_POS = 0x03 # 指根1关节位置 | 最接近手掌的指根关节
ROOT2_POS = 0x04 # 指根2关节位置 | 最接近手掌的指根关节
ROOT3_POS = 0x05 # 指根3关节位置 | 最接近手掌的指根关节
TIP_POS = 0x06 # 指尖关节位置 | 最接近手掌的指根关节
ROLL_SPEED = 0x09 # 横滚关节速度 | 坐标系建在每个手指的指根部位,按手指伸直的状态去定义旋转角度
YAW_SPEED = 0x0A # 航向关节速度 | 坐标系建在每个手指的指根部位,按手指伸直的状态去定义旋转角度
ROOT1_SPEED = 0x0B # 指根1关节速度 | 最接近手掌的指根关节
ROOT2_SPEED = 0x0C # 指根2关节速度 | 最接近手掌的指根关节
ROOT3_SPEED = 0x0D # 指根3关节速度 | 最接近手掌的指根关节
TIP_SPEED = 0x0E # 指尖关节速度 | 最接近手掌的指根关节
ROLL_TORQUE = 0x11 # 横滚关节扭矩 | 坐标系建在每个手指的指根部位,按手指伸直的状态去定义旋转角度
YAW_TORQUE = 0x12 # 航向关节扭矩 | 坐标系建在每个手指的指根部位,按手指伸直的状态去定义旋转角度
ROOT1_TORQUE = 0x13 # 指根1关节扭矩 | 最接近手掌的指根关节
ROOT2_TORQUE = 0x14 # 指根2关节扭矩 | 最接近手掌的指根关节
ROOT3_TORQUE = 0x15 # 指根3关节扭矩 | 最接近手掌的指根关节
TIP_TORQUE = 0x16 # 指尖关节扭矩 | 最接近手掌的指根关节
ROLL_FAULT = 0x19 # 横滚关节故障码 | 坐标系建在每个手指的指根部位,按手指伸直的状态去定义旋转角度
YAW_FAULT = 0x1A # 航向关节故障码 | 坐标系建在每个手指的指根部位,按手指伸直的状态去定义旋转角度
ROOT1_FAULT = 0x1B # 指根1关节故障码 | 最接近手掌的指根关节
ROOT2_FAULT = 0x1C # 指根2关节故障码 | 最接近手掌的指根关节
ROOT3_FAULT = 0x1D # 指根3关节故障码 | 最接近手掌的指根关节
TIP_FAULT = 0x1E # 指尖关节故障码 | 最接近手掌的指根关节
ROLL_TEMPERATURE = 0x21 # 横滚关节温度 | 坐标系建在每个手指的指根部位,按手指伸直的状态去定义旋转角度
YAW_TEMPERATURE = 0x22 # 航向关节温度 | 坐标系建在每个手指的指根部位,按手指伸直的状态去定义旋转角度
ROOT1_TEMPERATURE = 0x23 # 指根1关节温度 | 最接近手掌的指根关节
ROOT2_TEMPERATURE = 0x24 # 指根2关节温度 | 最接近手掌的指根关节
ROOT3_TEMPERATURE = 0x25 # 指根3关节温度 | 最接近手掌的指根关节
TIP_TEMPERATURE = 0x26 # 指尖关节温度 | 最接近手掌的指根关节
# 并行指令区域
# 串行指令区域
THUMB_POS = 0x41 # 大拇指指关节位置 | 返回本类型数据
INDEX_POS = 0x42 # 食指关节位置 | 返回本类型数据
MIDDLE_POS = 0x43 # 中指关节位置 | 返回本类型数据
RING_POS = 0x44 # 无名指关节位置 | 返回本类型数据
LITTLE_POS = 0x45 # 小拇指关节位置 | 返回本类型数据
THUMB_SPEED = 0x49 # 大拇指速度 | 返回本类型数据
INDEX_SPEED = 0x4A # 食指速度 | 返回本类型数据
MIDDLE_SPEED = 0x4B # 中指速度 | 返回本类型数据
RING_SPEED = 0x4C # 无名指速度 | 返回本类型数据
LITTLE_SPEED = 0x4D # 小拇指速度 | 返回本类型数据
THUMB_TORQUE = 0x51 # 大拇指扭矩 | 返回本类型数据
INDEX_TORQUE = 0x52 # 食指扭矩 | 返回本类型数据
MIDDLE_TORQUE = 0x53 # 中指扭矩 | 返回本类型数据
RING_TORQUE = 0x54 # 无名指扭矩 | 返回本类型数据
LITTLE_TORQUE = 0x55 # 小拇指扭矩 | 返回本类型数据
THUMB_FAULT = 0x59 # 大拇指故障码 | 返回本类型数据
INDEX_FAULT = 0x5A # 食指故障码 | 返回本类型数据
MIDDLE_FAULT = 0x5B # 中指故障码 | 返回本类型数据
RING_FAULT = 0x5C # 无名指故障码 | 返回本类型数据
LITTLE_FAULT = 0x5D # 小拇指故障码 | 返回本类型数据
THUMB_TEMPERATURE = 0x61 # 大拇指温度 | 返回本类型数据
INDEX_TEMPERATURE = 0x62 # 食指温度 | 返回本类型数据
MIDDLE_TEMPERATURE = 0x63 # 中指温度 | 返回本类型数据
RING_TEMPERATURE = 0x64 # 无名指温度 | 返回本类型数据
LITTLE_TEMPERATURE = 0x65 # 小拇指温度 | 返回本类型数据
# 串行指令区域
# 合并指令区域,同一手指非必要单控数据合并
FINGER_SPEED = 0x81 # 手指速度 | 返回本类型数据
FINGER_TORQUE = 0x82 # 转矩 | 返回本类型数据
FINGER_FAULT = 0x83 # 手指故障码 | 返回本类型数据
# 指尖传感器数据组
HAND_NORMAL_FORCE = 0x90 # 五指法向压力
HAND_TANGENTIAL_FORCE = 0x91 # 五指切向压力
HAND_TANGENTIAL_FORCE_DIR = 0x92 # 五指切向方向
HAND_APPROACH_INC = 0x93 # 五指接近感应
THUMB_ALL_DATA = 0x98 # 大拇指所有数据
INDEX_ALL_DATA = 0x99 # 食指所有数据
MIDDLE_ALL_DATA = 0x9A # 中指所有数据
RING_ALL_DATA = 0x9B # 无名指所有数据
LITTLE_ALL_DATA = 0x9C # 小拇指所有数据
# 动作指令 ·ACTION
ACTION_PLAY = 0xA0 # 动作
# 配置命令·CONFIG
HAND_UID = 0xC0 # 设备唯一标识码
HAND_HARDWARE_VERSION = 0xC1 # 硬件版本
HAND_SOFTWARE_VERSION = 0xC2 # 软件版本
HAND_COMM_ID = 0xC3 # 设备id
HAND_FACTORY_RESET = 0xCE # 恢复出厂设置
HAND_SAVE_PARAMETER = 0xCF # 保存参数
WHOLE_FRAME = 0xF0 # 整帧传输 | 返回一字节帧属性+整个结构体485及网络传输专属
class LinkerHandL24Can:
def __init__(self, config, can_channel='can0', baudrate=1000000, can_id=0x28):
self.config = config
self.can_id = can_id
self.running = True
self.x01, self.x02, self.x03, self.x04,self.x05,self.x06,self.x07, self.x08,self.x09,self.x0A,self.x0B,self.x0C,self.x0D,self.x0E,self.speed = [],[],[],[],[],[],[],[],[],[],[],[],[],[],[]
# 速度
self.x49, self.x4a, self.x4b, self.x4c, self.x4d = [],[],[],[],[]
self.x41,self.x42,self.x43,self.x44,self.x45 = [],[],[],[],[]
# 根据操作系统初始化 CAN 总线
if sys.platform == "linux":
self.bus = can.interface.Bus(
channel=can_channel, interface="socketcan", bitrate=baudrate,
can_filters=[{"can_id": can_id, "can_mask": 0x7FF}]
)
elif sys.platform == "win32":
self.bus = can.interface.Bus(
channel=can_channel, interface='pcan', bitrate=baudrate,
can_filters=[{"can_id": can_id, "can_mask": 0x7FF}]
)
else:
raise EnvironmentError("Unsupported platform for CAN interface")
# 根据 can_id 初始化 publisher 和相关参数
if can_id == 0x28: # 左手
self.hand_exists = config['LINKER_HAND']['LEFT_HAND']['EXISTS']
self.hand_joint = config['LINKER_HAND']['LEFT_HAND']['JOINT']
self.hand_names = config['LINKER_HAND']['LEFT_HAND']['NAME']
elif can_id == 0x27: # 右手
self.hand_exists = config['LINKER_HAND']['RIGHT_HAND']['EXISTS']
self.hand_joint = config['LINKER_HAND']['RIGHT_HAND']['JOINT']
self.hand_names = config['LINKER_HAND']['RIGHT_HAND']['NAME']
# 启动接收线程
self.receive_thread = threading.Thread(target=self.receive_response)
self.receive_thread.daemon = True
self.receive_thread.start()
def send_command(self, frame_property, data_list):
"""
发送命令到 CAN 总线
:param frame_property: 数据帧属性
:param data_list: 数据载荷
"""
frame_property_value = int(frame_property.value) if hasattr(frame_property, 'value') else frame_property
data = [frame_property_value] + [int(val) for val in data_list]
msg = can.Message(arbitration_id=self.can_id, data=data, is_extended_id=False)
try:
self.bus.send(msg)
#print(f"Message sent: ID={hex(self.can_id)}, Data={data}")
except can.CanError as e:
print(f"Failed to send message: {e}")
time.sleep(0.002)
def receive_response(self):
"""
接收并处理 CAN 总线的响应消息
"""
while self.running:
try:
msg = self.bus.recv(timeout=1.0) # 阻塞接收,1 秒超时
if msg:
self.process_response(msg)
except can.CanError as e:
print(f"Error receiving message: {e}")
def set_joint_positions(self, joint_ranges):
if len(joint_ranges) == 25:
l24_pose = self.joint_map(joint_ranges)
# 使用列表推导式将列表每6个元素切成一个子数组
chunks = [l24_pose[i:i+6] for i in range(0, 30, 6)]
self.send_command(FrameProperty.THUMB_POS, chunks[0])
self.send_command(FrameProperty.INDEX_POS, chunks[1])
self.send_command(FrameProperty.MIDDLE_POS, chunks[2])
self.send_command(FrameProperty.RING_POS, chunks[3])
self.send_command(FrameProperty.LITTLE_POS, chunks[4])
#self.set_tip_positions(joint_ranges[:5])
#print(l24_pose)
# 设置所有手指横滚关节位置
def set_roll_positions(self, joint_ranges):
self.send_command(FrameProperty.ROLL_POS, joint_ranges)
# 设置所有手指航向关节位置
def set_yaw_positions(self, joint_ranges):
self.send_command(FrameProperty.YAW_POS, joint_ranges)
# 设置所有手指指根1关节位置
def set_root1_positions(self, joint_ranges):
self.send_command(FrameProperty.ROOT1_POS, joint_ranges)
# 设置所有手指指根2关节位置
def set_root2_positions(self, joint_ranges):
self.send_command(FrameProperty.ROOT2_POS, joint_ranges)
# 设置所有手指指根3关节位置
def set_root3_positions(self, joint_ranges):
self.send_command(FrameProperty.ROOT3_POS, joint_ranges)
# 设置所有手指指尖关节位置
def set_tip_positions(self, joint_ranges=[80]*5):
self.send_command(FrameProperty.TIP_POS, joint_ranges)
# 获取大拇指指关节位置
def get_thumb_positions(self,j=[0]):
self.send_command(FrameProperty.THUMB_POS, j)
# 获取食指关节位置
def get_index_positions(self, j=[0]):
self.send_command(FrameProperty.INDEX_POS,j)
# 获取中指关节位置
def get_middle_positions(self, j=[0]):
self.send_command(FrameProperty.MIDDLE_POS,j)
# 获取无名指关节位置
def get_ring_positions(self, j=[0]):
self.send_command(FrameProperty.RING_POS,j)
# 获取小拇指关节位置
def get_little_positions(self, j=[0]):
self.send_command(FrameProperty.LITTLE_POS, j)
# 失能01模式
def set_disability_mode(self, j=[1,1,1,1,1]):
self.send_command(0x85,j)
# 使能00模式
def set_enable_mode(self, j=[00,00,00,00,00]):
self.send_command(0x85,j)
def set_speed(self, speed):
self.speed = [speed]*6
ColorMsg(msg=f"L24设置速度为:{self.speed}", color="yellow")
self.send_command(FrameProperty.THUMB_SPEED, self.speed)
self.send_command(FrameProperty.INDEX_SPEED, self.speed)
self.send_command(FrameProperty.MIDDLE_SPEED, self.speed)
self.send_command(FrameProperty.RING_SPEED, self.speed)
self.send_command(FrameProperty.LITTLE_SPEED, self.speed)
def set_finger_torque(self, torque):
self.send_command(0x42, torque)
def request_device_info(self):
self.send_command(0xC0, [0])
self.send_command(0xC1, [0])
self.send_command(0xC2, [0])
def save_parameters(self):
self.send_command(0xCF, [])
def process_response(self, msg):
if msg.arbitration_id == self.can_id:
frame_type = msg.data[0]
response_data = msg.data[1:]
if frame_type == 0x01:
self.x01 = list(response_data)
elif frame_type == 0x02:
self.x02 = list(response_data)
elif frame_type == 0x03:
self.x03 = list(response_data)
elif frame_type == 0x04:
self.x04 = list(response_data)
elif frame_type == 0x05:
self.x05 = list(response_data)
elif frame_type == 0x06:
self.x06 = list(response_data)
print("_-"*20)
print(self.x06)
elif frame_type == 0xC0:
print(f"Device ID info: {response_data}")
if self.can_id == 0x28:
self.right_hand_info = response_data
elif self.can_id == 0x27:
self.left_hand_info = response_data
elif frame_type == 0x08:
self.x08 = list(response_data)
elif frame_type == 0x09:
self.x09 = list(response_data)
elif frame_type == 0x0A:
self.x0A = list(response_data)
elif frame_type == 0x0B:
self.x0B = list(response_data)
elif frame_type == 0x0C:
self.x0C = list(response_data)
elif frame_type == 0x0D:
self.x0D = list(response_data)
elif frame_type == 0x22:
#ColorMsg(msg=f"五指切向压力方向:{list(response_data)}")
d = list(response_data)
self.tangential_force_dir = [float(i) for i in d]
elif frame_type == 0x23:
#ColorMsg(msg=f"五指接近度:{list(response_data)}")
d = list(response_data)
self.approach_inc = [float(i) for i in d]
elif frame_type == 0x41: # 拇指关节位置返回值
self.x41 = list(response_data)
elif frame_type == 0x42: # 食指关节位置返回值
self.x42 = list(response_data)
elif frame_type == 0x43: # 中指关节位置返回值
self.x43 = list(response_data)
elif frame_type == 0x44: # 无名指关节位置返回值
self.x44 = list(response_data)
elif frame_type == 0x45: # 小拇指关节位置返回值
self.x45 = list(response_data)
elif frame_type == 0x49: # 拇指速度返回值
self.x49 = list(response_data)
elif frame_type == 0x4a: # 食指速度返回值
self.x4a = list(response_data)
elif frame_type == 0x4b: # 中指速度返回值
self.x4b = list(response_data)
elif frame_type == 0x4c: # 无名指速度返回值
self.x4c = list(response_data)
elif frame_type == 0x4d: # 小拇指速度返回值
self.x4d = list(response_data)
# topic映射L24
def joint_map(self, pose):
# L24 CAN数据默认接收30个数据
l24_pose = [0.0] * 30 # 初始化l24_pose为30个0.0
# 映射表,通过字典简化映射关系
mapping = {
0: 10, 1: 5, 2: 0, 3: 15, 4: None, 5: 20,
6: None, 7: 6, 8: 1, 9: 16, 10: None, 11: 21,
12: None, 13: None, 14: 2, 15: 17, 16: None, 17: 22,
18: None, 19: 8, 20: 3, 21: 18, 22: None, 23: 23,
24: None, 25: 9, 26: 4, 27: 19, 28: None, 29: 24
}
# 遍历映射字典,进行值的映射
for l24_idx, pose_idx in mapping.items():
if pose_idx is not None:
l24_pose[l24_idx] = pose[pose_idx]
return l24_pose
# 将L24的状态值转换为CMD格式的状态值
def state_to_cmd(self, l24_state):
# L24 CAN默认接收30个数据,初始化pose为25个0.0
pose = [0.0] * 25 # 原来控制L24的指令数据为25个
# 映射关系,字典中存储l24_state索引和pose索引之间的映射关系
mapping = {
0: 10, 1: 5, 2: 0, 3: 15, 5: 20, 7: 6,
8: 1, 9: 16, 11: 21, 14: 2, 15: 17, 17: 22,
19: 8, 20: 3, 21: 18, 23: 23, 25: 9, 26: 4,
27: 19, 29: 24
}
# 遍历映射字典,更新pose的值
for l24_idx, pose_idx in mapping.items():
pose[pose_idx] = l24_state[l24_idx]
return pose
# 获取所有关节数据
def get_current_status(self, j=''):
time.sleep(0.01)
self.send_command(FrameProperty.THUMB_POS, j)
self.send_command(FrameProperty.INDEX_POS,j)
self.send_command(FrameProperty.MIDDLE_POS,j)
self.send_command(FrameProperty.RING_POS,j)
self.send_command(FrameProperty.LITTLE_POS, j)
#return self.x41, self.x42, self.x43, self.x44, self.x45
time.sleep(0.1)
state= self.x41+ self.x42+ self.x43+ self.x44+ self.x45
if len(state) == 30:
l24_state = self.state_to_cmd(l24_state=state)
return l24_state
def get_speed(self,j=''):
time.sleep(0.1)
self.send_command(FrameProperty.THUMB_SPEED, j) # 大拇指速度
self.send_command(FrameProperty.INDEX_SPEED, j) # 食指速度
self.send_command(FrameProperty.MIDDLE_SPEED, j) # 中指速度
self.send_command(FrameProperty.RING_SPEED, j) # 无名指速度
self.send_command(FrameProperty.LITTLE_SPEED, j) # 小拇指速度
speed = self.x49+ self.x4a+ self.x4b+ self.x4c+ self.x4d
if len(speed) == 30:
l24_speed = self.state_to_cmd(l24_state=speed)
return l24_speed
def get_finger_torque(self):
return self.finger_torque
# def get_current(self):
# return self.x06
# def get_fault(self):
# return self.x07
def clear_faults(self, finger_mask=[1, 1, 1, 1, 1]):
"""L24 暂不支持清除故障码"""
pass
def close_can_interface(self):
if self.bus:
self.bus.shutdown() # 关闭 CAN 总线
'''
这个方法只用于展示数据关系映射,使用的话最好使用上面的方法
'''
def joint_map_2(self, pose):
l24_pose = [0.0]*30 #L24 CAN默认接收30个数据 pose控制L24发送的指令数据默认25个,这里进行映射
'''
需要进行映射
# L24 CAN数据格式
#["拇指横摆0-10", "拇指侧摆1-5", "拇指根部2-0", "拇指中部3-15", "预留4-", "拇指指尖5-20", "预留6-", "食指侧摆7-6", "食指根部8-1", "食指中部9-16", "预留10-", "食指指尖11-21", "预留12-", "预留13-", "中指根部14-2", "中指中部15-17", "预留16-", "中指指尖17-22", "预留18-", "无名指侧摆19-8", "无名指根部20-3", "无名指中部21-18", "预留22-", "无名指指尖23-23", "预留24-", "小指侧摆25-9", "小指根部26-4", "小指中部27-19", "预留28-", "小指指尖29-24"]
# CMD 接收到的数据格式
#["拇指根部0", "食指根部1", "中指根部2", "无名指根部3","小指根部4","拇指侧摆5","食指侧摆6","中指侧摆","无名指侧摆8","小指侧摆9","拇指横摆10","预留","预留","预留","预留","拇指中部15","食指中部16","中指中部17","无名指中部18","小指中部19","拇指指尖20","食指指尖21","中指指尖22","无名指指尖23","小指指尖24"]
'''
l24_pose[0] = pose[10]
l24_pose[1] = pose[5]
l24_pose[2] = pose[0]
l24_pose[3] = pose[15]
l24_pose[4] = 0.0
l24_pose[5] = pose[20]
l24_pose[6] = 0.0
l24_pose[7] = pose[6]
l24_pose[8] = pose[1]
l24_pose[9] = pose[16]
l24_pose[10] = 0.0
l24_pose[11] = pose[21]
l24_pose[12] = 0.0
l24_pose[13] = 0.0
l24_pose[14] = pose[2]
l24_pose[15] = pose[17]
l24_pose[16] = 0.0
l24_pose[17] = pose[22]
l24_pose[18] = 0.0
l24_pose[19] = pose[8]
l24_pose[20] = pose[3]
l24_pose[21] = pose[18]
l24_pose[22] = 0.0
l24_pose[23] = pose[23]
l24_pose[24] = 0.0
l24_pose[25] = pose[9]
l24_pose[26] = pose[4]
l24_pose[27] = pose[19]
l24_pose[28] = 0.0
l24_pose[29] = pose[24]
return l24_pose
def get_finger_order(self):
return []
def get_serial_number(self):
return [0] * 6
def show_fun_table(self):
pass
@@ -0,0 +1,848 @@
#!/usr/bin/env python3
import can
import time,sys,os
import threading
import numpy as np
from enum import Enum
from utils.open_can import OpenCan
from utils.color_msg import ColorMsg
from can.exceptions import CanError
current_dir = os.path.dirname(os.path.abspath(__file__))
target_dir = os.path.abspath(os.path.join(current_dir, ".."))
sys.path.append(target_dir)
class FrameProperty(Enum):
INVALID_FRAME_PROPERTY = 0x00 # Invalid CAN frame property | No response
# Parallel command area
ROLL_POS = 0x01 # Roll joint position | The coordinate system is built at the root of each finger, and the rotation angle is defined according to the straightened state of the finger [10,11,12,13,14]
YAW_POS = 0x02 # Yaw joint position | The coordinate system is built at the root of each finger, and the rotation angle is defined according to the straightened state of the finger [5,6,7,8,9]
ROOT1_POS = 0x03 # Root1 joint position | The root joint closest to the palm [0,1,2,3,4]
ROOT2_POS = 0x04 # Root2 joint position | The root joint closest to the palm [15, 16,17,18,19]
ROOT3_POS = 0x05 # Root3 joint position | The root joint closest to the palm Not available
TIP_POS = 0x06 # Fingertip joint position | The root joint closest to the palm [20,21,22,23,24]
ROLL_SPEED = 0x09 # Roll joint speed | The coordinate system is built at the root of each finger, and the rotation angle is defined according to the straightened state of the finger
YAW_SPEED = 0x0A # Yaw joint speed | The coordinate system is built at the root of each finger, and the rotation angle is defined according to the straightened state of the finger
ROOT1_SPEED = 0x0B # Root1 joint speed | The root joint closest to the palm
ROOT2_SPEED = 0x0C # Root2 joint speed | The root joint closest to the palm
ROOT3_SPEED = 0x0D # Root3 joint speed | The root joint closest to the palm
TIP_SPEED = 0x0E # Fingertip joint speed | The root joint closest to the palm
ROLL_TORQUE = 0x11 # Roll joint torque | The coordinate system is built at the root of each finger, and the rotation angle is defined according to the straightened state of the finger
YAW_TORQUE = 0x12 # Yaw joint torque | The coordinate system is built at the root of each finger, and the rotation angle is defined according to the straightened state of the finger
ROOT1_TORQUE = 0x13 # Root1 joint torque | The root joint closest to the palm
ROOT2_TORQUE = 0x14 # Root2 joint torque | The root joint closest to the palm
ROOT3_TORQUE = 0x15 # Root3 joint torque | The root joint closest to the palm
TIP_TORQUE = 0x16 # Fingertip joint torque | The root joint closest to the palm
ROLL_FAULT = 0x19 # Roll joint fault code | The coordinate system is built at the root of each finger, and the rotation angle is defined according to the straightened state of the finger
YAW_FAULT = 0x1A # Yaw joint fault code | The coordinate system is built at the root of each finger, and the rotation angle is defined according to the straightened state of the finger
ROOT1_FAULT = 0x1B # Root1 joint fault code | The root joint closest to the palm
ROOT2_FAULT = 0x1C # Root2 joint fault code | The root joint closest to the palm
ROOT3_FAULT = 0x1D # Root3 joint fault code | The root joint closest to the palm
TIP_FAULT = 0x1E # Fingertip joint fault code | The root joint closest to the palm
ROLL_TEMPERATURE = 0x21 # Roll joint temperature | The coordinate system is built at the root of each finger, and the rotation angle is defined according to the straightened state of the finger
YAW_TEMPERATURE = 0x22 # Yaw joint temperature | The coordinate system is built at the root of each finger, and the rotation angle is defined according to the straightened state of the finger
ROOT1_TEMPERATURE = 0x23 # Root1 joint temperature | The root joint closest to the palm
ROOT2_TEMPERATURE = 0x24 # Root2 joint temperature | The root joint closest to the palm
ROOT3_TEMPERATURE = 0x25 # Root3 joint temperature | The root joint closest to the palm
TIP_TEMPERATURE = 0x26 # Fingertip joint temperature | The root joint closest to the palm
# Parallel command area
# Serial command area
THUMB_POS = 0x41 # Thumb joint position | Returns this type of data
INDEX_POS = 0x42 # Index finger joint position | Returns this type of data
MIDDLE_POS = 0x43 # Middle finger joint position | Returns this type of data
RING_POS = 0x44 # Ring finger joint position | Returns this type of data
LITTLE_POS = 0x45 # Little finger joint position | Returns this type of data
THUMB_SPEED = 0x49 # Thumb speed | Returns this type of data
INDEX_SPEED = 0x4A # Index finger speed | Returns this type of data
MIDDLE_SPEED = 0x4B # Middle finger speed | Returns this type of data
RING_SPEED = 0x4C # Ring finger speed | Returns this type of data
LITTLE_SPEED = 0x4D # Little finger speed | Returns this type of data
THUMB_TORQUE = 0x51 # Thumb torque | Returns this type of data
INDEX_TORQUE = 0x52 # Index finger torque | Returns this type of data
MIDDLE_TORQUE = 0x53 # Middle finger torque | Returns this type of data
RING_TORQUE = 0x54 # Ring finger torque | Returns this type of data
LITTLE_TORQUE = 0x55 # Little finger torque | Returns this type of data
THUMB_FAULT = 0x59 # Thumb fault code | Returns this type of data
INDEX_FAULT = 0x5A # Index finger fault code | Returns this type of data
MIDDLE_FAULT = 0x5B # Middle finger fault code | Returns this type of data
RING_FAULT = 0x5C # Ring finger fault code | Returns this type of data
LITTLE_FAULT = 0x5D # Little finger fault code | Returns this type of data
THUMB_TEMPERATURE = 0x61 # Thumb temperature | Returns this type of data
INDEX_TEMPERATURE = 0x62 # Index finger temperature | Returns this type of data
MIDDLE_TEMPERATURE = 0x63 # Middle finger temperature | Returns this type of data
RING_TEMPERATURE = 0x64 # Ring finger temperature | Returns this type of data
LITTLE_TEMPERATURE = 0x65 # Little finger temperature | Returns this type of data
# Serial command area
# Merged command area, non-essential single control data of the same finger is merged
FINGER_SPEED = 0x81 # Finger speed | Returns this type of data
FINGER_TORQUE = 0x82 # Torque | Returns this type of data
FINGER_FAULT = 0x83 # Finger fault code | Returns this type of data
# Fingertip sensor data group
HAND_NORMAL_FORCE = 0x90 # Normal force of five fingers
HAND_TANGENTIAL_FORCE = 0x91 # Tangential force of five fingers
HAND_TANGENTIAL_FORCE_DIR = 0x92 # Tangential direction of five fingers
HAND_APPROACH_INC = 0x93 # Proximity sensing of five fingers
THUMB_ALL_DATA = 0x98 # All data of thumb
INDEX_ALL_DATA = 0x99 # All data of index finger
MIDDLE_ALL_DATA = 0x9A # All data of middle finger
RING_ALL_DATA = 0x9B # All data of ring finger
LITTLE_ALL_DATA = 0x9C # All data of little finger
# Action command ·ACTION
ACTION_PLAY = 0xA0 # Action
# Configuration command ·CONFIG
HAND_UID = 0xC0 # Device unique identifier
HAND_HARDWARE_VERSION = 0xC1 # Hardware version
HAND_SOFTWARE_VERSION = 0xC2 # Software version
HAND_COMM_ID = 0xC3 # Device id
HAND_FACTORY_RESET = 0xCE # Restore factory settings
HAND_SAVE_PARAMETER = 0xCF # Save parameters
WHOLE_FRAME = 0xF0 # Whole frame transmission | Returns one byte frame property + the entire structure for 485 and network transmission only
class LinkerHandL25Can:
def __init__(self, can_channel='can0', baudrate=1000000, can_id=0x28,yaml=""):
self.can_id = can_id
self.can_channel = can_channel
self.baudrate = baudrate
self.open_can = OpenCan(load_yaml=yaml)
self.running = True
self.last_thumb_pos, self.last_index_pos,self.last_ring_pos,self.last_middle_pos, self.last_little_pos = None,None,None,None,None
self.x01, self.x02, self.x03, self.x04,self.x05,self.x06,self.x07, self.x08,self.x09,self.x0A,self.x0B,self.x0C,self.x0D,self.x0E,self.speed = [],[],[],[],[],[],[],[],[],[],[],[],[],[],[]
self.last_root1,self.last_yaw,self.last_roll,self.last_root2,self.last_tip = None,None,None,None,None
# 速度
self.x49, self.x4a, self.x4b, self.x4c, self.x4d,self.xc1 = [],[],[],[],[],[]
self.x41,self.x42,self.x43,self.x44,self.x45 = [],[],[],[],[]
# 扭矩
self.x51, self.x52, self.x53, self.x54,self.x55 = [],[],[],[],[]
# 故障码
self.x59,self.x5a,self.x5b,self.x5c,self.x5d = [],[],[],[],[]
# 温度阈值
self.x61,self.x62,self.x63,self.x64,self.x65 = [],[],[],[],[]
# 压感
self.x90,self.x91,self.x92,self.x93 = [],[],[],[]
# 新压感
self.xb0,self.xb1,self.xb2,self.xb3,self.xb4,self.xb5 = [-1] * 5,[-1] * 5,[-1] * 5,[-1] * 5,[-1] * 5,[-1] * 5
self.thumb_matrix = np.full((12, 6), -1)
self.index_matrix = np.full((12, 6), -1)
self.middle_matrix = np.full((12, 6), -1)
self.ring_matrix = np.full((12, 6), -1)
self.little_matrix = np.full((12, 6), -1)
self.matrix_map = {
0: 0,
16: 1,
32: 2,
48: 3,
64: 4,
80: 5,
96: 6,
112: 7,
128: 8,
144: 9,
160: 10,
176: 11,
}
# 根据操作系统初始化 CAN 总线
# try:
# if sys.platform == "linux":
# self.open_can.open_can(self.can_channel)
# time.sleep(0.1)
# self.bus = can.interface.Bus(
# channel=can_channel, interface="socketcan", bitrate=baudrate,
# can_filters=[{"can_id": can_id, "can_mask": 0x7FF}]
# )
# elif sys.platform == "win32":
# self.bus = can.interface.Bus(
# channel=can_channel, interface='pcan', bitrate=baudrate,
# can_filters=[{"can_id": can_id, "can_mask": 0x7FF}]
# )
# else:
# raise EnvironmentError("Unsupported platform for CAN interface")
# except:
# print("Please insert CAN device")
self.bus = self.init_can_bus(channel=self.can_channel, baudrate=baudrate)
# 启动接收线程
self.receive_thread = threading.Thread(target=self.receive_response)
self.receive_thread.daemon = True
self.receive_thread.start()
def init_can_bus(self, channel, baudrate):
"""
尝试按优先级连接 CAN 总线,并实现回退机制。
"""
# --- 统一异常处理块开始 ---
try:
if sys.platform == "linux":
# Linux 优先级:1. socketcan
try:
self.open_can.open_can(self.can_channel)
# 尝试 socketcan
bus = can.interface.Bus(channel=channel, interface="socketcan", bitrate=baudrate)
ColorMsg(msg=f"成功连接: interface='socketcan', channel='{channel}'", color="green")
return bus
except CanError as e:
# 如果 socketcan 失败,可以考虑在这里尝试其他 Linux 接口 (如 'pcan')
ColorMsg(msg=f"socketcan 接口连接失败: {e}", color="yellow")
raise # 重新抛出异常,让外层 try 捕获
elif sys.platform == "win32":
# Windows 优先级:1. pcan
try:
bus = can.interface.Bus(channel=channel, interface='pcan', bitrate=baudrate)
ColorMsg(msg=f"成功连接: interface='pcan', channel='{channel}'", color="green")
return bus
except CanError as e:
ColorMsg(msg=f"pcan 接口连接失败,尝试回退到 'candle': {e}", color="yellow")
# Windows 优先级:2. candle (回退方法)
try:
bus = can.Bus(interface="candle", channel=channel, bitrate=baudrate)
ColorMsg(msg=f"成功连接: interface='candle', channel='{channel}'", color="green")
return bus
except CanError as e:
ColorMsg(msg=f"candle 接口连接失败: {e}", color="yellow")
raise # 两个接口都失败,抛出异常
else:
raise EnvironmentError("Unsupported platform for CAN interface")
# --- 统一异常处理块结束 ---
except Exception as e:
# 如果任何一个接口尝试失败并抛出异常(包括 EnvironmentError)
ColorMsg(msg=f"致命错误:所有 CAN 接口连接尝试均失败或平台不受支持。请检查设备连接或驱动安装和配置文件中CAN参数的配置。\n错误详情: {e}", color="red")
# 保持 raise 动作,将错误信息传递给调用者,避免程序继续运行
raise
def send_command(self, frame_property, data_list):
"""
Send command to CAN bus
:param frame_property: Data frame properties
:param data_list: Data payload
"""
frame_property_value = int(frame_property.value) if hasattr(frame_property, 'value') else frame_property
data = [frame_property_value] + [int(val) for val in data_list]
msg = can.Message(arbitration_id=self.can_id, data=data, is_extended_id=False)
try:
self.bus.send(msg)
#print(f"Message sent: ID={hex(self.can_id)}, Data={data}")
except can.CanError as e:
print(f"Failed to send message: {e}")
self.open_can.open_can(self.can_channel)
time.sleep(1)
self.is_can = self.open_can.is_can_up_sysfs(interface=self.can_channel)
time.sleep(1)
if self.is_can:
self.bus = can.interface.Bus(channel=self.can_channel, interface="socketcan", bitrate=self.baudrate)
else:
print("Reconnecting CAN devices ....")
time.sleep(0.001)
def receive_response(self):
"""
Receive and process response messages from CAN bus
"""
while self.running:
try:
msg = self.bus.recv(timeout=1.0) # 阻塞接收,1 秒超时
if msg:
self.process_response(msg)
except can.CanError as e:
print(f"Error receiving message: {e}")
def set_joint_positions(self, joint_ranges):
if len(joint_ranges) == 25:
l25_pose = self.joint_map(joint_ranges)
# 使用列表推导式将列表每6个元素切成一个子数组
chunks = [l25_pose[i:i+6] for i in range(0, 30, 6)]
self.send_command(FrameProperty.THUMB_POS, chunks[0])
#time.sleep(0.001)
self.send_command(FrameProperty.INDEX_POS, chunks[1])
#time.sleep(0.001)
self.send_command(FrameProperty.MIDDLE_POS, chunks[2])
#time.sleep(0.001)
self.send_command(FrameProperty.RING_POS, chunks[3])
#time.sleep(0.001)
self.send_command(FrameProperty.LITTLE_POS, chunks[4])
#time.sleep(0.001)
def set_joint_positions_by_topic(self, joint_ranges):
if len(joint_ranges) == 25:
# Finger Joint Position Constants
#ROLL_POS = 0x01 # Roll joint position | Coordinate system based on finger base, rotation angle defined when finger is straight [10,11,12,13,14]
#YAW_POS = 0x02 # Yaw joint position | Coordinate system based on finger base, rotation angle defined when finger is straight [5,6,7,8,9]
#ROOT1_POS = 0x03 # Root1 joint position | Joint closest to the palm [0,1,2,3,4]
#ROOT2_POS = 0x04 # Root2 joint position | Joint closest to the palm [15,16,17,18,19]
#ROOT3_POS = 0x05 # Root3 joint position | Joint closest to the palm (currently unused)
#TIP_POS = 0x06 # Tip joint position | Joint closest to the palm [20,21,22,23,24]
# Finger joint names mapping (Chinese to English translation):
# ["Thumb root", "Index root", "Middle root", "Ring root", "Pinky root",
# "Thumb yaw", "Index yaw", "Middle yaw", "Ring yaw", "Pinky yaw",
# "Thumb roll", "Reserved", "Reserved", "Reserved", "Reserved",
# "Thumb middle", "Index middle", "Middle middle", "Ring middle", "Pinky middle",
# "Thumb tip", "Index tip", "Middle tip", "Ring tip", "Pinky tip"]
l25_pose = self.slice_list(joint_ranges,5)
if self._list_d_value(self.last_root1, l25_pose[0]):
self.set_root1_positions(l25_pose[0])
self.last_root1 = l25_pose[0]
if self._list_d_value(self.last_yaw, l25_pose[1]):
self.set_yaw_positions(l25_pose[1])
self.last_yaw = l25_pose[1]
if self._list_d_value(self.last_roll, l25_pose[2]):
self.set_roll_positions(l25_pose[2])
self.last_roll = l25_pose[2]
if self._list_d_value(self.last_root2, l25_pose[3]):
self.set_root2_positions(l25_pose[3])
self.last_root2 = l25_pose[3]
if self._list_d_value(self.last_tip, l25_pose[4]):
self.set_tip_positions(l25_pose[4])
self.last_tip = l25_pose[4]
def slice_list(self, input_list, slice_size):
"""
Split a list into chunks of specified size.
Parameters:
input_list (list): The list to be chunked.
slice_size (int): Number of elements in each chunk.
Returns:
list of lists: The chunked list.
"""
# Implementation using list comprehension
sliced_list = [input_list[i:i + slice_size] for i in range(0, len(input_list), slice_size)]
return sliced_list
def _list_d_value(self,list1, list2):
if list1 == None:
return True
for a, b in zip(list1, list2):
if abs(b - a) > 2:
return True
break
return False
# Set roll joint positions for all fingers
def set_roll_positions(self, joint_ranges):
self.send_command(FrameProperty.ROLL_POS, joint_ranges)
# Set yaw joint positions for all fingers
def set_yaw_positions(self, joint_ranges):
print(joint_ranges)
self.send_command(FrameProperty.YAW_POS, joint_ranges)
# Set base joint 1 positions for all fingers
def set_root1_positions(self, joint_ranges):
self.send_command(FrameProperty.ROOT1_POS, joint_ranges)
# Set base joint 2 positions for all fingers
def set_root2_positions(self, joint_ranges):
self.send_command(FrameProperty.ROOT2_POS, joint_ranges)
# Set base joint 3 positions for all fingers
def set_root3_positions(self, joint_ranges):
self.send_command(FrameProperty.ROOT3_POS, joint_ranges)
# Set fingertip joint positions for all fingers
def set_tip_positions(self, joint_ranges=[80]*5):
self.send_command(FrameProperty.TIP_POS, joint_ranges)
# Set thumb torque parameters
def set_thumb_torque(self, j=[]):
self.send_command(FrameProperty.THUMB_TORQUE, j)
# Set index finger torque
def set_index_torque(self, j=[]):
self.send_command(FrameProperty.INDEX_TORQUE, j)
# Set middle finger torque
def set_middle_torque(self, j=[]):
self.send_command(FrameProperty.MIDDLE_TORQUE, j)
# Set ring finger torque
def set_ring_torque(self, j=[]):
self.send_command(FrameProperty.RING_TORQUE, j)
# Set little finger torque
def set_little_torque(self, j=[]):
self.send_command(FrameProperty.LITTLE_TORQUE, j)
# Get thumb joint position
def get_thumb_positions(self,j=[0]):
self.send_command(FrameProperty.THUMB_POS, j)
# Get index finger joint positions
def get_index_positions(self, j=[0]):
self.send_command(FrameProperty.INDEX_POS,j)
# Get middle finger joint position
def get_middle_positions(self, j=[0]):
self.send_command(FrameProperty.MIDDLE_POS,j)
# Retrieve the position of the ring finger joint
def get_ring_positions(self, j=[0]):
self.send_command(FrameProperty.RING_POS,j)
# Retrieve the position of the little finger joint
def get_little_positions(self, j=[0]):
self.send_command(FrameProperty.LITTLE_POS, j)
# All fault codes of motors in the thumb
def get_thumbn_fault(self,j=[]):
self.send_command(FrameProperty.THUMB_FAULT,j)
# All motor fault codes for the index finger
def get_index_fault(self,j=[]):
self.send_command(FrameProperty.INDEX_FAULT,j)
# All motor fault codes for the middle finger
def get_middle_fault(self,j=[]):
self.send_command(FrameProperty.MIDDLE_FAULT,j)
# All motor fault codes for the ring finger
def get_ring_fault(self,j=[]):
self.send_command(FrameProperty.RING_FAULT,j)
# All motor fault codes for the little finger
def get_little_fault(self,j=[]):
self.send_command(FrameProperty.LITTLE_FAULT,j)
# Temperature threshold for the thumb motors
def get_thumb_threshold(self,j=[]):
self.send_command(FrameProperty.THUMB_TEMPERATURE, '')
# Temperature threshold for the index finger motors
def get_index_threshold(self,j=[]):
self.send_command(FrameProperty.INDEX_TEMPERATURE, j)
# Temperature threshold for the middle finger motors
def get_middle_threshold(self,j=[]):
self.send_command(FrameProperty.MIDDLE_TEMPERATURE, j)
# Temperature threshold for the ring finger motors
def get_ring_threshold(self,j=[]):
self.send_command(FrameProperty.RING_TEMPERATURE, j)
# Little finger temperature threshold
def get_little_threshold(self,j=[]):
self.send_command(FrameProperty.LITTLE_TEMPERATURE, j)
def set_disability_mode(self, j=[1,1,1,1,1]):
self.send_command(0x85,j)
def set_enable_mode(self, j=[00,00,00,00,00]):
self.send_command(0x85,j)
# Set torque for all fingers
def set_torque(self,torque=[250]*5):
t = torque[0]
i = torque[1]
m = torque[2]
r = torque[3]
l = torque[4]
self.set_thumb_torque(j=[t]*5)
self.set_index_torque(j=[i]*5)
self.set_middle_torque(j=[m]*5)
self.set_ring_torque(j=[r]*5)
self.set_little_torque(j=[l]*5)
def set_speed(self, speed):
self.speed = speed
if len(speed) < 25:
thumb_speed = [self.speed[0]]*5
index_speed = [self.speed[1]]*5
middle_speed = [self.speed[2]]*5
ring_speed = [self.speed[3]]*5
little_speed = [self.speed[4]]*5
else:
thumb_speed = [self.speed[0],self.speed[1],self.speed[2],self.speed[3],self.speed[4]]
index_speed = [self.speed[5],self.speed[6],self.speed[7],self.speed[8],self.speed[9]]
middle_speed = [self.speed[10],self.speed[11],self.speed[12],self.speed[13],self.speed[14]]
ring_speed = [self.speed[15],self.speed[16],self.speed[17],self.speed[18],self.speed[19]]
little_speed = [self.speed[20],self.speed[21],self.speed[22],self.speed[23],self.speed[24]]
self.send_command(FrameProperty.THUMB_SPEED, thumb_speed)
self.send_command(FrameProperty.INDEX_SPEED, index_speed)
self.send_command(FrameProperty.MIDDLE_SPEED, middle_speed)
self.send_command(FrameProperty.RING_SPEED, ring_speed)
self.send_command(FrameProperty.LITTLE_SPEED, little_speed)
def set_finger_torque(self, torque):
self.send_command(0x42, torque)
def request_device_info(self):
self.send_command(0xC0, [0])
self.send_command(0xC1, [0])
self.send_command(0xC2, [0])
def save_parameters(self):
self.send_command(0xCF, [])
def process_response(self, msg):
if msg.arbitration_id == self.can_id:
frame_type = msg.data[0]
response_data = msg.data[1:]
if len(list(response_data)) == 0:
return
if frame_type == 0x01:
self.x01 = list(response_data)
elif frame_type == 0x02:
self.x02 = list(response_data)
elif frame_type == 0x03:
self.x03 = list(response_data)
elif frame_type == 0x04:
self.x04 = list(response_data)
elif frame_type == 0x05:
self.x05 = list(response_data)
elif frame_type == 0x06:
self.x06 = list(response_data)
elif frame_type == 0xC0:
print(f"Device ID info: {response_data}")
if self.can_id == 0x28:
self.right_hand_info = response_data
elif self.can_id == 0x27:
self.left_hand_info = response_data
elif frame_type == 0x08:
self.x08 = list(response_data)
elif frame_type == 0x09:
self.x09 = list(response_data)
elif frame_type == 0x0A:
self.x0A = list(response_data)
elif frame_type == 0x0B:
self.x0B = list(response_data)
elif frame_type == 0x0C:
self.x0C = list(response_data)
elif frame_type == 0x0D:
self.x0D = list(response_data)
elif frame_type == 0x22:
d = list(response_data)
self.tangential_force_dir = [float(i) for i in d]
elif frame_type == 0x23:
d = list(response_data)
self.approach_inc = [float(i) for i in d]
elif frame_type == 0x41:
self.x41 = list(response_data)
elif frame_type == 0x42:
self.x42 = list(response_data)
elif frame_type == 0x43:
self.x43 = list(response_data)
elif frame_type == 0x44:
self.x44 = list(response_data)
elif frame_type == 0x45:
self.x45 = list(response_data)
elif frame_type == 0x49:
self.x49 = list(response_data)
elif frame_type == 0x4a:
self.x4a = list(response_data)
elif frame_type == 0x4b:
self.x4b = list(response_data)
elif frame_type == 0x4c:
self.x4c = list(response_data)
elif frame_type == 0x4d:
self.x4d = list(response_data)
elif frame_type == 0xc1:
self.xc1 = list(response_data)
elif frame_type == 0x51:
self.x51 = list(response_data)
elif frame_type == 0x52:
self.x52 = list(response_data)
elif frame_type == 0x53:
self.x53 = list(response_data)
elif frame_type == 0x54:
self.x54 = list(response_data)
elif frame_type == 0x55:
self.x55 = list(response_data)
elif frame_type == 0x59:
self.x59 = list(response_data)
elif frame_type == 0x5a:
self.x5a = list(response_data)
elif frame_type == 0x5b:
self.x5b = list(response_data)
elif frame_type == 0x5c:
self.x5c = list(response_data)
elif frame_type == 0x5d:
self.x5d = list(response_data)
elif frame_type == 0x61:
self.x61 = list(response_data)
elif frame_type == 0x62:
self.x62 = list(response_data)
elif frame_type == 0x63:
self.x63 = list(response_data)
elif frame_type == 0x64:
self.x64 = list(response_data)
elif frame_type == 0x65:
self.x65 = list(response_data)
elif frame_type == 0x90:
self.x90 = list(response_data)
elif frame_type == 0x91:
self.x91 = list(response_data)
elif frame_type == 0x92:
self.x92 = list(response_data)
elif frame_type == 0x93:
self.x93 = list(response_data)
elif frame_type == 0xb0:
self.xb0 = list(response_data)
elif frame_type == 0xb1:
d = list(response_data)
if len(d) == 2:
self.xb1 = d
elif len(d) == 7:
index = self.matrix_map.get(d[0])
if index is not None:
self.thumb_matrix[index] = d[1:]
elif frame_type == 0xb2:
d = list(response_data)
if len(d) == 2:
self.xb2 = d
elif len(d) == 7:
index = self.matrix_map.get(d[0])
if index is not None:
self.index_matrix[index] = d[1:]
elif frame_type == 0xb3:
d = list(response_data)
if len(d) == 2:
self.xb3 = d
elif len(d) == 7:
index = self.matrix_map.get(d[0])
if index is not None:
self.middle_matrix[index] = d[1:]
elif frame_type == 0xb4:
d = list(response_data)
if len(d) == 2:
self.xb4 = d
elif len(d) == 7:
index = self.matrix_map.get(d[0])
if index is not None:
self.ring_matrix[index] = d[1:]
elif frame_type == 0xb5:
d = list(response_data)
if len(d) == 2:
self.xb5 = d
elif len(d) == 7:
index = self.matrix_map.get(d[0])
if index is not None:
self.little_matrix[index] = d[1:]
def joint_map(self, pose):
l25_pose = [0.0] * 30
# 映射表,通过字典简化映射关系
mapping = {
0: 10, 1: 5, 2: 0, 3: 15, 4: None, 5: 20,
6: None, 7: 6, 8: 1, 9: 16, 10: None, 11: 21,
12: None, 13: 7, 14: 2, 15: 17, 16: None, 17: 22,
18: None, 19: 8, 20: 3, 21: 18, 22: None, 23: 23,
24: None, 25: 9, 26: 4, 27: 19, 28: None, 29: 24
}
# 遍历映射字典,进行值的映射
for l25_idx, pose_idx in mapping.items():
if pose_idx is not None:
l25_pose[l25_idx] = pose[pose_idx]
return l25_pose
def state_to_cmd(self, l25_state):
pose = [0.0] * 25
mapping = {
0: 10, 1: 5, 2: 0, 3: 15, 5: 20, 7: 6,
8: 1, 9: 16, 11: 21, 13:7, 14: 2, 15: 17, 17: 22,
19: 8, 20: 3, 21: 18, 23: 23, 25: 9, 26: 4,
27: 19, 29: 24
}
# 遍历映射字典,更新pose的值
for l25_idx, pose_idx in mapping.items():
pose[pose_idx] = l25_state[l25_idx]
return pose
def action_play(self):
self.send_command(0xA0,[])
def get_current_status(self, j=''):
self.send_command(FrameProperty.THUMB_POS, j)
#time.sleep(0.001)
self.send_command(FrameProperty.INDEX_POS,j)
#time.sleep(0.001)
self.send_command(FrameProperty.MIDDLE_POS,j)
#time.sleep(0.001)
self.send_command(FrameProperty.RING_POS,j)
#time.sleep(0.001)
self.send_command(FrameProperty.LITTLE_POS, j)
#time.sleep(0.001)
state= self.x41+ self.x42+ self.x43+ self.x44+ self.x45
if len(state) == 30:
l25_state = self.state_to_cmd(l25_state=state)
return l25_state
def get_current_pub_status(self):
state= self.x41+ self.x42+ self.x43+ self.x44+ self.x45
if len(state) == 30:
l25_state = self.state_to_cmd(l25_state=state)
return l25_state
def get_current_state_topic(self):
self.send_command(0x01,[])
#time.sleep(0.001)
self.send_command(0x02,[])
# time.sleep(0.001)
self.send_command(0x03,[])
#time.sleep(0.001)
self.send_command(0x04,[])
#time.sleep(0.001)
self.send_command(0x06,[])
#time.sleep(0.001)
state = self.x03+self.x02+self.x01+self.x04+self.x06
return state
def get_speed(self,j=''):
self.send_command(FrameProperty.THUMB_SPEED, j)
#time.sleep(0.01)
self.send_command(FrameProperty.INDEX_SPEED, j)
#time.sleep(0.01)
self.send_command(FrameProperty.MIDDLE_SPEED, j)
#time.sleep(0.01)
self.send_command(FrameProperty.RING_SPEED, j)
#time.sleep(0.01)
self.send_command(FrameProperty.LITTLE_SPEED, j)
#time.sleep(0.01)
speed = self.x49+ self.x4a+ self.x4b+ self.x4c+ self.x4d
if len(speed) == 30:
l25_speed = self.state_to_cmd(l25_state=speed)
return l25_speed
def get_finger_torque(self):
self.send_command(FrameProperty.THUMB_TORQUE,[])
self.send_command(FrameProperty.INDEX_TORQUE,[])
self.send_command(FrameProperty.MIDDLE_TORQUE,[])
self.send_command(FrameProperty.RING_TORQUE,[])
self.send_command(FrameProperty.LITTLE_TORQUE,[])
return self.x51+self.x52+self.x53+self.x54+self.x55
def get_torque(self):
return self.get_finger_torque()
def get_fault(self):
self.get_thumbn_fault()
#time.sleep(0.001)
self.get_index_fault()
#time.sleep(0.001)
self.get_middle_fault()
#time.sleep(0.001)
self.get_ring_fault()
#time.sleep(0.001)
self.get_little_fault()
#time.sleep(0.001)
return [self.x59]+[self.x5a]+[self.x5b]+[self.x5c]+[self.x5d]
def get_threshold(self):
self.get_thumb_threshold()
self.get_index_threshold()
self.get_middle_threshold()
self.get_ring_threshold()
self.get_little_threshold()
return [self.x61]+[self.x62]+[self.x63]+[self.x64]+[self.x65]
def get_version(self):
if self.xc1 == []:
self.send_command(FrameProperty.HAND_HARDWARE_VERSION,[])
return self.xc1
def get_normal_force(self):
self.send_command(FrameProperty.HAND_NORMAL_FORCE,[])
return self.x90
def get_tangential_force(self):
self.send_command(FrameProperty.HAND_TANGENTIAL_FORCE,[])
return self.x91
def get_tangential_force_dir(self):
self.send_command(FrameProperty.HAND_TANGENTIAL_FORCE_DIR,[])
return self.x92
def get_approach_inc(self):
self.send_command(FrameProperty.HAND_APPROACH_INC,[])
return self.x93
def get_force(self):
'''获取压感数据'''
return [self.x90,self.x91 , self.x92 , self.x93]
def get_matrix_touch(self):
self.send_command(0xb1,[0xc6])
time.sleep(0.03)
self.send_command(0xb2,[0xc6])
time.sleep(0.03)
self.send_command(0xb3,[0xc6])
time.sleep(0.03)
self.send_command(0xb4,[0xc6])
time.sleep(0.03)
self.send_command(0xb5,[0xc6])
time.sleep(0.03)
return self.thumb_matrix , self.index_matrix , self.middle_matrix , self.ring_matrix , self.little_matrix
def get_touch_type(self):
'''Get touch type'''
self.send_command(0xb1,[])
time.sleep(0.03)
if len(self.xb1) == 2:
return 2
else:
return -1
def get_touch(self):
'''Get touch data (not supported yet)'''
return [-1] * 6
def get_current(self):
return [0] * 21
def get_temperature(self):
self.get_thumb_threshold()
self.get_index_threshold()
self.get_middle_threshold()
self.get_ring_threshold()
self.get_little_threshold()
return [self.x61]+[self.x62]+[self.x63]+[self.x64]+[self.x65]
def get_finger_order(self):
return ["Thumb root", "Index root", "Middle root", "Ring root", "Little root",
"Thumb abduction", "Index abduction", "Middle abduction", "Ring abduction", "Little abduction",
"Thumb roll", "Reserved", "Reserved", "Reserved", "Reserved",
"Thumb middle", "Index middle", "Middle middle", "Ring middle", "Little middle",
"Thumb tip", "Index tip", "Middle tip", "Ring tip", "Little tip"]
def close_can_interface(self):
if self.bus:
self.bus.shutdown()
def clear_faults(self, finger_mask=[1, 1, 1, 1, 1]):
"""L25 暂不支持清除故障码"""
pass
'''
这个方法只用于展示数据关系映射,使用的话最好使用上面的方法
'''
def joint_map_2(self, pose):
l25_pose = [0.0]*30 #L25 CAN默认接收30个数据 pose控制L25发送的指令数据默认25个,这里进行映射
'''
需要进行映射
# L25 CAN数据格式
#["拇指横摆0-10", "拇指侧摆1-5", "拇指根部2-0", "拇指中部3-15", "预留4-", "拇指指尖5-20", "预留6-", "食指侧摆7-6", "食指根部8-1", "食指中部9-16", "预留10-", "食指指尖11-21", "预留12-", "预留13-", "中指根部14-2", "中指中部15-17", "预留16-", "中指指尖17-22", "预留18-", "无名指侧摆19-8", "无名指根部20-3", "无名指中部21-18", "预留22-", "无名指指尖23-23", "预留24-", "小指侧摆25-9", "小指根部26-4", "小指中部27-19", "预留28-", "小指指尖29-24"]
# CMD 接收到的数据格式
#["拇指根部0", "食指根部1", "中指根部2", "无名指根部3","小指根部4","拇指侧摆5","食指侧摆6","中指侧摆","无名指侧摆8","小指侧摆9","拇指横摆10","预留","预留","预留","预留","拇指中部15","食指中部16","中指中部17","无名指中部18","小指中部19","拇指指尖20","食指指尖21","中指指尖22","无名指指尖23","小指指尖24"]
'''
l25_pose[0] = pose[10]
l25_pose[1] = pose[5]
l25_pose[2] = pose[0]
l25_pose[3] = pose[15]
l25_pose[4] = 0.0
l25_pose[5] = pose[20]
l25_pose[6] = 0.0
l25_pose[7] = pose[6]
l25_pose[8] = pose[1]
l25_pose[9] = pose[16]
l25_pose[10] = 0.0
l25_pose[11] = pose[21]
l25_pose[12] = 0.0
l25_pose[13] = 0.0
l25_pose[14] = pose[2]
l25_pose[15] = pose[17]
l25_pose[16] = 0.0
l25_pose[17] = pose[22]
l25_pose[18] = 0.0
l25_pose[19] = pose[8]
l25_pose[20] = pose[3]
l25_pose[21] = pose[18]
l25_pose[22] = 0.0
l25_pose[23] = pose[23]
l25_pose[24] = 0.0
l25_pose[25] = pose[9]
l25_pose[26] = pose[4]
l25_pose[27] = pose[19]
l25_pose[28] = 0.0
l25_pose[29] = pose[24]
return l25_pose
def get_serial_number(self):
return [0] * 6
def show_fun_table(self):
pass
@@ -0,0 +1,426 @@
import can
import time, sys
import threading
import numpy as np
from utils.open_can import OpenCan
from utils.color_msg import ColorMsg
from can.exceptions import CanError
class LinkerHandL6Can:
def __init__(self, can_id, can_channel='can0', baudrate=1000000,yaml=""):
self.can_id = can_id
self.can_channel = can_channel
self.baudrate = baudrate
self.open_can = OpenCan(load_yaml=yaml)
self.x01 = [0] * 6 # 关节位置
self.x02 = [-1] * 6 # 转矩限制
self.x05 = [0] * 6 # 速度
self.x07 = [-1] * 6 # 加速度
self.x33 = [0] * 6 # 温度
self.x35 = [0] * 6 # 关节错误码
self.x36 = [-1] * 6 # 电流
self.xb0,self.xb1,self.xb2,self.xb3,self.xb4,self.xb5 = [-1] * 5,[-1] * 5,[-1] * 5,[-1] * 5,[-1] * 5,[-1] * 5
self.thumb_matrix = np.full((12, 6), -1)
self.index_matrix = np.full((12, 6), -1)
self.middle_matrix = np.full((12, 6), -1)
self.ring_matrix = np.full((12, 6), -1)
self.little_matrix = np.full((12, 6), -1)
self.matrix_map = {
0: 0,
16: 1,
32: 2,
48: 3,
64: 4,
80: 5,
96: 6,
112: 7,
128: 8,
144: 9,
160: 10,
176: 11,
}
self.serial_number = []
self.serial_number_map = {
0: 0,
1: 1,
2: 2,
3: 3,
}
# Fault codes
self.joint_angles = [0] * 6
self.pressures = [200] * 6 # Default torque 200
self.bus = self.init_can_bus(can_channel, baudrate)
self.normal_force, self.tangential_force, self.tangential_force_dir, self.approach_inc = [[-1] * 6 for _ in range(4)]
self.is_lock = False
self.version = None
# Start the receiving thread
self.running = True
self.receive_thread = threading.Thread(target=self.receive_response)
self.receive_thread.daemon = True
self.receive_thread.start()
def init_can_bus(self, channel, baudrate):
"""
尝试按优先级连接 CAN 总线,并实现回退机制。
"""
# --- 统一异常处理块开始 ---
try:
if sys.platform == "linux":
# Linux 优先级:1. socketcan
try:
self.open_can.open_can(self.can_channel)
# 尝试 socketcan
bus = can.interface.Bus(channel=channel, interface="socketcan", bitrate=baudrate)
ColorMsg(msg=f"成功连接: interface='socketcan', channel='{channel}'", color="green")
return bus
except CanError as e:
# 如果 socketcan 失败,可以考虑在这里尝试其他 Linux 接口 (如 'pcan')
ColorMsg(msg=f"socketcan 接口连接失败: {e}", color="yellow")
raise # 重新抛出异常,让外层 try 捕获
elif sys.platform == "win32":
# Windows 优先级:1. pcan
try:
bus = can.interface.Bus(channel=channel, interface='pcan', bitrate=baudrate)
ColorMsg(msg=f"成功连接: interface='pcan', channel='{channel}'", color="green")
return bus
except CanError as e:
ColorMsg(msg=f"pcan 接口连接失败,尝试回退到 'candle': {e}", color="yellow")
# Windows 优先级:2. candle (回退方法)
try:
bus = can.Bus(interface="candle", channel=channel, bitrate=baudrate)
ColorMsg(msg=f"成功连接: interface='candle', channel='{channel}'", color="green")
return bus
except CanError as e:
ColorMsg(msg=f"candle 接口连接失败: {e}", color="yellow")
raise # 两个接口都失败,抛出异常
else:
raise EnvironmentError("Unsupported platform for CAN interface")
# --- 统一异常处理块结束 ---
except Exception as e:
# 如果任何一个接口尝试失败并抛出异常(包括 EnvironmentError)
ColorMsg(msg=f"致命错误:所有 CAN 接口连接尝试均失败或平台不受支持。请检查设备连接或驱动安装和配置文件中CAN参数的配置。\n错误详情: {e}", color="red")
# 保持 raise 动作,将错误信息传递给调用者,避免程序继续运行
raise
def send_frame(self, frame_property, data_list,sleep=0.003):
"""Send a single CAN frame with specified properties and data."""
frame_property_value = int(frame_property.value) if hasattr(frame_property, 'value') else frame_property
data = [frame_property_value] + [int(val) for val in data_list]
msg = can.Message(arbitration_id=self.can_id, data=data, is_extended_id=False)
try:
self.bus.send(msg)
except can.CanError as e:
print(f"Failed to send message: {e}")
self.open_can.open_can(self.can_channel)
time.sleep(1)
self.is_can = self.open_can.is_can_up_sysfs(interface=self.can_channel)
time.sleep(1)
if self.is_can:
self.bus = can.interface.Bus(channel=self.can_channel, interface="socketcan", bitrate=self.baudrate)
else:
print("Reconnecting CAN devices ....")
time.sleep(sleep)
def set_joint_positions(self, joint_angles):
"""Set the positions of 10 joints (joint_angles: list of 10 values)."""
if len(joint_angles) > 6:
self.joint_angles = joint_angles[:6]
else:
self.joint_angles = joint_angles
# Send angle control in frames
self.send_frame(0x01, self.joint_angles, sleep=0.003)
def set_max_torque_limits(self, pressures, type="get"):
"""Set maximum torque limits."""
if type == "get":
self.pressures = [0.0]
else:
self.pressures = pressures[:6]
def set_torque(self, torque=[180] * 6):
"""Set L6 maximum torque limits."""
if len(torque) != 6:
raise ValueError("Torque list must have 6 elements.")
return
self.send_frame(0x02, torque)
def set_speed(self, speed=[180] * 6):
"""Set L6 speed."""
if len(speed) != 6:
raise ValueError("Speed list must have 6 elements.")
return
self.x05 = speed
for i in range(2):
time.sleep(0.001)
self.send_frame(0x05, speed)
''' -------------------Pressure Sensors---------------------- '''
def get_normal_force(self):
self.send_frame(0x20, [],sleep=0.01)
def get_tangential_force(self):
self.send_frame(0x21, [],sleep=0.01)
def get_tangential_force_dir(self):
self.send_frame(0x22, [],sleep=0.01)
def get_approach_inc(self):
self.send_frame(0x23, [],sleep=0.01)
''' -------------------Motor Temperature---------------------- '''
def get_motor_temperature(self):
self.send_frame(0x33, [])
# Motor fault codes
def get_motor_fault_code(self):
self.send_frame(0x35, [])
def receive_response(self):
"""Receive CAN responses and process them."""
while self.running:
try:
msg = self.bus.recv(timeout=1.0)
if msg:
self.process_response(msg)
except can.CanError as e:
print(f"Error receiving CAN message: {e}")
def process_response(self, msg):
"""Process received CAN messages."""
#if msg.arbitration_id == self.can_id:
if msg.arbitration_id in (self.can_id, self.can_id + 8):
try:
frame_type = msg.data[0]
response_data = msg.data[1:]
if len(list(response_data)) == 0:
return
except:
return
if frame_type == 0x01: # 0x01
self.x01 = list(response_data)
elif frame_type == 0x02: # 0x02
self.x02 = list(response_data)
elif frame_type == 0x05: # Set speed
self.x05 = list(response_data)
elif frame_type == 0x20:
d = list(response_data)
self.normal_force = [float(i) for i in d]
elif frame_type == 0x21:
d = list(response_data)
self.tangential_force = [float(i) for i in d]
elif frame_type == 0x22:
d = list(response_data)
self.tangential_force_dir = [float(i) for i in d]
elif frame_type == 0x23:
d = list(response_data)
self.approach_inc = [float(i) for i in d]
elif frame_type == 0x33: # L6 temperature
self.x33 = list(response_data)
elif frame_type == 0x35: # L6 fault codes
self.x35 = list(response_data)
elif frame_type == 0x36: # L6 电流
self.x36 = list(response_data)
elif frame_type == 0xb0:
self.xb0 = list(response_data)
elif frame_type == 0xb1:
d = list(response_data)
if len(d) == 2:
self.xb1 = d
elif len(d) == 7:
index = self.matrix_map.get(d[0])
if index is not None:
self.thumb_matrix[index] = d[1:] # Remove the first flag bit
elif frame_type == 0xb2:
d = list(response_data)
if len(d) == 2:
self.xb2 = d
elif len(d) == 7:
index = self.matrix_map.get(d[0])
if index is not None:
self.index_matrix[index] = d[1:] # Remove the first flag bit
elif frame_type == 0xb3:
d = list(response_data)
if len(d) == 2:
self.xb3 = d
elif len(d) == 7:
index = self.matrix_map.get(d[0])
if index is not None:
self.middle_matrix[index] = d[1:] # Remove the first flag bit
elif frame_type == 0xb4:
d = list(response_data)
if len(d) == 2:
self.xb4 = d
elif len(d) == 7:
index = self.matrix_map.get(d[0])
if index is not None:
self.ring_matrix[index] = d[1:] # Remove the first flag bit
elif frame_type == 0xb5:
d = list(response_data)
if len(d) == 2:
self.xb5 = d
elif len(d) == 7:
index = self.matrix_map.get(d[0])
if index is not None:
self.little_matrix[index] = d[1:] # Remove the first flag bit
elif frame_type == 0x64: # L6 version number
self.version = list(response_data)
elif frame_type == 0xC2: # L6 version number
self.version = list(response_data)
elif frame_type == 0xC0:
d = list(response_data)
index = self.serial_number_map.get(d[0])
if index is not None:
self.serial_number=self.serial_number + d[1:]
else:
self.serial_number=self.serial_number + [-1] * 6
def get_version(self):
self.send_frame(0x64, [],sleep=0.1)
time.sleep(0.1)
if self.version is None:
self.send_frame(0xC2, [],sleep=0.1)
time.sleep(0.1)
return self.version
def get_current_status(self):
self.send_frame(0x01, [],sleep=0.005)
return self.x01
def get_current_pub_status(self):
return self.x01
def get_speed(self):
#self.send_frame(0x05, [],sleep=0.003)
#print("L6暂不支持读取实时速度")
return [0] * 6
def get_current(self):
'''Not supported yet.'''
self.send_frame(0x36, [],sleep=0.005)
return self.x36
def get_torque(self):
'''Not supported yet.'''
self.send_frame(0x2, [],sleep=0.01)
return self.x02
def get_touch_type(self):
'''Get touch type'''
self.send_frame(0xb1,[])
t = []
for i in range(3):
t = self.xb1
time.sleep(0.01)
if len(t) == 2:
return 2
else:
self.send_frame(0x20,[],sleep=0.03)
time.sleep(0.01)
if self.normal_force[0] == -1:
return -1
else:
return 1
def get_touch(self):
'''Get touch data'''
self.send_frame(0xb1,[],sleep=0.03)
self.send_frame(0xb2,[],sleep=0.03)
self.send_frame(0xb3,[],sleep=0.03)
self.send_frame(0xb4,[],sleep=0.03)
self.send_frame(0xb5,[],sleep=0.03)
return [self.xb1[1],self.xb2[1],self.xb3[1],self.xb4[1],self.xb5[1],0] # The last digit is palm, currently not available
def get_matrix_touch(self):
self.send_frame(0xb1,[0xc6],sleep=0.01)
self.send_frame(0xb2,[0xc6],sleep=0.01)
self.send_frame(0xb3,[0xc6],sleep=0.01)
self.send_frame(0xb4,[0xc6],sleep=0.01)
self.send_frame(0xb5,[0xc6],sleep=0.01)
return self.thumb_matrix , self.index_matrix , self.middle_matrix , self.ring_matrix , self.little_matrix
def get_matrix_touch_v2(self):
self.send_frame(0xb1,[0xc6],sleep=0.009)
self.send_frame(0xb2,[0xc6],sleep=0.009)
self.send_frame(0xb3,[0xc6],sleep=0.009)
self.send_frame(0xb4,[0xc6],sleep=0.009)
self.send_frame(0xb5,[0xc6],sleep=0.009)
return self.thumb_matrix , self.index_matrix , self.middle_matrix , self.ring_matrix , self.little_matrix
def get_thumb_matrix_touch(self,sleep_time=0.005):
self.send_frame(0xb1,[0xc6],sleep=sleep_time)
return self.thumb_matrix
def get_index_matrix_touch(self,sleep_time=0.005):
self.send_frame(0xb2,[0xc6],sleep=sleep_time)
return self.index_matrix
def get_middle_matrix_touch(self,sleep_time=0.005):
self.send_frame(0xb3,[0xc6],sleep=sleep_time)
return self.middle_matrix
def get_ring_matrix_touch(self,sleep_time=0.005):
self.send_frame(0xb4,[0xc6],sleep=sleep_time)
return self.ring_matrix
def get_little_matrix_touch(self,sleep_time=0.005):
self.send_frame(0xb5,[0xc6],sleep=sleep_time)
return self.little_matrix
def get_force(self):
'''Get pressure.'''
return [self.normal_force, self.tangential_force, self.tangential_force_dir, self.approach_inc]
def get_temperature(self):
'''Get temperature.'''
self.get_motor_temperature()
return self.x33
def get_fault(self):
'''Get faults.'''
self.get_motor_fault_code()
return self.x35
def get_finger_order(self):
return ["thumb_cmc_pitch", "thumb_cmc_yaw", "index_mcp_pitch", "middle_mcp_pitch", "ring_mcp_pitch", "pinky_mcp_pitch"]
def show_fun_table(self):
pass
def clear_faults(self, finger_mask=[1, 1, 1, 1, 1]):
"""O6 暂不支持清除故障码"""
pass
def get_serial_number(self):
try:
self.send_frame(0xC0,[],sleep=0.005)
# 1. 使用 bytes() 函数将整数列表转换为字节对象
# bytes() 接收一个由 0-255 之间的整数组成的列表。
byte_data = bytes(self.serial_number)
# 2. 使用 .decode() 方法将字节对象解码为 ASCII 字符串
result_string = byte_data.decode('ascii')
if result_string == "":
return "-1"
else:
# print(f"原始 ASCII 码列表: {self.serial_number}")
# print(f"解码后的字符串: {result_string}")
return result_string
except:
return "-1"
def close_can_interface(self):
"""Stop the CAN communication."""
self.running = False
if self.receive_thread.is_alive():
self.receive_thread.join()
if self.bus:
self.bus.shutdown()
@@ -0,0 +1,419 @@
import can
import time, sys
import threading
import numpy as np
from utils.open_can import OpenCan
from utils.color_msg import ColorMsg
from can.exceptions import CanError
class LinkerHandL7Can:
def __init__(self, can_id, can_channel='can0', baudrate=1000000,yaml=""):
self.can_id = can_id
self.can_channel = can_channel
self.baudrate = baudrate
self.open_can = OpenCan(load_yaml=yaml)
self.x01 = [0] * 7
self.x02 = [-1] * 7
self.x05 = [0] * 7
self.x33 = [0] * 7
self.xb0,self.xb1,self.xb2,self.xb3,self.xb4,self.xb5 = [-1] * 5,[-1] * 5,[-1] * 5,[-1] * 5,[-1] * 5,[-1] * 5
self.thumb_matrix = np.full((12, 6), -1)
self.index_matrix = np.full((12, 6), -1)
self.middle_matrix = np.full((12, 6), -1)
self.ring_matrix = np.full((12, 6), -1)
self.little_matrix = np.full((12, 6), -1)
self.matrix_map = {
0: 0,
16: 1,
32: 2,
48: 3,
64: 4,
80: 5,
96: 6,
112: 7,
128: 8,
144: 9,
160: 10,
176: 11,
}
self.serial_number = []
self.serial_number_map = {
0: 0,
1: 1,
2: 2,
3: 3,
}
# Fault codes
self.x35 = [0] * 7, [0] * 7
self.joint_angles = [0] * 10
self.pressures = [200] * 7 # Default torque 200
self.bus = self.init_can_bus(can_channel, baudrate)
self.normal_force, self.tangential_force, self.tangential_force_dir, self.approach_inc = [[-1] * 7 for _ in range(4)]
self.is_lock = False
self.version = None
# Start the receiving thread
self.running = True
self.receive_thread = threading.Thread(target=self.receive_response)
self.receive_thread.daemon = True
self.receive_thread.start()
def init_can_bus(self, channel, baudrate):
"""
尝试按优先级连接 CAN 总线,并实现回退机制。
"""
# --- 统一异常处理块开始 ---
try:
if sys.platform == "linux":
# Linux 优先级:1. socketcan
try:
self.open_can.open_can(self.can_channel)
# 尝试 socketcan
bus = can.interface.Bus(channel=channel, interface="socketcan", bitrate=baudrate)
ColorMsg(msg=f"成功连接: interface='socketcan', channel='{channel}'", color="green")
return bus
except CanError as e:
# 如果 socketcan 失败,可以考虑在这里尝试其他 Linux 接口 (如 'pcan')
ColorMsg(msg=f"socketcan 接口连接失败: {e}", color="yellow")
raise # 重新抛出异常,让外层 try 捕获
elif sys.platform == "win32":
# Windows 优先级:1. pcan
try:
bus = can.interface.Bus(channel=channel, interface='pcan', bitrate=baudrate)
ColorMsg(msg=f"成功连接: interface='pcan', channel='{channel}'", color="green")
return bus
except CanError as e:
ColorMsg(msg=f"pcan 接口连接失败,尝试回退到 'candle': {e}", color="yellow")
# Windows 优先级:2. candle (回退方法)
try:
bus = can.Bus(interface="candle", channel=channel, bitrate=baudrate)
ColorMsg(msg=f"成功连接: interface='candle', channel='{channel}'", color="green")
return bus
except CanError as e:
ColorMsg(msg=f"candle 接口连接失败: {e}", color="yellow")
raise # 两个接口都失败,抛出异常
else:
raise EnvironmentError("Unsupported platform for CAN interface")
# --- 统一异常处理块结束 ---
except Exception as e:
# 如果任何一个接口尝试失败并抛出异常(包括 EnvironmentError)
ColorMsg(msg=f"致命错误:所有 CAN 接口连接尝试均失败或平台不受支持。请检查设备连接或驱动安装和配置文件中CAN参数的配置。\n错误详情: {e}", color="red")
# 保持 raise 动作,将错误信息传递给调用者,避免程序继续运行
raise
def send_frame(self, frame_property, data_list,sleep=0.005):
"""Send a single CAN frame with specified properties and data."""
frame_property_value = int(frame_property.value) if hasattr(frame_property, 'value') else frame_property
data = [frame_property_value] + [int(val) for val in data_list]
msg = can.Message(arbitration_id=self.can_id, data=data, is_extended_id=False)
try:
self.bus.send(msg)
except can.CanError as e:
print(f"Failed to send message: {e}")
self.open_can.open_can(self.can_channel)
time.sleep(1)
self.is_can = self.open_can.is_can_up_sysfs(interface=self.can_channel)
time.sleep(1)
if self.is_can:
self.bus = can.interface.Bus(channel=self.can_channel, interface="socketcan", bitrate=self.baudrate)
else:
print("Reconnecting CAN devices ....")
time.sleep(sleep)
def set_joint_positions(self, joint_angles):
"""Set the positions of 10 joints (joint_angles: list of 10 values)."""
self.is_lock = True
if len(joint_angles) > 7:
self.joint_angles = joint_angles[:7]
else:
self.joint_angles = joint_angles
# Send angle control in frames
self.send_frame(0x01, self.joint_angles, sleep=0.003)
self.is_lock = False
def set_max_torque_limits(self, pressures, type="get"):
"""Set maximum torque limits."""
if type == "get":
self.pressures = [0.0]
else:
self.pressures = pressures[:7]
def set_torque(self, torque=[180] * 7):
"""Set L7 maximum torque limits."""
if len(torque) != 7:
raise ValueError("Torque list must have 7 elements.")
return
self.send_frame(0x02, torque)
def set_speed(self, speed=[180] * 7):
"""Set L7 speed."""
if len(speed) != 7:
raise ValueError("Speed list must have 7 elements.")
return
self.x05 = speed
for i in range(2):
time.sleep(0.001)
self.send_frame(0x05, speed)
''' -------------------Pressure Sensors---------------------- '''
def get_normal_force(self):
self.send_frame(0x20, [],sleep=0.004)
def get_tangential_force(self):
self.send_frame(0x21, [],sleep=0.004)
def get_tangential_force_dir(self):
self.send_frame(0x22, [],sleep=0.004)
def get_approach_inc(self):
self.send_frame(0x23, [],sleep=0.004)
''' -------------------Motor Temperature---------------------- '''
def get_motor_temperature(self):
self.send_frame(0x33, [])
# Motor fault codes
def get_motor_fault_code(self):
self.send_frame(0x35, [])
def receive_response(self):
"""Receive CAN responses and process them."""
while self.running:
try:
msg = self.bus.recv(timeout=1.0)
if msg:
self.process_response(msg)
except can.CanError as e:
print(f"Error receiving CAN message: {e}")
def process_response(self, msg):
"""Process received CAN messages."""
if msg.arbitration_id == self.can_id:
frame_type = msg.data[0]
response_data = msg.data[1:]
if len(list(response_data)) == 0:
return
if frame_type == 0x01: # 0x01
self.x01 = list(response_data)
elif frame_type == 0x02: # 0x02
self.x02 = list(response_data)
elif frame_type == 0x05: # Set speed
self.x05 = list(response_data)
elif frame_type == 0x20:
d = list(response_data)
self.normal_force = [float(i) for i in d]
elif frame_type == 0x21:
d = list(response_data)
self.tangential_force = [float(i) for i in d]
elif frame_type == 0x22:
d = list(response_data)
self.tangential_force_dir = [float(i) for i in d]
elif frame_type == 0x23:
d = list(response_data)
self.approach_inc = [float(i) for i in d]
elif frame_type == 0x33: # L7 temperature
self.x33 = list(response_data)
elif frame_type == 0x35: # L7 fault codes
self.x35 = list(response_data)
elif frame_type == 0xb0:
self.xb0 = list(response_data)
elif frame_type == 0xb1:
d = list(response_data)
if len(d) == 2:
self.xb1 = d
elif len(d) == 7:
index = self.matrix_map.get(d[0])
if index is not None:
self.thumb_matrix[index] = d[1:] # Remove the first flag bit
elif frame_type == 0xb2:
d = list(response_data)
if len(d) == 2:
self.xb2 = d
elif len(d) == 7:
index = self.matrix_map.get(d[0])
if index is not None:
self.index_matrix[index] = d[1:] # Remove the first flag bit
elif frame_type == 0xb3:
d = list(response_data)
if len(d) == 2:
self.xb3 = d
elif len(d) == 7:
index = self.matrix_map.get(d[0])
if index is not None:
self.middle_matrix[index] = d[1:] # Remove the first flag bit
elif frame_type == 0xb4:
d = list(response_data)
if len(d) == 2:
self.xb4 = d
elif len(d) == 7:
index = self.matrix_map.get(d[0])
if index is not None:
self.ring_matrix[index] = d[1:] # Remove the first flag bit
elif frame_type == 0xb5:
d = list(response_data)
if len(d) == 2:
self.xb5 = d
elif len(d) == 7:
index = self.matrix_map.get(d[0])
if index is not None:
self.little_matrix[index] = d[1:] # Remove the first flag bit
elif frame_type == 0x64: # L7 version number
self.version = list(response_data)
elif frame_type == 0xC2: # O6 version number
self.version = list(response_data)
elif frame_type == 0xC0:
d = list(response_data)
index = self.serial_number_map.get(d[0])
if index is not None:
self.serial_number=self.serial_number + d[1:]
else:
self.serial_number=self.serial_number + [-1] * 6
def get_version(self):
self.send_frame(0x64, [], sleep=0.1)
time.sleep(0.1)
if self.version is None:
self.send_frame(0xC2, [], sleep=0.1)
time.sleep(0.1)
return self.version
def get_current_status(self):
if self.is_lock:
return self.x01
elif self.is_lock == False:
self.send_frame(0x01, [],sleep=0.003)
return self.x01
def get_current_pub_status(self):
return self.x01
def get_speed(self):
self.send_frame(0x05, [],sleep=0.003)
return self.x05
def get_current(self):
'''Not supported yet.'''
self.send_frame(0x2, [],sleep=0.1)
return self.x02
def get_torque(self):
'''Not supported yet.'''
self.send_frame(0x2, [],sleep=0.01)
return self.x02
def get_touch_type(self):
'''Get touch type'''
self.send_frame(0xb1,[])
t = []
for i in range(3):
t = self.xb1
time.sleep(0.01)
if len(t) == 2:
return 2
else:
self.send_frame(0x20,[],sleep=0.03)
time.sleep(0.01)
if self.normal_force[0] == -1:
return -1
else:
return 1
def get_touch(self):
'''Get touch data'''
self.send_frame(0xb1,[],sleep=0.03)
self.send_frame(0xb2,[],sleep=0.03)
self.send_frame(0xb3,[],sleep=0.03)
self.send_frame(0xb4,[],sleep=0.03)
self.send_frame(0xb5,[],sleep=0.03)
return [self.xb1[1],self.xb2[1],self.xb3[1],self.xb4[1],self.xb5[1],0] # The last digit is palm, currently not available
def get_matrix_touch(self):
self.send_frame(0xb1,[0xc6],sleep=0.01)
self.send_frame(0xb2,[0xc6],sleep=0.01)
self.send_frame(0xb3,[0xc6],sleep=0.01)
self.send_frame(0xb4,[0xc6],sleep=0.01)
self.send_frame(0xb5,[0xc6],sleep=0.01)
return self.thumb_matrix , self.index_matrix , self.middle_matrix , self.ring_matrix , self.little_matrix
def get_matrix_touch_v2(self):
self.send_frame(0xb1,[0xc6],sleep=0.005)
self.send_frame(0xb2,[0xc6],sleep=0.005)
self.send_frame(0xb3,[0xc6],sleep=0.005)
self.send_frame(0xb4,[0xc6],sleep=0.005)
self.send_frame(0xb5,[0xc6],sleep=0.005)
return self.thumb_matrix , self.index_matrix , self.middle_matrix , self.ring_matrix , self.little_matrix
def get_thumb_matrix_touch(self,sleep_time=0.005):
self.send_frame(0xb1,[0xc6],sleep=sleep_time)
return self.thumb_matrix
def get_index_matrix_touch(self,sleep_time=0.005):
self.send_frame(0xb2,[0xc6],sleep=sleep_time)
return self.index_matrix
def get_middle_matrix_touch(self,sleep_time=0.005):
self.send_frame(0xb3,[0xc6],sleep=sleep_time)
return self.middle_matrix
def get_ring_matrix_touch(self,sleep_time=0.005):
self.send_frame(0xb4,[0xc6],sleep=sleep_time)
return self.ring_matrix
def get_little_matrix_touch(self,sleep_time=0.005):
self.send_frame(0xb5,[0xc6],sleep=sleep_time)
return self.little_matrix
def get_force(self):
'''Get pressure.'''
return [self.normal_force, self.tangential_force, self.tangential_force_dir, self.approach_inc]
def get_temperature(self):
'''Get temperature.'''
self.get_motor_temperature()
return self.x33
def get_fault(self):
'''Get faults.'''
self.get_motor_fault_code()
return self.x35
def get_serial_number(self):
try:
self.send_frame(0xC0,[],sleep=0.005)
# 1. 使用 bytes() 函数将整数列表转换为字节对象
# bytes() 接收一个由 0-255 之间的整数组成的列表。
byte_data = bytes(self.serial_number)
# 2. 使用 .decode() 方法将字节对象解码为 ASCII 字符串
result_string = byte_data.decode('ascii')
if result_string == "":
return "-1"
else:
# print(f"原始 ASCII 码列表: {self.serial_number}")
# print(f"解码后的字符串: {result_string}")
return result_string
except:
return "-1"
def get_finger_order(self):
return ["thumb_cmc_pitch", "thumb_cmc_yaw", "index_mcp_pitch", "middle_mcp_pitch", "ring_mcp_pitch", "pinky_mcp_pitch", "thumb_cmc_roll"]
def show_fun_table(self):
pass
def clear_faults(self, finger_mask=[1, 1, 1, 1, 1]):
"""L7 暂不支持清除故障码"""
pass
def close_can_interface(self):
"""Stop the CAN communication."""
self.running = False
if self.receive_thread.is_alive():
self.receive_thread.join()
if self.bus:
self.bus.shutdown()
@@ -0,0 +1,447 @@
import can
import time, sys
import threading
import numpy as np
from utils.open_can import OpenCan
from utils.color_msg import ColorMsg
from can.exceptions import CanError
class LinkerHandO6Can:
def __init__(self, can_id, can_channel='can0', baudrate=1000000,yaml=""):
self.can_id = can_id
self.can_channel = can_channel
self.baudrate = baudrate
self.open_can = OpenCan(load_yaml=yaml)
self.x01 = [0] * 6 # 关节位置
self.x02 = [-1] * 6 # 转矩限制
self.x05 = [0] * 6 # 速度
self.x07 = [-1] * 6 # 加速度
self.x33 = [0] * 6 # 温度
self.x35 = [0] * 6 # 关节错误码
self.x36 = [-1] * 6 # 电流
self.xb0,self.xb1,self.xb2,self.xb3,self.xb4,self.xb5 = [-1] * 5,[-1] * 5,[-1] * 5,[-1] * 5,[-1] * 5,[-1] * 5
self.thumb_matrix = np.full((10, 4), -1)
self.index_matrix = np.full((10, 4), -1)
self.middle_matrix = np.full((10, 4), -1)
self.ring_matrix = np.full((10, 4), -1)
self.little_matrix = np.full((10, 4), -1)
self.matrix_map = {
0: 0,
16: 1,
32: 2,
48: 3,
64: 4,
80: 5,
96: 6,
112: 7,
128: 8,
144: 9,
160: 10,
176: 11,
}
self.serial_number = []
self.serial_number_map = {
0: 0,
1: 1,
2: 2,
3: 3,
}
# Fault codes
self.joint_angles = [0] * 6
self.pressures = [200] * 6 # Default torque 200
self.bus = self.init_can_bus(can_channel, baudrate)
self.normal_force, self.tangential_force, self.tangential_force_dir, self.approach_inc = [[-1] * 6 for _ in range(4)]
self.is_lock = False
self.version = None
# Start the receiving thread
self.running = True
self.receive_thread = threading.Thread(target=self.receive_response)
self.receive_thread.daemon = True
self.receive_thread.start()
time.sleep(0.1)
self._check_touch_type()
def _check_touch_type(self):
'''根据SN编码判断压感类型'''
self.sn = self.get_serial_number()
time.sleep(0.1)
if self.sn != "-1":
parts = self.sn.split("-")
if parts[4] == "A":
self.touch_type = 1
elif parts[4] == "B":
self.touch_type = 2
self.touch_code = 0xA4 # 6*12 O6 一律0XA4
elif parts[4] == "J":
self.touch_type = 3
elif parts[4] == "F":
self.touch_type = 4
self.touch_code = 0xA4 # 4*10
elif parts[4] == "Z":
self.touch_type = -1
else:
# 如果没有SN编码则根据返回数据进行判断
self.touch_type = self.get_touch_type()
def init_can_bus(self, channel, baudrate):
"""
尝试按优先级连接 CAN 总线,并实现回退机制。
"""
# --- 统一异常处理块开始 ---
try:
if sys.platform == "linux":
# Linux 优先级:1. socketcan
try:
self.open_can.open_can(self.can_channel)
# 尝试 socketcan
bus = can.interface.Bus(channel=channel, interface="socketcan", bitrate=baudrate)
ColorMsg(msg=f"成功连接: interface='socketcan', channel='{channel}'", color="green")
return bus
except CanError as e:
# 如果 socketcan 失败,可以考虑在这里尝试其他 Linux 接口 (如 'pcan')
ColorMsg(msg=f"socketcan 接口连接失败: {e}", color="yellow")
raise # 重新抛出异常,让外层 try 捕获
elif sys.platform == "win32":
# Windows 优先级:1. pcan
try:
bus = can.interface.Bus(channel=channel, interface='pcan', bitrate=baudrate)
ColorMsg(msg=f"成功连接: interface='pcan', channel='{channel}'", color="green")
return bus
except CanError as e:
ColorMsg(msg=f"pcan 接口连接失败,尝试回退到 'candle': {e}", color="yellow")
# Windows 优先级:2. candle (回退方法)
try:
bus = can.Bus(interface="candle", channel=channel, bitrate=baudrate)
ColorMsg(msg=f"成功连接: interface='candle', channel='{channel}'", color="green")
return bus
except CanError as e:
ColorMsg(msg=f"candle 接口连接失败: {e}", color="yellow")
raise # 两个接口都失败,抛出异常
else:
raise EnvironmentError("Unsupported platform for CAN interface")
# --- 统一异常处理块结束 ---
except Exception as e:
# 如果任何一个接口尝试失败并抛出异常(包括 EnvironmentError)
ColorMsg(msg=f"致命错误:所有 CAN 接口连接尝试均失败或平台不受支持。请检查设备连接或驱动安装和配置文件中CAN参数的配置。\n错误详情: {e}", color="red")
# 保持 raise 动作,将错误信息传递给调用者,避免程序继续运行
raise
def send_frame(self, frame_property, data_list,sleep=0.005):
"""Send a single CAN frame with specified properties and data."""
frame_property_value = int(frame_property.value) if hasattr(frame_property, 'value') else frame_property
data = [frame_property_value] + [int(val) for val in data_list]
msg = can.Message(arbitration_id=self.can_id, data=data, is_extended_id=False)
try:
self.bus.send(msg)
except can.CanError as e:
print(f"Failed to send message: {e}")
self.open_can.open_can(self.can_channel)
time.sleep(1)
self.is_can = self.open_can.is_can_up_sysfs(interface=self.can_channel)
time.sleep(1)
if self.is_can:
self.bus = can.interface.Bus(channel=self.can_channel, interface="socketcan", bitrate=self.baudrate)
else:
print("Reconnecting CAN devices ....")
time.sleep(sleep)
def set_joint_positions(self, joint_angles):
"""Set the positions of 10 joints (joint_angles: list of 10 values)."""
if len(joint_angles) > 6:
self.joint_angles = joint_angles[:6]
else:
self.joint_angles = joint_angles
# Send angle control in frames
self.send_frame(0x01, self.joint_angles, sleep=0.003)
def set_max_torque_limits(self, pressures, type="get"):
"""Set maximum torque limits."""
if type == "get":
self.pressures = [0.0]
else:
self.pressures = pressures[:6]
def set_torque(self, torque=[180] * 6):
"""Set L6 maximum torque limits."""
if len(torque) != 6:
raise ValueError("Torque list must have 6 elements.")
return
self.send_frame(0x02, torque)
def set_speed(self, speed=[180] * 6):
"""Set L6 speed."""
if len(speed) != 6:
raise ValueError("Speed list must have 6 elements.")
return
self.x05 = speed
for i in range(2):
time.sleep(0.001)
self.send_frame(0x05, speed)
''' -------------------Pressure Sensors---------------------- '''
def get_normal_force(self):
self.send_frame(0x20, [],sleep=0.01)
def get_tangential_force(self):
self.send_frame(0x21, [],sleep=0.01)
def get_tangential_force_dir(self):
self.send_frame(0x22, [],sleep=0.01)
def get_approach_inc(self):
self.send_frame(0x23, [],sleep=0.01)
''' -------------------Motor Temperature---------------------- '''
def get_motor_temperature(self):
self.send_frame(0x33, [])
# Motor fault codes
def get_motor_fault_code(self):
self.send_frame(0x35, [])
def receive_response(self):
"""Receive CAN responses and process them."""
while self.running:
try:
msg = self.bus.recv(timeout=1.0)
if msg:
self.process_response(msg)
except can.CanError as e:
print(f"Error receiving CAN message: {e}")
def process_response(self, msg):
"""Process received CAN messages."""
if msg.arbitration_id == self.can_id:
frame_type = msg.data[0]
response_data = msg.data[1:]
if len(list(response_data)) == 0:
return
if frame_type == 0x01: # 0x01
self.x01 = list(response_data)
elif frame_type == 0x02: # 0x02
self.x02 = list(response_data)
elif frame_type == 0x05: # Set speed
self.x05 = list(response_data)
elif frame_type == 0x20:
d = list(response_data)
self.normal_force = [float(i) for i in d]
elif frame_type == 0x21:
d = list(response_data)
self.tangential_force = [float(i) for i in d]
elif frame_type == 0x22:
d = list(response_data)
self.tangential_force_dir = [float(i) for i in d]
elif frame_type == 0x23:
d = list(response_data)
self.approach_inc = [float(i) for i in d]
elif frame_type == 0x33: # O6 temperature
self.x33 = list(response_data)
elif frame_type == 0x35: # O6 fault codes
self.x35 = list(response_data)
elif frame_type == 0x36: # O6 电流
self.x36 = list(response_data)
elif frame_type == 0xb0:
self.xb0 = list(response_data)
elif frame_type == 0xb1:
d = list(response_data)
if len(d) == 2:
self.xb1 = d
elif len(d) == 5:
index = self.matrix_map.get(d[0])
if index is not None:
self.thumb_matrix[index] = d[1:] # Remove the first flag bit
elif frame_type == 0xb2:
d = list(response_data)
if len(d) == 2:
self.xb2 = d
elif len(d) == 5:
index = self.matrix_map.get(d[0])
if index is not None:
self.index_matrix[index] = d[1:] # Remove the first flag bit
elif frame_type == 0xb3:
d = list(response_data)
if len(d) == 2:
self.xb3 = d
elif len(d) == 5:
index = self.matrix_map.get(d[0])
if index is not None:
self.middle_matrix[index] = d[1:] # Remove the first flag bit
elif frame_type == 0xb4:
d = list(response_data)
if len(d) == 2:
self.xb4 = d
elif len(d) == 5:
index = self.matrix_map.get(d[0])
if index is not None:
self.ring_matrix[index] = d[1:] # Remove the first flag bit
elif frame_type == 0xb5:
d = list(response_data)
if len(d) == 2:
self.xb5 = d
elif len(d) == 5:
index = self.matrix_map.get(d[0])
if index is not None:
self.little_matrix[index] = d[1:] # Remove the first flag bit
elif frame_type == 0x64: # O6 version number
self.version = list(response_data)
elif frame_type == 0xC2: # O6 version number
self.version = list(response_data)
elif frame_type == 0xC0:
d = list(response_data)
index = self.serial_number_map.get(d[0])
if index is not None:
self.serial_number += d[1:]
else:
self.serial_number=self.serial_number + [-1] * 6
def get_version(self):
self.send_frame(0x64, [],sleep=0.1)
time.sleep(0.1)
if self.version is None:
self.send_frame(0xC2, [],sleep=0.1)
time.sleep(0.1)
return self.version
def get_current_status(self):
self.send_frame(0x01, [],sleep=0.005)
return self.x01
def get_current_pub_status(self):
return self.x01
def get_speed(self):
self.send_frame(0x05, [],sleep=0.002)
#print("L6暂不支持读取实时速度")
return self.x05
def get_current(self):
'''Not supported yet.'''
self.send_frame(0x36, [],sleep=0.005)
return self.x36
def get_torque(self):
'''Not supported yet.'''
self.send_frame(0x2, [],sleep=0.01)
return self.x02
def get_touch_type(self):
'''Get touch type'''
self.send_frame(0xb1,[])
t = []
for i in range(3):
t = self.xb1
time.sleep(0.01)
if len(t) == 2:
return 2
else:
self.send_frame(0x20,[],sleep=0.03)
time.sleep(0.01)
if self.normal_force[0] == -1:
return -1
else:
return 1
def get_touch(self):
'''Get touch data'''
self.send_frame(0xb1,[],sleep=0.03)
self.send_frame(0xb2,[],sleep=0.03)
self.send_frame(0xb3,[],sleep=0.03)
self.send_frame(0xb4,[],sleep=0.03)
self.send_frame(0xb5,[],sleep=0.03)
return [self.xb1[1],self.xb2[1],self.xb3[1],self.xb4[1],self.xb5[1],0] # The last digit is palm, currently not available
def get_matrix_touch(self):
self.send_frame(0xb1,[self.touch_code],sleep=0.01)
self.send_frame(0xb2,[self.touch_code],sleep=0.01)
self.send_frame(0xb3,[self.touch_code],sleep=0.01)
self.send_frame(0xb4,[self.touch_code],sleep=0.01)
self.send_frame(0xb5,[self.touch_code],sleep=0.01)
return self.thumb_matrix , self.index_matrix , self.middle_matrix , self.ring_matrix , self.little_matrix
def get_matrix_touch_v2(self):
self.send_frame(0xb1,[self.touch_code],sleep=0.009)
self.send_frame(0xb2,[self.touch_code],sleep=0.009)
self.send_frame(0xb3,[self.touch_code],sleep=0.009)
self.send_frame(0xb4,[self.touch_code],sleep=0.009)
self.send_frame(0xb5,[self.touch_code],sleep=0.009)
return self.thumb_matrix , self.index_matrix , self.middle_matrix , self.ring_matrix , self.little_matrix
def get_thumb_matrix_touch(self,sleep_time=0.002):
self.send_frame(0xb1,[self.touch_code],sleep=sleep_time)
return self.thumb_matrix
def get_index_matrix_touch(self,sleep_time=0.002):
self.send_frame(0xb2,[self.touch_code],sleep=sleep_time)
return self.index_matrix
def get_middle_matrix_touch(self,sleep_time=0.002):
self.send_frame(0xb3,[self.touch_code],sleep=sleep_time)
return self.middle_matrix
def get_ring_matrix_touch(self,sleep_time=0.002):
self.send_frame(0xb4,[self.touch_code],sleep=sleep_time)
return self.ring_matrix
def get_little_matrix_touch(self,sleep_time=0.002):
self.send_frame(0xb5,[self.touch_code],sleep=sleep_time)
return self.little_matrix
def get_force(self):
'''Get pressure.'''
return [self.normal_force, self.tangential_force, self.tangential_force_dir, self.approach_inc]
def get_temperature(self):
'''Get temperature.'''
self.get_motor_temperature()
return self.x33
def get_fault(self):
'''Get faults.'''
self.get_motor_fault_code()
return self.x35
def get_finger_order(self):
return ["thumb_cmc_pitch", "thumb_cmc_yaw", "index_mcp_pitch", "middle_mcp_pitch", "ring_mcp_pitch", "pinky_mcp_pitch"]
def clear_faults(self, finger_mask=[1, 1, 1, 1, 1]):
"""O6 暂不支持清除故障码"""
pass
def show_fun_table(self):
pass
def get_serial_number(self):
try:
self.send_frame(0xC0,[],sleep=0.005)
# 1. 使用 bytes() 函数将整数列表转换为字节对象
# bytes() 接收一个由 0-255 之间的整数组成的列表。
byte_data = bytes(self.serial_number)
# 2. 使用 .decode() 方法将字节对象解码为 ASCII 字符串
result_string = byte_data.decode('ascii')
if result_string == "":
return "-1"
else:
# print(f"原始 ASCII 码列表: {self.serial_number}")
# print(f"解码后的字符串: {result_string}")
return result_string
except:
return "-1"
def close_can_interface(self):
"""Stop the CAN communication."""
self.running = False
if self.receive_thread.is_alive():
self.receive_thread.join()
if self.bus:
self.bus.shutdown()
@@ -0,0 +1,345 @@
#!/usr/bin/env python3
import os
import time
import struct
from typing import Dict, List
import numpy as np
from pymodbus.client import ModbusSerialClient
_INTERVAL = 0.005 # 8 ms
class LinkerHandL10RS485:
KEYS = ["thumb_cmc_pitch", "thumb_cmc_roll", "index_mcp_pitch", "middle_mcp_pitch",
"ring_mcp_pitch", "pinky_mcp_pitch", "index_mcp_roll", "ring_mcp_roll",
"pinky_mcp_roll", "thumb_cmc_yaw"]
def __init__(self, hand_id=0x27, modbus_port="/dev/ttyUSB0", baudrate=115200):
self.slave = hand_id
self.cli = ModbusSerialClient(
port=modbus_port,
baudrate=baudrate,
bytesize=8,
parity="N",
stopbits=1,
timeout=0.05, # 50 ms 超时
retries=3, # 重试次数
retry_on_empty=True,
handle_local_echo=False
)
# 在 pymodbus 3.5.1 中,连接需要显式调用 connect()
self.connected = self.cli.connect()
if not self.connected:
raise ConnectionError(f"RS485 connect fail to {modbus_port}")
# --------------------------------------------------
# 批量读取接口
# --------------------------------------------------
def read_angles(self) -> List[int]:
time.sleep(_INTERVAL)
rsp = self.cli.read_input_registers(address=0, count=10, slave=self.slave)
if rsp.isError():
raise RuntimeError(f"read_angles failed: {rsp}")
return rsp.registers
def read_torques(self) -> List[int]:
time.sleep(_INTERVAL)
rsp = self.cli.read_input_registers(address=10, count=10, slave=self.slave)
if rsp.isError():
raise RuntimeError(f"read_torques failed: {rsp}")
return rsp.registers
def read_speeds(self) -> List[int]:
time.sleep(_INTERVAL)
rsp = self.cli.read_input_registers(address=20, count=10, slave=self.slave)
if rsp.isError():
raise RuntimeError(f"read_speeds failed: {rsp}")
return rsp.registers
def read_temperatures(self) -> List[int]:
time.sleep(_INTERVAL)
rsp = self.cli.read_input_registers(address=40, count=10, slave=self.slave)
if rsp.isError():
raise RuntimeError(f"read_temperatures failed: {rsp}")
return rsp.registers
def read_error_codes(self) -> List[int]:
time.sleep(_INTERVAL)
rsp = self.cli.read_input_registers(address=50, count=10, slave=self.slave)
if rsp.isError():
raise RuntimeError(f"read_error_codes failed: {rsp}")
return rsp.registers
def read_versions(self) -> dict:
time.sleep(_INTERVAL)
rsp = self.cli.read_input_registers(address=158, count=6, slave=self.slave)
if rsp.isError():
raise RuntimeError(f"read_versions failed: {rsp}")
keys = ["hand_freedom", "hand_version", "hand_number",
"hand_direction", "software_version", "hardware_version"]
#return dict(zip(keys, rsp.registers))
return rsp.registers
# --------------------------------------------------
# 5 个压力传感器
# --------------------------------------------------
def read_pressure_thumb(self) -> np.ndarray:
return np.array(self._pressure(1), dtype=np.uint8)
def read_pressure_index(self) -> np.ndarray:
return np.array(self._pressure(2), dtype=np.uint8)
def read_pressure_middle(self) -> np.ndarray:
return np.array(self._pressure(3), dtype=np.uint8)
def read_pressure_ring(self) -> np.ndarray:
return np.array(self._pressure(4), dtype=np.uint8)
def read_pressure_pinky(self) -> np.ndarray:
return np.array(self._pressure(5), dtype=np.uint8)
# def _pressure(self, finger: int) -> List[int]:
# time.sleep(_INTERVAL)
# # 先选择手指
# wrsp = self.cli.write_register(address=60, value=finger, slave=self.slave)
# if wrsp.isError():
# raise RuntimeError(f"write finger select {finger} failed: {wrsp}")
# time.sleep(_INTERVAL)
# # 读取压力传感器数据 (96个寄存器)
# rrsp = self.cli.read_input_registers(address=62, count=96, slave=self.slave)
# if rrsp.isError():
# raise RuntimeError(f"read pressure finger={finger} failed: {rrsp}")
# return np.array(rrsp.registers, dtype=np.uint8)
def _pressure(self, finger: int) -> np.ndarray:
"""
6x12 (72点) 矩阵尺寸。
Modbus 地址 60/62。
"""
rows = 12 # 12 行
cols = 6 # 6 列
finger_size = rows * cols # 72 个数据点
# modbus 地址和计数
write_address = 70 # 写入手指选择
read_address = 72 # 读取压力数据
read_count = 96 # 读取 96 个寄存器
skip_count = 10 # 跳过前 10 个校验点
# 0. 参数校验和手指写入值确定
if finger < 1 or finger > 5:
raise ValueError(f"无效的手指编号: {finger}。手指编号应在 1 到 5 之间。")
finger_write_value = finger
# 1. 写入手指选择寄存器 (地址 60)
time.sleep(0.008)
wrsp = self.cli.write_register(address=write_address, value=finger_write_value, slave=self.slave)
if wrsp.isError():
raise RuntimeError(f"写入手指选择 {finger} 到地址 {write_address} 失败: {wrsp}")
# 写入后等待片刻
time.sleep(0.008)
# 2. 读取地址 62 的数据
rrsp = self.cli.read_input_registers(address=read_address, count=read_count, slave=self.slave)
if rrsp.isError():
raise RuntimeError(f"读取地址 {read_address} 压力数据失败: {rrsp}")
registers_16bit: List[int] = rrsp.registers
# 3. 核心数据处理
# a. 提取低 8 位数据 (得到 96 个 8 位数据点)
final_data_96 = [reg_value & 255 for reg_value in registers_16bit]
# b. 跳过前 10 个校验/头部数据点 (得到 86 个有效数据点)
effective_data = np.array(final_data_96[skip_count:], dtype=np.uint8)
# c. 截取当前手指的矩阵数据 (从 86 个有效点中截取 72 个点)
start_idx = 0
end_idx = finger_size # 72
finger_data_flat = effective_data[start_idx:end_idx]
# d. 验证数据长度
if finger_data_flat.size != finger_size:
raise ValueError(
f"数据提取失败。期望 {finger_size} 点 ({rows}x{cols}),"
f"但仅截取到 {finger_data_flat.size} 点。请检查协议,确认地址 62 是否一次性返回了所有手指数据。"
)
# e. 重塑为二维矩阵 (12 行 6 列)
finger_matrix = finger_data_flat.reshape((rows, cols))
return finger_matrix
# --------------------------------------------------
# 批量写入接口
# --------------------------------------------------
def write_angles(self, vals: List[int]):
vals = [int(x) for x in vals]
if not self.is_valid_10xuint8(vals):
raise ValueError("需要 10 个 0-255 整数")
time.sleep(_INTERVAL)
rsp = self.cli.write_registers(address=0, values=vals, slave=self.slave)
if rsp.isError():
raise RuntimeError(f"write_angles failed: {rsp}")
def write_speeds(self, vals: List[int]):
vals = [int(x) for x in vals]
if not self.is_valid_10xuint8(vals):
raise ValueError("需要 10 个 0-255 整数")
time.sleep(_INTERVAL)
rsp = self.cli.write_registers(address=20, values=vals, slave=self.slave)
if rsp.isError():
raise RuntimeError(f"write_speeds failed: {rsp}")
def write_torques(self, vals: List[int]):
vals = [int(x) for x in vals]
if not self.is_valid_10xuint8(vals):
raise ValueError("需要 10 个 0-255 整数")
time.sleep(_INTERVAL)
rsp = self.cli.write_registers(address=10, values=vals, slave=self.slave)
if rsp.isError():
raise RuntimeError(f"write_torques failed: {rsp}")
# --------------------------------------------------
# 上下文管理
# --------------------------------------------------
def close(self):
if self.connected:
self.cli.close()
self.connected = False
def __enter__(self):
return self
def __exit__(self, exc_type, exc_val, exc_tb):
self.close()
# --------------------------------------------------
# 工具函数
# --------------------------------------------------
def is_valid_10xuint8(self, lst) -> bool:
if len(lst) != 10:
return False
return all(isinstance(x, int) and 0 <= x <= 255 for x in lst)
# --------------------------------------------------
# 固定 API 接口
# --------------------------------------------------
def set_joint_positions(self, joint_angles=None):
joint_angles = joint_angles or [0] * 10
self.write_angles(joint_angles)
def set_speed(self, speed=None):
speed = speed or [200] * 10
self.write_speeds(speed)
def set_torque(self, torque=None):
torque = torque or [200] * 10
self.write_torques(torque)
def set_current(self, current=None):
print("当前L10不支持设置电流", flush=True)
def get_version(self) -> dict:
return self.read_versions()
def get_current(self):
print("当前L10不支持获取电流", flush=True)
def get_state(self) -> List[int]:
return self.read_angles()
def get_state_for_pub(self) -> List[int]:
return self.get_state()
def get_current_status(self) -> List[int]:
return self.get_state()
def get_speed(self) -> List[int]:
return self.read_speeds()
def get_joint_speed(self) -> List[int]:
return self.get_speed()
def get_touch_type(self) -> int:
return 2
def get_normal_force(self) -> List[int]:
return [-1] * 5
def get_tangential_force(self) -> List[int]:
return [-1] * 5
def get_approach_inc(self) -> List[int]:
return [-1] * 5
def get_touch(self) -> List[int]:
return [-1] * 5
def get_thumb_matrix_touch(self,sleep_time=0):
return self._pressure(1)
def get_index_matrix_touch(self,sleep_time=0):
return self._pressure(2)
def get_middle_matrix_touch(self,sleep_time=0):
return self._pressure(3)
def get_ring_matrix_touch(self,sleep_time=0):
return self._pressure(4)
def get_little_matrix_touch(self,sleep_time=0):
return self._pressure(5)
def get_matrix_touch(self) -> List[List[int]]:
return self.get_thumb_matrix_touch(),self.get_index_matrix_touch(), self.get_middle_matrix_touch(), self.get_ring_matrix_touch(), self.get_little_matrix_touch()
def get_matrix_touch_v2(self) -> List[List[int]]:
return self.get_matrix_touch()
def get_torque(self) -> List[int]:
return self.read_torques()
def get_temperature(self) -> List[int]:
return self.read_temperatures()
def get_fault(self) -> List[int]:
return self.read_error_codes()
def get_serial_number(self):
return [0] * 6
def clear_faults(self):
pass
# ------------------- demo -------------------
if __name__ == "__main__":
try:
with LinkerHandL10RS485(hand_id=0x27, modbus_port="/dev/ttyUSB0", baudrate=115200) as hand:
print("连接成功!")
# 测试读取角度
angles = hand.read_angles()
print("角度:", dict(zip(LinkerHandL10RS485.KEYS, angles)))
# 测试读取版本信息
ver = hand.get_version()
print("版本信息:", ver)
# 测试压力传感器
print("拇指压力传感器数据长度:", len(hand.read_pressure_thumb()))
# 测试其他读取功能
print("电流:", hand.read_torques())
print("速度:", hand.read_speeds())
print("温度:", hand.read_temperatures())
print("错误码:", hand.read_error_codes())
except Exception as e:
print(f"错误: {e}")
@@ -0,0 +1,460 @@
#!/usr/bin/env python3
import os
import time
from pymodbus.client import ModbusSerialClient
from typing import List, Dict
import numpy as np
_INTERVAL = 0.006 # 8 ms
class LinkerHandL6RS485:
"""L6机械手 Modbus-RTU 控制类"""
# 6个关节名称
JOINT_NAMES = ["thumb_pitch", "thumb_yaw", "index_pitch",
"middle_pitch", "ring_pitch", "little_pitch"]
# 手指名称
FINGER_NAMES = ["thumb", "index", "middle", "ring", "little"]
def __init__(self, hand_id=0x27, modbus_port="/dev/ttyUSB0", baudrate=115200):
"""
初始化L6机械手
hand_id: 右手0x27(39), 左手0x28(40)
modbus_port: 串口设备路径
baudrate: 波特率,固定115200
"""
self.slave = hand_id
self.cli = ModbusSerialClient(
port=modbus_port,
baudrate=baudrate,
bytesize=8,
parity="N",
stopbits=1,
timeout=0.05
)
# pymodbus 3.5.1 需要显式连接
self.connected = self.cli.connect()
if not self.connected:
raise ConnectionError(f"RS485连接失败,端口: {modbus_port}")
def _read_input_registers(self, address: int, count: int) -> List[int]:
"""读取输入寄存器"""
time.sleep(_INTERVAL)
result = self.cli.read_input_registers(address=address, count=count, slave=self.slave)
if result.isError():
raise RuntimeError(f"读取输入寄存器失败: address={address}, count={count}")
return result.registers
def _write_register(self, address: int, value: int):
"""写入单个寄存器"""
time.sleep(_INTERVAL)
result = self.cli.write_register(address=address, value=value, slave=self.slave)
if result.isError():
raise RuntimeError(f"写入寄存器失败: address={address}, value={value}")
def _write_registers(self, address: int, values: List[int]):
"""写入多个寄存器"""
time.sleep(_INTERVAL)
result = self.cli.write_registers(address=address, values=values, slave=self.slave)
if result.isError():
raise RuntimeError(f"写入多个寄存器失败: address={address}, values={values}")
# --------------------------------------------------
# 基础读取接口
# --------------------------------------------------
def read_angles(self) -> List[int]:
"""读取6个关节角度 (输入寄存器 0-5)"""
return self._read_input_registers(0, 6)
def read_torques(self) -> List[int]:
"""读取6个关节转矩 (输入寄存器 6-11)"""
return self._read_input_registers(6, 6)
def read_speeds(self) -> List[int]:
"""读取6个关节速度 (输入寄存器 12-17)"""
return self._read_input_registers(12, 6)
def read_temperatures(self) -> List[int]:
"""读取6个关节温度 (输入寄存器 18-23)"""
return self._read_input_registers(18, 6)
def read_error_codes(self) -> List[int]:
"""读取6个关节错误码 (输入寄存器 24-29)"""
return self._read_input_registers(24, 6)
# --------------------------------------------------
# 压力传感器接口
# --------------------------------------------------
# def _pressure(self, finger: int) -> List[int]:
# """内部:选手指 → 读压力数据"""
# # 选择手指 (保持寄存器 36)
# self._write_register(36, finger)
# time.sleep(_INTERVAL)
# # 读取压力数据 (输入寄存器 52-122)
# return np.array(self._read_input_registers(52, 71))
def _pressure(self, finger: int) -> np.ndarray:
"""
6x12 (72点) 矩阵尺寸。
Modbus 地址 60/62。
"""
rows = 12 # 12 行
cols = 6 # 6 列
finger_size = rows * cols # 72 个数据点
# modbus 地址和计数 (按协议文档)
write_address = 36 # 写入手指选择 (保持寄存器)
read_address = 52 # 读取压力数据 (输入寄存器)
read_count = 71 # 读取 71 个寄存器
skip_count = 0 # 不跳过数据点
# 0. 参数校验和手指写入值确定
if finger < 1 or finger > 5:
raise ValueError(f"无效的手指编号: {finger}。手指编号应在 1 到 5 之间。")
finger_write_value = finger
# 1. 写入手指选择寄存器 (地址 36)
time.sleep(0.08)
wrsp = self.cli.write_register(address=write_address, value=finger_write_value, slave=self.slave)
if wrsp.isError():
raise RuntimeError(f"写入手指选择 {finger} 到地址 {write_address} 失败: {wrsp}")
# 写入后等待片刻
time.sleep(0.08)
# 2. 读取地址 52 的数据
rrsp = self.cli.read_input_registers(address=read_address, count=read_count, slave=self.slave)
if rrsp.isError():
raise RuntimeError(f"读取地址 {read_address} 压力数据失败: {rrsp}")
registers_16bit: List[int] = rrsp.registers
# 3. 核心数据处理
# a. 提取低 8 位数据 (得到 71 个 8 位数据点)
final_data_71 = [reg_value & 255 for reg_value in registers_16bit]
# b. 不跳过数据点 (按协议)
effective_data = np.array(final_data_71, dtype=np.uint8)
# c. 截取当前手指的矩阵数据 (71 个有效点中截取 72 个点,可能需要多读)
# 注: 协议返回 71 个点,手指数 1-5,每个手指需要 72 点
# 这里取全部数据
start_idx = 0
end_idx = min(len(effective_data), finger_size) # 取较小值
finger_data_flat = effective_data[start_idx:end_idx]
# d. 验证数据长度
if finger_data_flat.size < finger_size:
# 如果数据不足,尝试多读一些
rrsp2 = self.cli.read_input_registers(address=read_address + read_count, count=10, slave=self.slave)
if not rrsp2.isError():
extra_data = [reg_value & 255 for reg_value in rrsp2.registers]
finger_data_flat = np.concatenate([finger_data_flat, np.array(extra_data, dtype=np.uint8)])
# 最终确保有足够数据
if finger_data_flat.size >= finger_size:
finger_data_flat = finger_data_flat[:finger_size]
else:
raise ValueError(
f"数据提取失败。期望 {finger_size} 点 ({rows}x{cols}),"
f"但仅获取到 {finger_data_flat.size} 点。请检查协议。"
)
# e. 重塑为二维矩阵 (12 行 6 列)
finger_matrix = finger_data_flat.reshape((rows, cols))
return finger_matrix
def read_pressure_thumb(self) -> np.ndarray:
"""读取大拇指压力数据"""
return np.array(self._pressure(1), dtype=np.uint8)
def read_pressure_index(self) -> np.ndarray:
"""读取食指压力数据"""
return np.array(self._pressure(2), dtype=np.uint8)
def read_pressure_middle(self) -> np.ndarray:
"""读取中指压力数据"""
return np.array(self._pressure(3), dtype=np.uint8)
def read_pressure_ring(self) -> np.ndarray:
"""读取无名指压力数据"""
return np.array(self._pressure(4), dtype=np.uint8)
def read_pressure_little(self) -> np.ndarray:
"""读取小拇指压力数据"""
return np.array(self._pressure(5), dtype=np.uint8)
# --------------------------------------------------
# 版本信息接口
# --------------------------------------------------
def read_versions(self) -> Dict[str, int]:
"""读取版本信息 (输入寄存器 148-155)"""
result = self._read_input_registers(148, 8)
return {
"hand_freedom": result[0],
"hand_version": result[1],
"hand_number": result[2],
"hand_direction": result[3],
"software_version_major": result[4],
"software_version_minor": result[5] if len(result) > 5 else 0,
"software_version_revision": result[6] if len(result) > 6 else 0,
"hardware_version": result[7] if len(result) > 7 else 0
}
# --------------------------------------------------
# 写入接口
# --------------------------------------------------
def write_angles(self, vals: List[int]):
"""设置6个关节角度 (保持寄存器 0-5)"""
vals = [int(x) for x in vals]
if not self.is_valid_6xuint8(vals):
raise ValueError("需要6个0-255的整数")
self._write_registers(0, vals)
def write_torques(self, vals: List[int]):
"""设置6个关节转矩 (保持寄存器 6-11)"""
vals = [int(x) for x in vals]
if not self.is_valid_6xuint8(vals):
raise ValueError("需要6个0-255的整数")
self._write_registers(6, vals)
def write_speeds(self, vals: List[int]):
"""设置6个关节速度 (保持寄存器 12-17)"""
vals = [int(x) for x in vals]
if not self.is_valid_6xuint8(vals):
raise ValueError("需要6个0-255的整数")
self._write_registers(12, vals)
# --------------------------------------------------
# 上下文管理
# --------------------------------------------------
def close(self):
"""关闭连接"""
if self.connected:
self.cli.close()
self.connected = False
def __enter__(self):
return self
def __exit__(self, exc_type, exc_val, exc_tb):
self.close()
# --------------------------------------------------
# API固定接口函数
# --------------------------------------------------
def is_valid_6xuint8(self, lst) -> bool:
"""验证6个0-255的整数列表"""
if len(lst) != 6:
return False
return all(isinstance(x, int) and 0 <= x <= 255 for x in lst)
def set_joint_positions(self, joint_angles=None):
"""设置关节位置"""
joint_angles = joint_angles or [0] * 6
self.write_angles(joint_angles)
def set_speed(self, speed=None):
"""设置速度"""
speed = speed or [200] * 6
self.write_speeds(speed)
def set_torque(self, torque=None):
"""设置扭矩"""
torque = torque or [200] * 6
self.write_torques(torque)
def set_current(self, current=None):
"""设置电流 (L6不支持)"""
print("当前L6不支持设置电流", flush=True)
def get_version(self) -> list:
"""获取版本信息"""
versions = self.read_versions()
return [
versions.get("hand_freedom", 0),
versions.get("hand_version", 0),
versions.get("hand_number", 0),
versions.get("hand_direction", 0),
versions.get("software_version_major", 0),
versions.get("hardware_version", 0)
]
def get_current(self):
"""获取电流 (L6不支持)"""
print("当前L6不支持获取电流", flush=True)
return []
def get_state(self) -> list:
"""获取关节状态"""
return self.read_angles()
def get_state_for_pub(self) -> list:
return self.get_state()
def get_current_status(self) -> list:
return self.get_state()
def get_speed(self) -> list:
"""获取当前速度"""
return self.read_speeds()
def get_joint_speed(self) -> list:
return self.get_speed()
def get_touch_type(self) -> int:
"""获取压感类型 (2=矩阵式)"""
return 2
def get_normal_force(self) -> list:
"""获取压感数据:点式"""
return [-1] * 5
def get_tangential_force(self) -> list:
"""获取压感数据:点式"""
return [-1] * 5
def get_approach_inc(self) -> list:
"""获取压感数据:点式"""
return [-1] * 5
def get_touch(self) -> list:
return [-1] * 5
def get_thumb_matrix_touch(self,sleep_time=0):
return self._pressure(1)
def get_index_matrix_touch(self,sleep_time=0):
return self._pressure(2)
def get_middle_matrix_touch(self,sleep_time=0):
return self._pressure(3)
def get_ring_matrix_touch(self,sleep_time=0):
return self._pressure(4)
def get_little_matrix_touch(self,sleep_time=0):
return self._pressure(5)
def get_matrix_touch(self) -> list:
"""获取压感数据:矩阵式"""
return [self._pressure(1), self._pressure(2), self._pressure(3),
self._pressure(4), self._pressure(5)]
def get_matrix_touch_v2(self) -> list:
"""获取压感数据:矩阵式"""
return self.get_matrix_touch()
def get_torque(self) -> list:
"""获取当前扭矩"""
return self.read_torques()
def get_temperature(self) -> list:
"""获取当前电机温度"""
return self.read_temperatures()
def get_fault(self) -> list:
"""获取当前电机故障码"""
return self.read_error_codes()
def get_serial_number(self):
return [0] * 6
def get_finger_order(self):
return ["thumb_cmc_pitch", "thumb_cmc_yaw", "index_mcp_pitch", "middle_mcp_pitch", "ring_mcp_pitch", "pinky_mcp_pitch"]
# --------------------------------------------------
# 便捷方法
# --------------------------------------------------
def relax(self):
"""所有手指伸直"""
self.set_joint_positions([255] * 6)
def fist(self):
"""所有手指握拳"""
self.set_joint_positions([0] * 6)
def dump_status(self):
"""打印状态信息"""
print("=" * 50)
print("L6机械手状态信息")
print("=" * 50)
try:
# 关节状态
angles = self.read_angles()
torques = self.read_torques()
speeds = self.read_speeds()
temps = self.read_temperatures()
errors = self.read_error_codes()
print("关节状态:")
for i, name in enumerate(self.JOINT_NAMES):
print(f" {name:15s}: 角度={angles[i]:3d}, 扭矩={torques[i]:3d}, "
f"速度={speeds[i]:3d}, 温度={temps[i]:2d}℃, 错误={errors[i]:2d}")
# 版本信息
versions = self.read_versions()
print("\n版本信息:")
for key, value in versions.items():
print(f" {key:20s}: {value}")
# 压力传感器测试
print("\n压力传感器测试:")
thumb_pressure = self.read_pressure_thumb()
print(f"大拇指压力数据长度: {len(thumb_pressure)}")
except Exception as e:
print(f"读取状态时出错: {e}")
print("=" * 50)
# ------------------- 演示程序 -------------------
if __name__ == "__main__":
# 使用示例
try:
with LinkerHandL6RS485(hand_id=0x27, modbus_port="/dev/ttyUSB0", baudrate=115200) as hand:
print("连接成功!")
# 打印状态信息
hand.dump_status()
# 测试基本控制
print("\n测试控制功能...")
print("伸直手指...")
hand.relax()
time.sleep(2)
print("握拳...")
hand.fist()
time.sleep(2)
print("恢复伸直...")
hand.relax()
# 测试压力传感器
print("\n测试压力传感器...")
thumb_matrix = hand.get_thumb_matrix_touch()
print(f"大拇指压力数据: {len(thumb_matrix)}个点")
# 获取所有手指压力数据
all_matrices = hand.get_matrix_touch()
for i, name in enumerate(hand.FINGER_NAMES):
matrix = all_matrices[i]
print(f"{name}手指压力数据长度: {len(matrix)}")
except Exception as e:
print(f"错误: {e}")
@@ -0,0 +1,444 @@
#!/usr/bin/env python3
import os
import time
from pymodbus.client import ModbusSerialClient
from typing import List, Dict
import numpy as np
_INTERVAL = 0.006 # 8 ms
class LinkerHandL6RS485:
"""L6机械手 Modbus-RTU 控制类"""
# 6个关节名称
JOINT_NAMES = ["thumb_pitch", "thumb_yaw", "index_pitch",
"middle_pitch", "ring_pitch", "little_pitch"]
# 手指名称
FINGER_NAMES = ["thumb", "index", "middle", "ring", "little"]
def __init__(self, hand_id=0x27, modbus_port="/dev/ttyUSB0", baudrate=115200):
"""
初始化L6机械手
hand_id: 右手0x27(39), 左手0x28(40)
modbus_port: 串口设备路径
baudrate: 波特率,固定115200
"""
self.slave = hand_id
self.cli = ModbusSerialClient(
port=modbus_port,
baudrate=baudrate,
bytesize=8,
parity="N",
stopbits=1,
timeout=0.05
)
# pymodbus 3.5.1 需要显式连接
self.connected = self.cli.connect()
if not self.connected:
raise ConnectionError(f"RS485连接失败,端口: {modbus_port}")
def _read_input_registers(self, address: int, count: int) -> List[int]:
"""读取输入寄存器"""
time.sleep(_INTERVAL)
result = self.cli.read_input_registers(address=address, count=count, slave=self.slave)
if result.isError():
raise RuntimeError(f"读取输入寄存器失败: address={address}, count={count}")
return result.registers
def _write_register(self, address: int, value: int):
"""写入单个寄存器"""
time.sleep(_INTERVAL)
result = self.cli.write_register(address=address, value=value, slave=self.slave)
if result.isError():
raise RuntimeError(f"写入寄存器失败: address={address}, value={value}")
def _write_registers(self, address: int, values: List[int]):
"""写入多个寄存器"""
time.sleep(_INTERVAL)
result = self.cli.write_registers(address=address, values=values, slave=self.slave)
if result.isError():
raise RuntimeError(f"写入多个寄存器失败: address={address}, values={values}")
# --------------------------------------------------
# 基础读取接口
# --------------------------------------------------
def read_angles(self) -> List[int]:
"""读取6个关节角度 (输入寄存器 0-5)"""
return self._read_input_registers(0, 6)
def read_torques(self) -> List[int]:
"""读取6个关节转矩 (输入寄存器 6-11)"""
return self._read_input_registers(6, 6)
def read_speeds(self) -> List[int]:
"""读取6个关节速度 (输入寄存器 12-17)"""
return self._read_input_registers(12, 6)
def read_temperatures(self) -> List[int]:
"""读取6个关节温度 (输入寄存器 18-23)"""
return self._read_input_registers(18, 6)
def read_error_codes(self) -> List[int]:
"""读取6个关节错误码 (输入寄存器 24-29)"""
return self._read_input_registers(24, 6)
# --------------------------------------------------
# 压力传感器接口
# --------------------------------------------------
# def _pressure(self, finger: int) -> List[int]:
# """内部:选手指 → 读压力数据"""
# # 选择手指 (保持寄存器 36)
# self._write_register(36, finger)
# time.sleep(_INTERVAL)
# # 读取压力数据 (输入寄存器 52-122)
# return np.array(self._read_input_registers(52, 71))
def _pressure(self, finger: int) -> np.ndarray:
"""
6x12 (72点) 矩阵尺寸。
Modbus 地址 60/62。
"""
rows = 12 # 12 行
cols = 6 # 6 列
finger_size = rows * cols # 72 个数据点
# modbus 地址和计数
write_address = 60 # 写入手指选择
read_address = 62 # 读取压力数据
read_count = 96 # 读取 96 个寄存器
skip_count = 10 # 跳过前 10 个校验点
# 0. 参数校验和手指写入值确定
if finger < 1 or finger > 5:
raise ValueError(f"无效的手指编号: {finger}。手指编号应在 1 到 5 之间。")
finger_write_value = finger
# 1. 写入手指选择寄存器 (地址 60)
time.sleep(0.008)
wrsp = self.cli.write_register(address=write_address, value=finger_write_value, slave=self.slave)
if wrsp.isError():
raise RuntimeError(f"写入手指选择 {finger} 到地址 {write_address} 失败: {wrsp}")
# 写入后等待片刻
time.sleep(0.008)
# 2. 读取地址 62 的数据
rrsp = self.cli.read_input_registers(address=read_address, count=read_count, slave=self.slave)
if rrsp.isError():
raise RuntimeError(f"读取地址 {read_address} 压力数据失败: {rrsp}")
registers_16bit: List[int] = rrsp.registers
# 3. 核心数据处理
# a. 提取低 8 位数据 (得到 96 个 8 位数据点)
final_data_96 = [reg_value & 255 for reg_value in registers_16bit]
# b. 跳过前 10 个校验/头部数据点 (得到 86 个有效数据点)
effective_data = np.array(final_data_96[skip_count:], dtype=np.uint8)
# c. 截取当前手指的矩阵数据 (从 86 个有效点中截取 72 个点)
start_idx = 0
end_idx = finger_size # 72
finger_data_flat = effective_data[start_idx:end_idx]
# d. 验证数据长度
if finger_data_flat.size != finger_size:
raise ValueError(
f"数据提取失败。期望 {finger_size} 点 ({rows}x{cols}),"
f"但仅截取到 {finger_data_flat.size} 点。请检查协议,确认地址 62 是否一次性返回了所有手指数据。"
)
# e. 重塑为二维矩阵 (12 行 6 列)
finger_matrix = finger_data_flat.reshape((rows, cols))
return finger_matrix
def read_pressure_thumb(self) -> np.ndarray:
"""读取大拇指压力数据"""
return np.array(self._pressure(1), dtype=np.uint8)
def read_pressure_index(self) -> np.ndarray:
"""读取食指压力数据"""
return np.array(self._pressure(2), dtype=np.uint8)
def read_pressure_middle(self) -> np.ndarray:
"""读取中指压力数据"""
return np.array(self._pressure(3), dtype=np.uint8)
def read_pressure_ring(self) -> np.ndarray:
"""读取无名指压力数据"""
return np.array(self._pressure(4), dtype=np.uint8)
def read_pressure_little(self) -> np.ndarray:
"""读取小拇指压力数据"""
return np.array(self._pressure(5), dtype=np.uint8)
# --------------------------------------------------
# 版本信息接口
# --------------------------------------------------
def read_versions(self) -> Dict[str, int]:
"""读取版本信息 (输入寄存器 148-155)"""
result = self._read_input_registers(148, 8)
return {
"hand_freedom": result[0],
"hand_version": result[1],
"hand_number": result[2],
"hand_direction": result[3],
"software_version_major": result[4],
"software_version_minor": result[5] if len(result) > 5 else 0,
"software_version_revision": result[6] if len(result) > 6 else 0,
"hardware_version": result[7] if len(result) > 7 else 0
}
# --------------------------------------------------
# 写入接口
# --------------------------------------------------
def write_angles(self, vals: List[int]):
"""设置6个关节角度 (保持寄存器 0-5)"""
vals = [int(x) for x in vals]
if not self.is_valid_6xuint8(vals):
raise ValueError("需要6个0-255的整数")
self._write_registers(0, vals)
def write_torques(self, vals: List[int]):
"""设置6个关节转矩 (保持寄存器 6-11)"""
vals = [int(x) for x in vals]
if not self.is_valid_6xuint8(vals):
raise ValueError("需要6个0-255的整数")
self._write_registers(6, vals)
def write_speeds(self, vals: List[int]):
"""设置6个关节速度 (保持寄存器 12-17)"""
vals = [int(x) for x in vals]
if not self.is_valid_6xuint8(vals):
raise ValueError("需要6个0-255的整数")
self._write_registers(12, vals)
# --------------------------------------------------
# 上下文管理
# --------------------------------------------------
def close(self):
"""关闭连接"""
if self.connected:
self.cli.close()
self.connected = False
def __enter__(self):
return self
def __exit__(self, exc_type, exc_val, exc_tb):
self.close()
# --------------------------------------------------
# API固定接口函数
# --------------------------------------------------
def is_valid_6xuint8(self, lst) -> bool:
"""验证6个0-255的整数列表"""
if len(lst) != 6:
return False
return all(isinstance(x, int) and 0 <= x <= 255 for x in lst)
def set_joint_positions(self, joint_angles=None):
"""设置关节位置"""
joint_angles = joint_angles or [0] * 6
self.write_angles(joint_angles)
def set_speed(self, speed=None):
"""设置速度"""
speed = speed or [200] * 6
self.write_speeds(speed)
def set_torque(self, torque=None):
"""设置扭矩"""
torque = torque or [200] * 6
self.write_torques(torque)
def set_current(self, current=None):
"""设置电流 (L6不支持)"""
print("当前L6不支持设置电流", flush=True)
def get_version(self) -> list:
"""获取版本信息"""
versions = self.read_versions()
return [
versions.get("hand_freedom", 0),
versions.get("hand_version", 0),
versions.get("hand_number", 0),
versions.get("hand_direction", 0),
versions.get("software_version_major", 0),
versions.get("hardware_version", 0)
]
def get_current(self):
"""获取电流 (L6不支持)"""
print("当前L6不支持获取电流", flush=True)
return []
def get_state(self) -> list:
"""获取关节状态"""
return self.read_angles()
def get_state_for_pub(self) -> list:
return self.get_state()
def get_current_status(self) -> list:
return self.get_state()
def get_speed(self) -> list:
"""获取当前速度"""
return self.read_speeds()
def get_joint_speed(self) -> list:
return self.get_speed()
def get_touch_type(self) -> int:
"""获取压感类型 (2=矩阵式)"""
return 2
def get_normal_force(self) -> list:
"""获取压感数据:点式"""
return [-1] * 5
def get_tangential_force(self) -> list:
"""获取压感数据:点式"""
return [-1] * 5
def get_approach_inc(self) -> list:
"""获取压感数据:点式"""
return [-1] * 5
def get_touch(self) -> list:
return [-1] * 5
def get_thumb_matrix_touch(self,sleep_time=0):
return self._pressure(1)
def get_index_matrix_touch(self,sleep_time=0):
return self._pressure(2)
def get_middle_matrix_touch(self,sleep_time=0):
return self._pressure(3)
def get_ring_matrix_touch(self,sleep_time=0):
return self._pressure(4)
def get_little_matrix_touch(self,sleep_time=0):
return self._pressure(5)
def get_matrix_touch(self) -> list:
"""获取压感数据:矩阵式"""
return [self._pressure(1), self._pressure(2), self._pressure(3),
self._pressure(4), self._pressure(5)]
def get_matrix_touch_v2(self) -> list:
"""获取压感数据:矩阵式"""
return self.get_matrix_touch()
def get_torque(self) -> list:
"""获取当前扭矩"""
return self.read_torques()
def get_temperature(self) -> list:
"""获取当前电机温度"""
return self.read_temperatures()
def get_fault(self) -> list:
"""获取当前电机故障码"""
return self.read_error_codes()
def get_serial_number(self):
return [0] * 6
# --------------------------------------------------
# 便捷方法
# --------------------------------------------------
def relax(self):
"""所有手指伸直"""
self.set_joint_positions([255] * 6)
def fist(self):
"""所有手指握拳"""
self.set_joint_positions([0] * 6)
def dump_status(self):
"""打印状态信息"""
print("=" * 50)
print("L6机械手状态信息")
print("=" * 50)
try:
# 关节状态
angles = self.read_angles()
torques = self.read_torques()
speeds = self.read_speeds()
temps = self.read_temperatures()
errors = self.read_error_codes()
print("关节状态:")
for i, name in enumerate(self.JOINT_NAMES):
print(f" {name:15s}: 角度={angles[i]:3d}, 扭矩={torques[i]:3d}, "
f"速度={speeds[i]:3d}, 温度={temps[i]:2d}℃, 错误={errors[i]:2d}")
# 版本信息
versions = self.read_versions()
print("\n版本信息:")
for key, value in versions.items():
print(f" {key:20s}: {value}")
# 压力传感器测试
print("\n压力传感器测试:")
thumb_pressure = self.read_pressure_thumb()
print(f"大拇指压力数据长度: {len(thumb_pressure)}")
except Exception as e:
print(f"读取状态时出错: {e}")
print("=" * 50)
# ------------------- 演示程序 -------------------
if __name__ == "__main__":
# 使用示例
try:
with LinkerHandL6RS485(hand_id=0x27, modbus_port="/dev/ttyUSB0", baudrate=115200) as hand:
print("连接成功!")
# 打印状态信息
hand.dump_status()
# 测试基本控制
print("\n测试控制功能...")
print("伸直手指...")
hand.relax()
time.sleep(2)
print("握拳...")
hand.fist()
time.sleep(2)
print("恢复伸直...")
hand.relax()
# 测试压力传感器
print("\n测试压力传感器...")
thumb_matrix = hand.get_thumb_matrix_touch()
print(f"大拇指压力数据: {len(thumb_matrix)}个点")
# 获取所有手指压力数据
all_matrices = hand.get_matrix_touch()
for i, name in enumerate(hand.FINGER_NAMES):
matrix = all_matrices[i]
print(f"{name}手指压力数据长度: {len(matrix)}")
except Exception as e:
print(f"错误: {e}")
@@ -0,0 +1,423 @@
#!/usr/bin/env python3
import time
from typing import List, Dict, Union
import numpy as np
from pymodbus.client import ModbusSerialClient
from pymodbus.exceptions import ModbusException
# --- 协议常量和寄存器地址定义 (根据 O7 协议文件) ---
# RS485 通信设置
DEFAULT_BAUDRATE = 115200
# O7机械手七个可控关节的键名 (根据保持寄存器和输入寄存器地址 0-6)
O7_JOINT_KEYS = [
"Thumb_Pitch", "Thumb_Yaw", "Index_Pitch", "Middle_Pitch",
"Ring_Pitch", "Little_Pitch", "Thumb_Roll"
]
# 保持寄存器地址 (写操作 FC 16)
HR_ADDR = {
"Position_Start": 0, # 关节目标位置 (7 个寄存器: 0-6)
"Torque_Start": 7, # 关节目标转矩 (7 个寄存器: 7-13)
"Speed_Start": 14, # 关节目标速度 (7 个寄存器: 14-20)
"Pressure_Select": 42 # 压力传感器数据选择 (1 个寄存器)
# 21-41 为堵转保护阈值、时间和扭矩,暂未实现
}
# 输入寄存器地址 (读操作 FC 04)
IR_ADDR = {
"Current_Position_Start": 0, # 当前关节位置 (7 个寄存器: 0-6)
"Current_Torque_Start": 7, # 当前关节转矩 (7 个寄存器: 7-13)
"Current_Speed_Start": 14, # 当前关节速度 (7 个寄存器: 14-20)
"Current_Temperature_Start": 21, # 当前关节温度 (7 个寄存器: 21-27)
"Error_Code_Start": 28, # 当前关节错误码 (7 个寄存器: 28-34)
"Tip_Force_Start": 35, # 指尖力数据 (20 个寄存器: 35-54)
"Pressure_Data_Start": 57, # 压力传感器数据起始 (96 个寄存器: 57-152)
"Version_Start": 153 # 版本信息 (6 个寄存器: 153-158)
}
# 辅助常量
_JOINT_COUNT = 7
_VERSION_COUNT = 6
_TIP_FORCE_COUNT = 20
_PRESSURE_REG_COUNT = 96
_PRESSURE_ROWS = 12 # 从 IR 56 (0xC6) 推断
_PRESSURE_COLS = 6 # 从 IR 56 (0xC6) 推断
_PRESSURE_DATA_SIZE = _PRESSURE_ROWS * _PRESSURE_COLS # 72
_PRESSURE_HEADER_SKIP = 10 # 假设跳过 10 个头部/校验字节
# 通信间隔时间 (使用 L10 参考中的 5ms)
_INTERVAL = 0.005
class LinkerHandL7RS485:
"""
O7机械手 Modbus RTU (RS485) 控制类。
使用 pymodbus 3.5.1 版本和 O7 机械手协议。
"""
def __init__(self,
hand_id: int = 0x27,
modbus_port: str = "/dev/ttyUSB0",
baudrate: int = DEFAULT_BAUDRATE,
timeout: float = 0.05):
"""
初始化 Modbus 客户端。
:param hand_id: Modbus 从站地址 (0x27: 右手, 0x28: 左手)
:param modbus_port: 串口名称
:param baudrate: 波特率 (默认为 115200)
:param timeout: 通信超时时间 (秒)
"""
self.slave = hand_id
self.cli = ModbusSerialClient(
port=modbus_port,
baudrate=baudrate,
bytesize=8,
parity="N",
stopbits=1, # 确保与 pymodbus 3.x 兼容的写法
timeout=timeout,
retries=3, # 重试次数
retry_on_empty=True,
handle_local_echo=False,
method='rtu'
)
# 尝试连接
self.connected = self.cli.connect()
if not self.connected:
raise ConnectionError(f"RS485 connect fail to {modbus_port} with ID {hex(hand_id)}.")
print(f"O7机械手 Modbus ID {hex(hand_id)} 连接成功到 {modbus_port}。")
# --------------------------------------------------
# 核心读写函数 (基于 pymodbus 3.5.1)
# --------------------------------------------------
def _read_input_registers(self, address: int, count: int) -> List[int]:
"""封装 Modbus 读取输入寄存器 (FC 04) 操作。"""
time.sleep(_INTERVAL)
try:
rsp = self.cli.read_input_registers(
address=address,
count=count,
slave=self.slave
)
# 使用 L10 参考中验证过的 3.x 兼容错误检查
if rsp.isError():
raise RuntimeError(f"Modbus FC04 读取失败。地址: {address}, 错误: {rsp}")
return rsp.registers
except ModbusException as e:
# 捕获通信超时、CRC 错误等 Modbus 异常
raise RuntimeError(f"Modbus 通信异常。地址: {address}, 错误: {e}")
except Exception as e:
raise RuntimeError(f"未知读取异常。地址: {address}, 错误: {e}")
def _write_holding_registers(self, address: int, values: List[int]):
"""封装 Modbus 写入保持寄存器 (FC 16) 操作。"""
time.sleep(_INTERVAL)
# 批量写入 (FC 16)
if len(values) > 1:
write_func = self.cli.write_registers
# 单个写入 (FC 06)
elif len(values) == 1:
write_func = lambda address, values, slave: self.cli.write_register(address, values[0], slave)
else:
raise ValueError("写入值列表不能为空。")
try:
rsp = write_func(
address=address,
values=values,
slave=self.slave
)
if rsp.isError():
raise RuntimeError(f"Modbus FC16 写入失败。地址: {address}, 错误: {rsp}")
except ModbusException as e:
raise RuntimeError(f"Modbus 通信异常。地址: {address}, 错误: {e}")
except Exception as e:
raise RuntimeError(f"未知写入异常。地址: {address}, 错误: {e}")
# --------------------------------------------------
# 读操作 (Read API)
# --------------------------------------------------
def get_joint_positions(self) -> Dict[str, int]:
"""读取当前关节位置 (地址 0-6)。"""
registers = self._read_input_registers(IR_ADDR["Current_Position_Start"], _JOINT_COUNT)
#return dict(zip(O7_JOINT_KEYS, registers))
return registers
def get_current_torques(self) -> Dict[str, int]:
"""读取当前关节转矩 (地址 7-13)。"""
registers = self._read_input_registers(IR_ADDR["Current_Torque_Start"], _JOINT_COUNT)
#return dict(zip(O7_JOINT_KEYS, registers))
return registers
def get_current_speeds(self) -> Dict[str, int]:
"""读取当前关节速度 (地址 14-20)。"""
registers = self._read_input_registers(IR_ADDR["Current_Speed_Start"], _JOINT_COUNT)
#return dict(zip(O7_JOINT_KEYS, registers))
return registers
def get_temperatures(self) -> Dict[str, int]:
"""读取当前关节温度 (地址 21-27)。"""
registers = self._read_input_registers(IR_ADDR["Current_Temperature_Start"], _JOINT_COUNT)
#return dict(zip(O7_JOINT_KEYS, registers))
return registers
def get_error_codes(self) -> Dict[str, int]:
"""读取当前关节错误码 (地址 28-34)。"""
registers = self._read_input_registers(IR_ADDR["Error_Code_Start"], _JOINT_COUNT)
#return dict(zip(O7_JOINT_KEYS, registers))
return registers
def get_tip_forces(self) -> List[int]:
"""读取指尖法向力、切向力等数据 (地址 35-54)。"""
return self._read_input_registers(IR_ADDR["Tip_Force_Start"], _TIP_FORCE_COUNT)
def get_version(self) -> List[int]:
"""读取版本信息 (地址 153-158)。"""
return self._read_input_registers(IR_ADDR["Version_Start"], _VERSION_COUNT)
def get_pressure_matrix(self, finger_id: int) -> np.ndarray:
"""
读取特定手指的压力传感器数据矩阵。
:param finger_id: 手指编号 (1: 大拇指, 2: 食指, 3: 中指, 4: 无名指, 5: 小拇指)
:return: 12x6 的压力数据矩阵 (np.ndarray)
"""
if not (1 <= finger_id <= 5):
raise ValueError(f"无效的手指编号: {finger_id}。应在 1 到 5 之间。")
# 1. 写入手指选择寄存器 (HR 42)
# 使用单个写入 (FC 06)
self._write_holding_registers(HR_ADDR["Pressure_Select"], [finger_id])
# 2. 读取压力传感器数据 (IR 57, 96 个寄存器)
time.sleep(_INTERVAL) # 等待数据更新
registers_16bit: List[int] = self._read_input_registers(
IR_ADDR["Pressure_Data_Start"],
_PRESSURE_REG_COUNT
)
# 3. 数据解析 (假设与 L10 类似的数据格式: 低 8 位有效,有头部数据)
# a. 提取低 8 位数据 (得到 96 个 8 位数据点)
final_data_96 = [reg_value & 255 for reg_value in registers_16bit]
# b. 跳过头部数据点
effective_data = np.array(final_data_96[_PRESSURE_HEADER_SKIP:], dtype=np.uint8)
# c. 截取当前手指的矩阵数据 (72 个点)
finger_data_flat = effective_data[:_PRESSURE_DATA_SIZE]
if finger_data_flat.size != _PRESSURE_DATA_SIZE:
raise ValueError(
f"压力数据提取失败。期望 {_PRESSURE_DATA_SIZE} 点,"
f"但仅截取到 {finger_data_flat.size} 点。请检查协议解析逻辑。"
)
# d. 重塑为二维矩阵 (12 行 6 列)
finger_matrix = finger_data_flat.reshape((_PRESSURE_ROWS, _PRESSURE_COLS))
return finger_matrix
# --------------------------------------------------
# 写操作 (Write API)
# --------------------------------------------------
def set_joint_positions(self, joint_angles: List[int]):
"""
设置所有 7 个关节的目标位置 (地址 0-6)。
:param joint_angles: 7 个 0-255 的整数值列表
"""
if len(joint_angles) != _JOINT_COUNT:
raise ValueError(f"需要 {_JOINT_COUNT} 个关节位置值,提供了 {len(joint_angles)} 个。")
self._write_holding_registers(HR_ADDR["Position_Start"], joint_angles)
def set_torques(self, torques: List[int]):
"""
设置所有 7 个关节的目标转矩 (地址 7-13)。
:param torques: 7 个 0-255 的整数值列表
"""
if len(torques) != _JOINT_COUNT:
raise ValueError(f"需要 {_JOINT_COUNT} 个关节转矩值,提供了 {len(torques)} 个。")
self._write_holding_registers(HR_ADDR["Torque_Start"], torques)
def set_speeds(self, speeds: List[int]):
"""
设置所有 7 个关节的目标速度 (地址 14-20)。
:param speeds: 7 个 0-255 的整数值列表
"""
if len(speeds) != _JOINT_COUNT:
raise ValueError(f"需要 {_JOINT_COUNT} 个关节速度值,提供了 {len(speeds)} 个。")
self._write_holding_registers(HR_ADDR["Speed_Start"], speeds)
def set_speed(self, speed:List[int] = [200] * 7):
self.set_speeds(speed)
def set_torque(self, torque: List[int] = [250] * 7):
self.set_torques(torque)
def set_current(self, current=None):
print("当前L7不支持设置电流", flush=True)
def get_current(self):
#print("当前L7不支持获取电流", flush=True)
return [-1] * 7
def get_state(self) -> List[int]:
return self.get_joint_positions()
def get_state_for_pub(self) -> List[int]:
return self.get_joint_positions()
def get_current_status(self) -> List[int]:
return self.get_joint_positions()
def get_speed(self) -> List[int]:
return self.get_current_speeds()
def get_joint_speed(self) -> List[int]:
return self.get_speed()
def get_touch_type(self) -> int:
return 2
def get_normal_force(self) -> List[int]:
return [-1] * 5
def get_tangential_force(self) -> List[int]:
return [-1] * 5
def get_approach_inc(self) -> List[int]:
return [-1] * 5
def get_touch(self) -> List[int]:
return [-1] * 5
def get_thumb_matrix_touch(self,sleep_time=0):
return self.get_pressure_matrix(finger_id=1)
def get_index_matrix_touch(self,sleep_time=0):
return self.get_pressure_matrix(finger_id=2)
def get_middle_matrix_touch(self,sleep_time=0):
return self.get_pressure_matrix(finger_id=3)
def get_ring_matrix_touch(self,sleep_time=0):
return self.get_pressure_matrix(finger_id=4)
def get_little_matrix_touch(self,sleep_time=0):
return self.get_pressure_matrix(finger_id=5)
def get_matrix_touch(self) -> List[List[int]]:
return self.get_thumb_matrix_touch(),self.get_index_matrix_touch(), self.get_middle_matrix_touch(), self.get_ring_matrix_touch(), self.get_little_matrix_touch()
def get_matrix_touch_v2(self) -> List[List[int]]:
return self.get_matrix_touch()
def get_torque(self) -> List[int]:
return self.get_current_torques()
def get_temperature(self) -> List[int]:
return self.get_temperatures()
def get_fault(self) -> List[int]:
return self.get_error_codes()
def get_serial_number(self):
return [0] * 6
def get_finger_order(self):
return ["thumb_cmc_pitch", "thumb_cmc_yaw", "index_mcp_pitch", "middle_mcp_pitch", "ring_mcp_pitch", "pinky_mcp_pitch", "thumb_cmc_roll"]
def show_fun_table(self):
pass
def clear_faults(self):
pass
# --------------------------------------------------
# 上下文管理
# --------------------------------------------------
def close(self):
"""断开 Modbus 连接。"""
if self.connected:
self.cli.close()
self.connected = False
print("Modbus 连接已断开。")
def __enter__(self):
return self
def __exit__(self, exc_type, exc_val, exc_tb):
self.close()
# ------------------- Demo/使用示例 -------------------
if __name__ == "__main__":
# --- 配置区域 ---
# 右手 Modbus ID: 0x27 (39)
# 左手 Modbus ID: 0x28 (40)
TARGET_HAND_ID = 0x28 # <--- 请根据需要修改为 0x27 或 0x28
PORT = "/dev/ttyUSB0" # <--- 请修改为您的实际串口,例如 'COM3'
try:
# 使用上下文管理器,确保连接自动关闭
with LinkerHandL7RS485(hand_id=TARGET_HAND_ID, modbus_port=PORT) as hand:
print("\n--- 1. 读取当前状态 ---")
# 读取当前关节位置、速度、转矩
angles = hand.get_joint_positions()
print(f"当前关节位置 (7DOF): {angles}")
speeds = hand.get_current_speeds()
print(f"当前关节速度: {speeds}")
# 读取传感器和错误信息
temps = hand.get_temperatures()
print(f"关节温度: {temps}")
errors = hand.get_error_codes()
print(f"关节错误码: {errors}")
# 读取版本
version_info = hand.get_version()
print(f"版本信息 (Hand_freedom, ..., hardware_version): {version_info}")
# --- 2. 写入指令示例 ---
print("\n--- 2. 写入指令示例 (设置所有关节到 128) ---")
# 假设要将所有关节位置设置到中间值 128
target_angles = [128] * _JOINT_COUNT
hand.set_joint_positions(target_angles)
print(f"写入目标角度: {target_angles}")
# 假设要设置所有关节的速度到 100
target_speeds = [100] * _JOINT_COUNT
hand.set_speeds(target_speeds)
print(f"写入目标速度: {target_speeds}")
# --- 3. 压力传感器读取示例 ---
print("\n--- 3. 压力传感器读取 (大拇指 1) ---")
thumb_matrix = hand.get_pressure_matrix(finger_id=1)
print(f"大拇指压力矩阵 (12x6):")
print(thumb_matrix)
except ConnectionError as e:
print(f"致命错误: 连接失败。{e}")
except RuntimeError as e:
print(f"致命错误: Modbus 操作失败。{e}")
except Exception as e:
print(f"捕获到未知异常: {e}")
@@ -0,0 +1,671 @@
#!/usr/bin/env python3
"""
O6 机械手 Modbus-RTU 控制类 (基于 pymodbus 3.5.1)
"""
import os
import time
from typing import List, Dict, Any # 引入 Any 来表示灵活的输入类型
import numpy as np
import logging
from threading import Lock # 用于线程安全和总线仲裁
# 导入 pymodbus 客户端
from pymodbus.client import ModbusSerialClient
from struct import error as StructError
logging.basicConfig(
level=logging.INFO,
format="[%(asctime)s] %(levelname)-8s %(message)s",
datefmt="%H:%M:%S"
)
# ------------------------------------------------------------------
# 读输入寄存器地址枚举(功能码 04,只读)- 按照 O6 协议文档定义
# ------------------------------------------------------------------
REG_RD_CURRENT_THUMB_PITCH = 0 # 大拇指弯曲角度(0-255,小=弯,大=伸)
REG_RD_CURRENT_THUMB_YAW = 1 # 大拇指横摆角度(0-255,小=靠掌心,大=远离)
REG_RD_CURRENT_INDEX_PITCH = 2 # 食指弯曲角度
REG_RD_CURRENT_MIDDLE_PITCH = 3 # 中指弯曲角度
REG_RD_CURRENT_RING_PITCH = 4 # 无名指弯曲角度
REG_RD_CURRENT_LITTLE_PITCH = 5 # 小拇指弯曲角度
REG_RD_CURRENT_THUMB_TORQUE = 6 # 大拇指弯曲转矩(0-255)
REG_RD_CURRENT_THUMB_YAW_TORQUE = 7 # 大拇指横摆转矩
REG_RD_CURRENT_INDEX_TORQUE = 8 # 食指转矩
REG_RD_CURRENT_MIDDLE_TORQUE = 9 # 中指转矩
REG_RD_CURRENT_RING_TORQUE = 10 # 无名指转矩
REG_RD_CURRENT_LITTLE_TORQUE = 11 # 小拇指转矩
REG_RD_CURRENT_THUMB_SPEED = 12 # 大拇指弯曲速度(0-255)
REG_RD_CURRENT_THUMB_YAW_SPEED = 13 # 大拇指横摆速度
REG_RD_CURRENT_INDEX_SPEED = 14 # 食指速度
REG_RD_CURRENT_MIDDLE_SPEED = 15 # 中指速度
REG_RD_CURRENT_RING_SPEED = 16 # 无名指速度
REG_RD_CURRENT_LITTLE_SPEED = 17 # 小拇指速度
REG_RD_THUMB_TEMP = 18 # 大拇指弯曲温度(0-70℃)
REG_RD_THUMB_YAW_TEMP = 19 # 大拇指横摆温度
REG_RD_INDEX_TEMP = 20 # 食指温度
REG_RD_MIDDLE_TEMP = 21 # 中指温度
REG_RD_RING_TEMP = 22 # 无名指温度
REG_RD_LITTLE_TEMP = 23 # 小拇指温度
REG_RD_THUMB_ERROR = 24 # 大拇指错误码
REG_RD_THUMB_YAW_ERROR = 25 # 大拇指横摆错误码
REG_RD_INDEX_ERROR = 26 # 食指错误码
REG_RD_MIDDLE_ERROR = 27 # 中指错误码
REG_RD_RING_ERROR = 28 # 无名指错误码
REG_RD_LITTLE_ERROR = 29 # 小拇指错误码
# 版本号/设备编号寄存器(地址 30-44,共15个寄存器)
REG_RD_HAND_FREEDOM = 30 # Hand_freedom - 设备编号 / 自由度(与机械手上标签相同)
REG_RD_HAND_VERSION = 31 # hand_version - 手版本
REG_RD_HAND_NUMBER_HIGH = 32 # hand_number_高位 - 设备编号(高字节)
REG_RD_HAND_NUMBER_MID = 33 # hand_number_中位 - 设备编号(中字节)
REG_RD_HAND_NUMBER_LOW = 34 # hand_number_低位 - 设备编号(低字节)
REG_RD_HAND_DIRECTION = 35 # hand_direction - 手方向(左/右)
REG_RD_HARDWARE_VERSION_HIGH = 36 # hardware_version_高位 - 硬件版本(高字节)
REG_RD_HARDWARE_VERSION_MID = 37 # hardware_version_中位 - 硬件版本(中字节)
REG_RD_HARDWARE_VERSION_LOW = 38 # hardware_version_低位 - 硬件版本(低字节)
REG_RD_SOFTWARE_VERSION_HIGH = 39 # software_version_高位 - 软件版本(高字节)
REG_RD_SOFTWARE_VERSION_MID = 40 # software_version_中位 - 软件版本(中字节)
REG_RD_SOFTWARE_VERSION_LOW = 41 # software_version_低位 - 软件版本(低字节)
REG_RD_MECHANICAL_VERSION_HIGH = 42 # mechanical_version_高位 - 机械版本(高字节)
REG_RD_MECHANICAL_VERSION_MID = 43 # mechanical_version_中位 - 机械版本(中字节)
REG_RD_MECHANICAL_VERSION_LOW = 44 # mechanical_version_低位 - 机械版本(低字节)
# 力传感器寄存器(地址 45-87+,动态范围)
REG_RD_PRESSURE_SENSING_ID = 45 # Pressure_Sensing_ID - 压力传感器ID (0-5)
REG_RD_PRESSURE_SENSING_SPEC = 46 # Pressure_Sensing_Specifications - 传感器数据规格
# ------------------------------------------------------------------
# 写保持寄存器地址枚举(功能码 16,读写)- 保持原样
# ------------------------------------------------------------------
REG_WR_THUMB_PITCH = 0 # 大拇指弯曲角度(0-255)
REG_WR_THUMB_YAW = 1 # 大拇指横摆角度
REG_WR_INDEX_PITCH = 2 # 食指弯曲角度
REG_WR_MIDDLE_PITCH = 3 # 中指弯曲角度
REG_WR_RING_PITCH = 4 # 无名指弯曲角度
REG_WR_LITTLE_PITCH = 5 # 小拇指弯曲角度
REG_WR_THUMB_TORQUE = 6 # 大拇指弯曲转矩
REG_WR_THUMB_YAW_TORQUE = 7 # 大拇指横摆转矩
REG_WR_INDEX_TORQUE = 8 # 食指转矩
REG_WR_MIDDLE_TORQUE = 9 # 中指转矩
REG_WR_RING_TORQUE = 10 # 无名指转矩
REG_WR_LITTLE_TORQUE = 11 # 小拇指转矩
REG_WR_THUMB_SPEED = 12 # 大拇指弯曲速度
REG_WR_THUMB_YAW_SPEED = 13 # 大拇指横摆速度
REG_WR_INDEX_SPEED = 14 # 食指速度
REG_WR_MIDDLE_SPEED = 15 # 中指速度
REG_WR_RING_SPEED = 16 # 无名指速度
REG_WR_LITTLE_SPEED = 17 # 小拇指速度
class LinkerHandO6RS485:
"""O6 机械手 Modbus-RTU 控制类,使用 pymodbus 3.5.1"""
TTL_TIMEOUT = 0.15 # 串口超时
FRAME_GAP = 0.030 # 30 ms
# KEYS for easy indexing
JOINT_KEYS = ["thumb_pitch", "thumb_yaw", "index_pitch",
"middle_pitch", "ring_pitch", "little_pitch"]
def __init__(self, hand_id=0x27, modbus_port="/dev/ttyUSB0", baudrate=115200):
self._id = hand_id
self._last_ts = 0.0 # 上一次帧结束时间
self._lock = Lock() # 总线访问锁
# 使用 pymodbus 3.x 客户端
self.cli = ModbusSerialClient(
port=modbus_port,
baudrate=baudrate,
bytesize=8,
parity="N",
stopbits=1,
timeout=self.TTL_TIMEOUT,
handle_local_echo=False
)
try:
logging.info(f"Connecting to Modbus RTU on {modbus_port}...")
self.connected = self.cli.connect()
if not self.connected:
raise ConnectionError(f"RS485 connect fail to {modbus_port}")
logging.info("Connection successful.")
except Exception as e:
logging.error(f"Initialization failed: {e}")
raise
# ----------------------------------------------------------
# 辅助方法
# ----------------------------------------------------------
def _bus_free(self):
"""保证距离上一帧 ≥ 30 ms"""
with self._lock:
elapse = time.perf_counter() - self._last_ts
if elapse < self.FRAME_GAP:
time.sleep(self.FRAME_GAP - elapse)
def _execute_read(self, address: int, count: int) -> List[int]:
"""执行 Modbus 读取操作 (功能码 04), 带总线仲裁。"""
self._bus_free()
rsp = self.cli.read_input_registers(
address=address,
count=count,
slave=self._id
)
self._last_ts = time.perf_counter()
if rsp.isError():
raise RuntimeError(f"Modbus Read Failed (Addr={address}, Count={count}): {rsp}")
# 确保返回的值是 Python 原生整数
return [int(reg) for reg in rsp.registers]
def _execute_write(self, address: int, values: List[int]):
"""执行 Modbus 批量写入操作 (功能码 16), 带总线仲裁。"""
self._bus_free()
# values 必须是 Python 原生整数列表
rsp = self.cli.write_registers(
address=address,
values=values,
slave=self._id
)
self._last_ts = time.perf_counter()
if rsp.isError():
raise RuntimeError(f"Modbus Write Failed (Addr={address}, Values={values}): {rsp}")
# ----------------------------------------------------------
# 批量读取和数据封装(优化通信效率)
# ----------------------------------------------------------
def read_all_angles(self) -> List[int]:
return self._execute_read(REG_RD_CURRENT_THUMB_PITCH, 6)
def read_all_torques(self) -> List[int]:
return self._execute_read(REG_RD_CURRENT_THUMB_TORQUE, 6)
def read_all_speeds(self) -> List[int]:
return self._execute_read(REG_RD_CURRENT_THUMB_SPEED, 6)
def read_all_temperatures(self) -> List[int]:
return self._execute_read(REG_RD_THUMB_TEMP, 6)
def read_all_errors(self) -> List[int]:
return self._execute_read(REG_RD_THUMB_ERROR, 6)
# ----------------------------------------------------------
# 版本号/设备编号读取(按照协议文档:地址30-44,共15个寄存器)
# ----------------------------------------------------------
def read_all_versions(self) -> str:
"""一次性读取全部15个寄存器 (地址30-44),返回以 '.' 连接的字符串。
按 O6 协议文档的版本号格式返回:
hand_freedom.hand_version.hand_number_high.hand_number_mid.hand_number_low
.hand_direction.hardware_ver_hardware_ver_m.hardware_ver_l
.software_ver_h.software_ver_m.software_ver_l
.mechanical_ver_h.mechanical_ver_m.mechanical_ver_l
例如: "6.1.001.002.003.0.1.2.3.4.5.6.7.8.9"
"""
raw = self._execute_read(REG_RD_HAND_FREEDOM, 15)
return ".".join(str(v) for v in raw)
# ----------------------------------------------------------
# 基于 read_all_versions() 的设备编号解析方法
# ----------------------------------------------------------
def _parse_versions(self):
"""解析 read_all_versions() 返回的字符串为字典"""
parts = self.read_all_versions().split(".")
if len(parts) < 15:
return {}
return {
"hand_freedom": int(parts[0]),
"hand_version": int(parts[1]),
"hand_number_high": int(parts[2]),
"hand_number_mid": int(parts[3]),
"hand_number_low": int(parts[4]),
"hand_direction": int(parts[5]),
"hw_ver_high": int(parts[6]),
"hw_ver_mid": int(parts[7]),
"hw_ver_low": int(parts[8]),
"sw_ver_high": int(parts[9]),
"sw_ver_mid": int(parts[10]),
"sw_ver_low": int(parts[11]),
"mech_ver_high": int(parts[12]),
"mech_ver_mid": int(parts[13]),
"mech_ver_low": int(parts[14]),
}
def get_device_number(self) -> str:
"""获取设备编号(与机械手上标签相同)。格式:高位+中位+低位 拼接的字符串。"""
v = self._parse_versions()
if not v:
return "0"
high, mid, low = v["hand_number_high"], v["hand_number_mid"], v["hand_number_low"]
# 将每个字节格式化为无前导零的整数(与标签显示一致)
return f"{high}{mid}{low}"
def get_device_number_value(self) -> int:
"""获取设备编号数值"""
v = self._parse_versions()
if not v:
return 0
high, mid, low = v["hand_number_high"], v["hand_number_mid"], v["hand_number_low"]
return high * 65536 + mid * 256 + low
def get_hardware_version(self) -> str:
"""获取硬件版本号。格式:高.中.低"""
v = self._parse_versions()
if not v:
return "0.0.0"
return f"{v['hw_ver_high']}.{v['hw_ver_mid']}.{v['hw_ver_low']}"
def get_software_version(self) -> str:
"""获取软件版本号。格式:高.中.低"""
v = self._parse_versions()
if not v:
return "0.0.0"
return f"{v['sw_ver_high']}.{v['sw_ver_mid']}.{v['sw_ver_low']}"
def get_mechanical_version(self) -> str:
"""获取机械版本号。格式:高.中.低"""
v = self._parse_versions()
if not v:
return "0.0.0"
return f"{v['mech_ver_high']}.{v['mech_ver_mid']}.{v['mech_ver_low']}"
def get_hand_freedom(self) -> int:
"""获取自由度(与机械手上标签相同)"""
v = self._parse_versions()
return v.get("hand_freedom", 0)
def get_hand_version_raw(self) -> int:
"""获取手版本原始值"""
v = self._parse_versions()
return v.get("hand_version", 0)
def get_hand_direction(self) -> str:
"""获取手方向,转换为字符:76→'L', 82→'R'"""
v = self._parse_versions()
val = v.get("hand_direction", 0)
if val in (76, 82):
return chr(val)
# fallback: 直接转为字符(如果值在可打印范围内)
return chr(val) if 32 < val < 128 else f'Unknown({val})'
# ----------------------------------------------------------
# 只读属性(单个寄存器读取)
# ----------------------------------------------------------
def _read_reg(self, addr: int) -> int:
"""读单个输入寄存器(功能码 04),带 30 ms 帧间隔"""
return self._execute_read(addr, 1)[0]
def get_thumb_pitch(self) -> int: return self._read_reg(REG_RD_CURRENT_THUMB_PITCH)
def get_thumb_yaw(self) -> int: return self._read_reg(REG_RD_CURRENT_THUMB_YAW)
def get_index_pitch(self) -> int: return self._read_reg(REG_RD_CURRENT_INDEX_PITCH)
def get_middle_pitch(self) -> int: return self._read_reg(REG_RD_CURRENT_MIDDLE_PITCH)
def get_ring_pitch(self) -> int: return self._read_reg(REG_RD_CURRENT_RING_PITCH)
def get_little_pitch(self) -> int: return self._read_reg(REG_RD_CURRENT_LITTLE_PITCH)
def get_thumb_torque(self) -> int: return self._read_reg(REG_RD_CURRENT_THUMB_TORQUE)
def get_thumb_yaw_torque(self) -> int: return self._read_reg(REG_RD_CURRENT_THUMB_YAW_TORQUE)
def get_index_torque(self) -> int: return self._read_reg(REG_RD_CURRENT_INDEX_TORQUE)
def get_middle_torque(self) -> int: return self._read_reg(REG_RD_CURRENT_MIDDLE_TORQUE)
def get_ring_torque(self) -> int: return self._read_reg(REG_RD_CURRENT_RING_TORQUE)
def get_little_torque(self) -> int: return self._read_reg(REG_RD_CURRENT_LITTLE_TORQUE)
def get_thumb_speed(self) -> int: return self._read_reg(REG_RD_CURRENT_THUMB_SPEED)
def get_thumb_yaw_speed(self) -> int: return self._read_reg(REG_RD_CURRENT_THUMB_YAW_SPEED)
def get_index_speed(self) -> int: return self._read_reg(REG_RD_CURRENT_INDEX_SPEED)
def get_middle_speed(self) -> int: return self._read_reg(REG_RD_CURRENT_MIDDLE_SPEED)
def get_ring_speed(self) -> int: return self._read_reg(REG_RD_CURRENT_RING_SPEED)
def get_little_speed(self) -> int: return self._read_reg(REG_RD_CURRENT_LITTLE_SPEED)
def get_thumb_temp(self) -> int: return self._read_reg(REG_RD_THUMB_TEMP)
def get_thumb_yaw_temp(self) -> int: return self._read_reg(REG_RD_THUMB_YAW_TEMP)
def get_index_temp(self) -> int: return self._read_reg(REG_RD_INDEX_TEMP)
def get_middle_temp(self) -> int: return self._read_reg(REG_RD_MIDDLE_TEMP)
def get_ring_temp(self) -> int: return self._read_reg(REG_RD_RING_TEMP)
def get_little_temp(self) -> int: return self._read_reg(REG_RD_LITTLE_TEMP)
def get_thumb_error(self) -> int: return self._read_reg(REG_RD_THUMB_ERROR)
def get_thumb_yaw_error(self) -> int: return self._read_reg(REG_RD_THUMB_YAW_ERROR)
def get_index_error(self) -> int: return self._read_reg(REG_RD_INDEX_ERROR)
def get_middle_error(self) -> int: return self._read_reg(REG_RD_MIDDLE_ERROR)
def get_ring_error(self) -> int: return self._read_reg(REG_RD_RING_ERROR)
def get_little_error(self) -> int: return self._read_reg(REG_RD_LITTLE_ERROR)
# ----------------------------------------------------------
# 批量 Getter (使用 read_all_... 方法)
# ----------------------------------------------------------
def get_state(self) -> List[int]:
"""获取手指电机状态 (角度)"""
return self.read_all_angles()
def get_torque(self) -> List[int]:
"""获取当前扭矩"""
return self.read_all_torques()
def get_speed(self) -> List[int]:
"""获取当前速度"""
return self.read_all_speeds()
def get_temperature(self) -> List[int]:
"""获取当前电机温度"""
return self.read_all_temperatures()
def get_fault(self) -> List[int]:
"""获取当前电机故障码"""
return self.read_all_errors()
def get_version(self) -> str:
"""获取当前固件版本号(已转换为字符串格式)"""
return self.read_all_versions()
# ----------------------------------------------------------
# 写保持寄存器 (单个寄存器写入)
# ----------------------------------------------------------
def _write_reg(self, addr: int, value: int):
"""写单个保持寄存器(功能码 16),带 30 ms 帧间隔"""
if not 0 <= value <= 255:
raise ValueError("value must be 0-255")
# 确保 value 是 Python 原生 int
self._execute_write(addr, [int(value)])
def _write_regs(self, addr: int, values: List[int]):
"""写多个保持寄存器(功能码 16),带 30 ms 帧间隔"""
# 此时 values 应该已经是经过 is_valid_6xuint8 验证并转换的 Python int 列表
if not all(0 <= v <= 255 for v in values):
# 这行理论上不应触发,因为上层调用已校验
raise ValueError("All values must be 0-255")
self._execute_write(addr, values)
def set_thumb_pitch(self, v: int): self._write_reg(REG_WR_THUMB_PITCH, v)
def set_thumb_yaw(self, v: int): self._write_reg(REG_WR_THUMB_YAW, v)
def set_index_pitch(self, v: int): self._write_reg(REG_WR_INDEX_PITCH, v)
def set_middle_pitch(self, v: int): self._write_reg(REG_WR_MIDDLE_PITCH, v)
def set_ring_pitch(self, v: int): self._write_reg(REG_WR_RING_PITCH, v)
def set_little_pitch(self, v: int): self._write_reg(REG_WR_LITTLE_PITCH, v)
def set_thumb_torque(self, v: int): self._write_reg(REG_WR_THUMB_TORQUE, v)
def set_thumb_yaw_torque(self, v: int): self._write_reg(REG_WR_THUMB_YAW_TORQUE, v)
def set_index_torque(self, v: int): self._write_reg(REG_WR_INDEX_TORQUE, v)
def set_middle_torque(self, v: int): self._write_reg(REG_WR_MIDDLE_TORQUE, v)
def set_ring_torque(self, v: int): self._write_reg(REG_WR_RING_TORQUE, v)
def set_little_torque(self, v: int): self._write_reg(REG_WR_LITTLE_TORQUE, v)
def set_thumb_speed(self, v: int): self._write_reg(REG_WR_THUMB_SPEED, v)
def set_thumb_yaw_speed(self, v: int): self._write_reg(REG_WR_THUMB_YAW_SPEED, v)
def set_index_speed(self, v: int): self._write_reg(REG_WR_INDEX_SPEED, v)
def set_middle_speed(self, v: int): self._write_reg(REG_WR_MIDDLE_SPEED, v)
def set_ring_speed(self, v: int): self._write_reg(REG_WR_RING_SPEED, v)
def set_little_speed(self, v: int): self._write_reg(REG_WR_LITTLE_SPEED, v)
# ----------------------------------------------------------
# 固定函数 (采用批量写入优化)
# ----------------------------------------------------------
def is_valid_6xuint8(self, lst: List[Any]) -> bool:
"""
验证6个0-255的整数列表。
允许输入包含浮点数、NumPy整数等可转换为 int 的类型,并进行范围校验。
"""
if not (isinstance(lst, list) and len(lst) == 6):
return False
try:
# 关键:尝试将所有元素转换为 Python 原生 int
int_values = [int(v) for v in lst]
except (ValueError, TypeError):
# 转换失败,列表中包含不可转换的元素
return False
# 校验转换后的整数列表是否在 0-255 范围内
return all(0 <= x <= 255 for x in int_values)
def set_joint_positions(self, joint_angles: List[Any] = None):
joint_angles = joint_angles or [0] * 6
if not self.is_valid_6xuint8(joint_angles):
logging.error(f"Invalid joint angles received: {joint_angles}")
raise ValueError("Joint angles must be a list of 6 values between 0 and 255 (convertible to int).")
# 强制转换为 Modbus 兼容的 Python 原生 int 列表
int_angles = [int(v) for v in joint_angles]
# 批量写入 6 个角度寄存器 (从 REG_WR_THUMB_PITCH 地址 0 开始, count=6)
self._write_regs(REG_WR_THUMB_PITCH, int_angles)
def set_speed(self, speed: List[Any] = None):
speed = speed or [200] * 6
if not self.is_valid_6xuint8(speed):
logging.error(f"Invalid speed values received: {speed}")
raise ValueError("Speed values must be a list of 6 values between 0 and 255 (convertible to int).")
int_speed = [int(v) for v in speed]
self._write_regs(REG_WR_THUMB_SPEED, int_speed)
def set_torque(self, torque: List[Any] = None):
torque = torque or [200] * 6
if not self.is_valid_6xuint8(torque):
logging.error(f"Invalid torque values received: {torque}")
raise ValueError("Torque values must be a list of 6 values between 0 and 255 (convertible to int).")
int_torque = [int(v) for v in torque]
self._write_regs(REG_WR_THUMB_TORQUE, int_torque)
# ... (其他固定函数保持不变) ...
def set_current(self, current: List[int] = None):
print("当前O6不支持设置电流", flush=True)
pass
def get_state_for_pub(self) -> list:
return self.get_state()
def get_current_status(self) -> list:
return self.get_state()
def get_joint_speed(self) -> list:
return self.get_speed()
def get_touch_type(self) -> list:
return -1
def get_normal_force(self) -> list:
return [-1] * 5
def get_tangential_force(self) -> list:
return [-1] * 5
def get_approach_inc(self) -> list:
return [-1] * 5
def get_touch(self) -> list:
return [-1] * 5
def _pressure(self, finger: int) -> np.ndarray:
"""
读取压力传感器数据 (10x4矩阵)
"""
rows = 10 # 10行
cols = 4 # 4列
finger_size = rows * cols # 40个数据点
# modbus 地址 (按O6协议文档)
write_address = 18 # 写入手指选择 (保持寄存器)
read_address = 47 # 读取压力数据 (输入寄存器)
read_count = 40 # 读取40个寄存器
# 0. 参数校验
if finger < 1 or finger > 5:
raise ValueError(f"无效的手指编号: {finger}。手指编号应在 1 到 5 之间。")
# 1. 写入手指选择寄存器 (地址18)
time.sleep(0.01)
self._write_reg(write_address, finger)
# 2. 读取压力数据
data = self._execute_read(read_address, read_count)
# 3. 转换为numpy数组并重塑为10x4矩阵
finger_matrix = np.array(data, dtype=np.uint8).reshape((rows, cols))
return finger_matrix
def get_thumb_matrix_touch(self,sleep_time=0):
return np.array(self._pressure(1), dtype=np.uint8)
def get_index_matrix_touch(self,sleep_time=0):
return np.array(self._pressure(2), dtype=np.uint8)
def get_middle_matrix_touch(self,sleep_time=0):
return np.array(self._pressure(3), dtype=np.uint8)
def get_ring_matrix_touch(self,sleep_time=0):
return np.array(self._pressure(4), dtype=np.uint8)
def get_little_matrix_touch(self,sleep_time=0):
return np.array(self._pressure(5), dtype=np.uint8)
def get_matrix_touch(self) -> list:
thumb_matrix = np.full((12, 6), -1)
index_matrix = np.full((12, 6), -1)
middle_matrix = np.full((12, 6), -1)
ring_matrix = np.full((12, 6), -1)
little_matrix = np.full((12, 6), -1)
return thumb_matrix , index_matrix , middle_matrix , ring_matrix , little_matrix
def get_serial_number(self):
return "["+str(self.get_hand_freedom())+"-"+str(self.get_mechanical_version())+"-"+str(self.get_device_number())+"-"+str(self.get_hand_direction())+"]"
def get_matrix_touch_v2(self) -> list:
return self.get_matrix_touch()
def get_finger_order(self):
return ["thumb_cmc_pitch", "thumb_cmc_yaw", "index_mcp_pitch", "middle_mcp_pitch", "ring_mcp_pitch", "pinky_mcp_pitch"]
def clear_faults(self):
pass
def close(self):
if hasattr(self, 'connected') and self.connected:
self.cli.close()
self.connected = False
logging.info("Modbus connection closed.")
def __enter__(self):
return self
def __exit__(self, exc_type, exc_val, exc_tb):
self.close()
# ----------------------------------------------------------
# 便捷函数
# ----------------------------------------------------------
def set_all_fingers(self, pitch: int):
"""同时设置五指弯曲角度(0-255),使用批量写入"""
# 允许传入 float/numpy int 等可转换为 int 的类型
try:
pitch_int = int(pitch)
except (ValueError, TypeError):
raise ValueError("Pitch value must be a number convertible to int (0-255)")
if not 0 <= pitch_int <= 255:
raise ValueError("Pitch value must be 0-255")
# 批量设置所有 6 个关节的角度
self.set_joint_positions([pitch_int] * 6)
def relax(self):
"""全部手指伸直(255)"""
self.set_all_fingers(255)
def fist(self):
"""全部手指弯曲(0)"""
self.set_all_fingers(0)
def dump_status(self):
"""打印当前所有可读状态 (使用批量读取优化)"""
print("--------- O6 Hand Status ---------")
angles = self.get_state()
temps = self.get_temperature()
errors = self.get_fault()
# 解析版本号字符串
v = self._parse_versions()
if v:
device_num_str = f"{v['hand_number_high']}{v['hand_number_mid']}{v['hand_number_low']}"
hw_ver = f"{v['hw_ver_high']}.{v['hw_ver_mid']}.{v['hw_ver_low']}"
sw_ver = f"{v['sw_ver_high']}.{v['sw_ver_mid']}.{v['sw_ver_low']}"
mech_ver = f"{v['mech_ver_high']}.{v['mech_ver_mid']}.{v['mech_ver_low']}"
print(f"Device Number: {device_num_str}")
print(f"HWSW Version: HW={hw_ver} SW={sw_ver}")
print(f"Mechanical Ver: {mech_ver}")
print(f"Hand Freedom: {v['hand_freedom']}")
print(f"Full Version: {self.read_all_versions()}")
print(f"Joint Angles: {angles}")
print(f"Temperature: {temps}℃")
print(f"Error Codes: {errors}")
print("----------------------------------")
# ------------------------------------------------------------------
# 命令行快速测试
# ------------------------------------------------------------------
if __name__ == "__main__":
import argparse
# 假设默认站号是 0x27 (39)
DEFAULT_HAND_ID = 0x27
parser = argparse.ArgumentParser(description="O6 Hand Modbus tester (using pymodbus 3.5.1)")
parser.add_argument("-p", "--port", required=True, help="串口, 如 /dev/ttyUSB0")
parser.add_argument("-l", "--left", action="store_const", const=0x28, default=DEFAULT_HAND_ID, dest='hand_id', help="左手 (0x28),默认右手 (0x27)")
args = parser.parse_args()
try:
# 使用 with 语句确保连接关闭,这是 pymodbus 的推荐用法
with LinkerHandO6RS485(hand_id=args.hand_id, modbus_port=args.port, baudrate=115200) as hand:
hand.dump_status()
# 测试新增的设备编号读取方法
print("\n--- 设备信息 ---")
print(f"设备编号(字符串): {hand.get_device_number()}")
print(f"设备编号(数值): {hand.get_device_number_value()}")
print(f"硬件版本号: {hand.get_hardware_version()}")
print(f"软件版本号: {hand.get_software_version()}")
print(f"机械版本号: {hand.get_mechanical_version()}")
print("\n执行 relax → 伸直")
hand.relax()
time.sleep(1)
print("执行 fist → 握拳")
hand.fist()
time.sleep(1)
hand.relax()
print("演示完成")
except ConnectionError as e:
print(f"连接错误: {e}")
except RuntimeError as e:
print(f"Modbus 运行时错误: {e}")
except StructError as e:
print(f"数据结构错误 (请检查输入数据类型是否为原生int): {e}")
except Exception as e:
print(f"发生其他错误: {e}")
@@ -0,0 +1,355 @@
#!/usr/bin/env python3
# -*- coding: utf-8 -*-
import sys, os, time,threading
sys.path.append(os.path.dirname(os.path.abspath(__file__)))
from utils.mapping import *
from utils.color_msg import ColorMsg
from utils.load_write_yaml import LoadWriteYaml
from utils.open_can import OpenCan
class LinkerHandApi:
def __init__(self, hand_type="left", hand_joint="L10", modbus = "None",can="can0"): # Ubuntu:can0 win:PCAN_USBBUS1
self.last_position = []
self.yaml = LoadWriteYaml()
self.config = self.yaml.load_setting_yaml()
self.version = self.config["VERSION"]
self.can = can
ColorMsg(msg=f"Current SDK version: {self.version}", color="green")
self.hand_joint = hand_joint
self.hand_type = hand_type
self.is_palm_touch = -1 # 是否为全掌压力传感器
if self.hand_type == "left":
self.hand_id = 0x28 # Left hand
if self.hand_type == "right":
self.hand_id = 0x27 # Right hand
if self.hand_joint.upper() == "O6":
if modbus != "None":
from core.rs485.linker_hand_o6_rs485 import LinkerHandO6RS485
self.hand = LinkerHandO6RS485(hand_id=self.hand_id,modbus_port=modbus,baudrate=115200)
else:
from core.can.linker_hand_o6_can import LinkerHandO6Can
self.hand = LinkerHandO6Can(can_id=self.hand_id,can_channel=self.can, yaml=self.yaml)
if self.hand_joint == "L6":
if modbus != "None":
from core.rs485.linker_hand_l6_rs485 import LinkerHandL6RS485
self.hand = LinkerHandL6RS485(hand_id=self.hand_id,modbus_port=modbus,baudrate=115200)
else:
from core.can.linker_hand_l6_can import LinkerHandL6Can
self.hand = LinkerHandL6Can(can_id=self.hand_id,can_channel=self.can, yaml=self.yaml)
if self.hand_joint == "L7":
if modbus != "None":
from core.rs485.linker_hand_l7_rs485 import LinkerHandL7RS485
self.hand = LinkerHandL7RS485(hand_id=self.hand_id,modbus_port=modbus,baudrate=115200)
else:
from core.can.linker_hand_l7_can import LinkerHandL7Can
self.hand = LinkerHandL7Can(can_id=self.hand_id,can_channel=self.can, yaml=self.yaml)
if self.hand_joint == "L10":
if modbus != "None":
from core.rs485.linker_hand_l10_rs485 import LinkerHandL10RS485
self.hand = LinkerHandL10RS485(hand_id=self.hand_id,modbus_port=modbus,baudrate=115200)
else:
from core.can.linker_hand_l10_can import LinkerHandL10Can
self.hand = LinkerHandL10Can(can_id=self.hand_id,can_channel=self.can, yaml=self.yaml)
if self.hand_joint == "L20":
from core.can.linker_hand_l20_can import LinkerHandL20Can
self.hand = LinkerHandL20Can(can_id=self.hand_id,can_channel=self.can, yaml=self.yaml)
if self.hand_joint == "G20":
from core.can.linker_hand_g20_can import LinkerHandG20Can
self.hand = LinkerHandG20Can(can_id=self.hand_id,can_channel=self.can, yaml=self.yaml)
time.sleep(0.01)
self.is_palm_touch = self.hand.get_touch_sensor_type()
ColorMsg(msg=f"传感器类型:{self.is_palm_touch}")
if self.hand_joint == "L21":
from core.can.linker_hand_l21_can import LinkerHandL21Can
self.hand = LinkerHandL21Can(can_id=self.hand_id,can_channel=self.can, yaml=self.yaml)
if self.hand_joint == "L25":
from core.can.linker_hand_l25_can import LinkerHandL25Can
self.hand = LinkerHandL25Can(can_id=self.hand_id,can_channel=self.can, yaml=self.yaml)
# Open can0
if sys.platform == "linux" and modbus=="None":
self.open_can = OpenCan(load_yaml=self.yaml)
self.open_can.open_can(self.can)
self.is_can = self.open_can.is_can_up_sysfs(interface=self.can)
if not self.is_can:
ColorMsg(msg=f"{self.can} interface is not open", color="red")
sys.exit(1)
version = self.get_embedded_version()
self.serial_number = self.get_serial_number()
if version == None or len(version) == 0:
ColorMsg(msg="Warning: Hardware version number not recognized, it is recommended to terminate the program and re insert USB to CAN conversion", color="yellow")
else:
ColorMsg(msg=f"Embedded:{version}", color="green")
ColorMsg(msg=f"Linker Hand Serial Number: {self.serial_number}", color="green")
# Five-finger movement
def finger_move(self, pose=[]):
'''
Five-finger movement
@params: pose list L7 len(7) | L10 len(10) | L20 len(20) | L25 len(25) 0~255
'''
if len(pose) == 0:
return
pose = [int(v) for v in pose]
if any(not isinstance(x, (int, float)) or x < 0 or x > 255 for x in pose):
ColorMsg(msg=f"The numerical range cannot be less than 0 or greater than 255",color="red")
return
if (self.hand_joint.upper() == "O6" or self.hand_joint.upper() == "L6") and len(pose) == 6:
self.hand.set_joint_positions(pose)
elif self.hand_joint == "L7" and len(pose) == 7:
self.hand.set_joint_positions(pose)
elif self.hand_joint == "L10" and len(pose) == 10:
self.hand.set_joint_positions(pose)
elif self.hand_joint == "L20" and len(pose) == 20:
self.hand.set_joint_positions(pose)
elif self.hand_joint == "G20" and len(pose) == 20:
self.hand.set_joint_positions(pose)
elif self.hand_joint == "L21" and len(pose) == 25:
self.hand.set_joint_positions(pose)
elif self.hand_joint == "L25" and len(pose) == 25:
self.hand.set_joint_positions(pose)
else:
ColorMsg(msg=f"Current LinkerHand is {self.hand_type}{self.hand_joint}, action sequence is {pose}, does not match", color="red")
self.last_position = pose
def _get_normal_force(self):
'''# Get normal force'''
self.hand.get_normal_force()
def _get_tangential_force(self):
'''# Get tangential force'''
self.hand.get_tangential_force()
def _get_tangential_force_dir(self):
'''# Get tangential force direction'''
self.hand.get_tangential_force_dir()
def _get_approach_inc(self):
'''# Get approach increment'''
self.hand.get_approach_inc()
def set_speed(self, speed=[100]*5):
'''# Set speed'''
has_non_int = any(not isinstance(x, (int, float)) or x < 0 or x > 255 for x in speed)
if has_non_int:
print("Set Speed The numerical range can only be positive integers or floating-point numbers between 0 and 255", flush=True)
return
if len(speed) < 5:
print("数据长度不够,至少5个元素", flush=True)
return
if self.hand_joint == "L7" and len(speed) < 7:
print("数据长度不够,至少7个元素", flush=True)
return
ColorMsg(msg=f"{self.hand_type} {self.hand_joint} set speed to {speed}", color="green")
self.hand.set_speed(speed=speed)
def set_joint_speed(self, speed=[100]*5):
'''Set speed by topic'''
if len(speed) == 0:
return
if any(not isinstance(x, (int, float)) or x < 10 or x > 255 for x in speed):
ColorMsg(msg=f"The numerical range cannot be less than 10 or greater than 255",color="red")
return
self.hand.set_speed(speed=speed)
def set_torque(self, torque=[180] * 5):
'''Set maximum torque'''
has_non_int = any(not isinstance(x, (int, float)) or x < 0 or x > 255 for x in torque)
if has_non_int:
print("Set Torque The numerical range can only be positive integers or floating-point numbers between 0 and 255", flush=True)
return
if len(torque) < 5:
print("数据长度不够,至少5个元素", flush=True)
return
if self.hand_joint == "L7" and len(torque) < 7:
print("数据长度不够,至少7个元素", flush=True)
return
if (self.hand_joint == "L6" or self.hand_joint == "O6") and len(torque) != 6:
print("L6 or O6数据长度错误,至少6个元素", flush=True)
return
ColorMsg(msg=f"{self.hand_type} {self.hand_joint} set maximum torque to {torque}", color="green")
return self.hand.set_torque(torque=torque)
def set_current(self, current=[250] * 5):
'''Set current L7/L10/L25 not supported'''
if any(not isinstance(x, (int, float)) or x < 0 or x > 255 for x in current):
print("Set Current The numerical range can only be positive integers or floating-point numbers between 0 and 255", flush=True)
return
if self.hand_joint == "L20":
return self.hand.set_current(current=current)
else:
pass
def get_embedded_version(self):
'''Get embedded version'''
return self.hand.get_version()
def get_serial_number(self):
'''Get serial number'''
try:
return self.hand.sn
except:
return self.hand.get_serial_number()
def get_current(self):
'''Get current'''
return self.hand.get_current()
def get_state(self):
'''Get current joint state'''
return self.hand.get_current_status()
def get_state_for_pub(self):
return self.hand.get_current_pub_status()
def get_speed(self):
'''Get speed'''
return self.hand.get_speed()
def get_joint_speed(self):
speed = []
if self.hand_joint.upper() == "O6" or self.hand_joint.upper() == "L6":
return self.hand.get_speed()
elif self.hand_joint == "L7":
return self.hand.get_speed()
elif self.hand_joint == "L10":
speed = self.hand.get_speed()
return speed
elif self.hand_joint == "G20":
return self.hand.get_speed()
elif self.hand_joint == "L20":
speed = self.hand.get_speed()
return [255, speed[1], speed[2], speed[3], speed[4], 255, 255, 255, 255, 255, speed[0], 255, 255, 255, 255, 255, 255, 255, 255, 255]
elif self.hand_joint == "L21":
return self.hand.get_speed()
elif self.hand_joint == "L25":
return self.hand.get_speed()
def get_touch_type(self):
'''Get touch type'''
try:
return self.hand.touch_type
except:
return self.hand.get_touch_type()
def get_force(self):
'''Get normal force, tangential force, tangential force direction, approach sensing data'''
self._get_normal_force()
self._get_tangential_force()
self._get_tangential_force_dir()
self._get_approach_inc()
return self.hand.get_force()
def get_touch(self):
'''Get touch data'''
return self.hand.get_touch()
def get_matrix_touch(self):
return self.hand.get_matrix_touch()
def get_matrix_touch_v2(self):
return self.hand.get_matrix_touch_v2()
def get_thumb_matrix_touch(self,sleep_time=0):
if sleep_time > 0:
return self.hand.get_thumb_matrix_touch(sleep_time=sleep_time)
else:
return self.hand.get_thumb_matrix_touch()
def get_index_matrix_touch(self,sleep_time=0):
if sleep_time > 0:
return self.hand.get_index_matrix_touch(sleep_time=sleep_time)
else:
return self.hand.get_index_matrix_touch()
def get_middle_matrix_touch(self,sleep_time=0):
if sleep_time > 0:
return self.hand.get_middle_matrix_touch(sleep_time=sleep_time)
else:
return self.hand.get_middle_matrix_touch()
def get_ring_matrix_touch(self,sleep_time=0):
if sleep_time > 0:
return self.hand.get_ring_matrix_touch(sleep_time=sleep_time)
else:
return self.hand.get_ring_matrix_touch()
def get_little_matrix_touch(self,sleep_time=0):
if sleep_time > 0:
return self.hand.get_little_matrix_touch(sleep_time=sleep_time)
else:
return self.hand.get_little_matrix_touch()
def get_palm_matrix_touch(self,sleep_time=0):
if self.is_palm_touch == 5:
if sleep_time > 0:
return self.hand.get_palm_matrix_touch(sleep_time=sleep_time)
else:
return self.hand.get_palm_matrix_touch()
def get_torque(self):
'''Get current maximum torque'''
return self.hand.get_torque()
def get_temperature(self):
'''Get current motor temperature'''
return self.hand.get_temperature()
def get_fault(self):
'''Get motor fault code'''
return self.hand.get_fault()
def clear_faults(self):
'''Clear motor fault codes Not supported yet, currently only supports L20'''
self.hand.clear_faults()
return [0] * 5
def set_enable(self):
'''Set motor enable Only supports L25'''
if self.hand_joint == "L25":
self.hand.set_enable_mode()
else:
pass
def set_disable(self):
'''Set motor disable Only supports L25'''
if self.hand_joint == "L25":
self.hand.set_disability_mode()
else:
pass
def get_finger_order(self):
'''Get finger motor order'''
# if self.hand_joint == "L21" or self.hand_joint == "L25" or self.hand_joint == "G20":
# return self.hand.get_finger_order()
# else:
# return []
return self.hand.get_finger_order()
def range_to_arc_left(self, state, hand_joint):
return range_to_arc_left(left_range=state, hand_joint=hand_joint)
def range_to_arc_right(self, state, hand_joint):
return range_to_arc_right(right_range=state, hand_joint=hand_joint)
def arc_to_range_left(self,state,hand_joint):
return arc_to_range_left(hand_arc_l=state,hand_joint=hand_joint)
def arc_to_range_right(self,state,hand_joint):
return arc_to_range_right(right_arc=state,hand_joint=hand_joint)
def show_fun_table(self):
self.hand.show_fun_table()
def close_can(self):
if sys.platform == "linux" and modbus=="None":
self.open_can.close_can(can=self.can)
if __name__ == "__main__":
hand = LinkerHandApi(hand_type="right", hand_joint="L10")
@@ -0,0 +1,27 @@
#! /usr/bin/env python3
import time
class ColorMsg():
def __init__(self,msg: str,color: str = '', timestamp: bool = True) -> None:
self.msg = msg
self.color = color
self.timestamp = timestamp
self.colorMsg(msg=self.msg, color=self.color, timestamp=self.timestamp)
def colorMsg(self,msg: str, color: str = '', timestamp: bool = True):
str = ""
if timestamp:
str += time.strftime('%Y-%m-%d %H:%M:%S',
time.localtime(time.time())) + " "
if color == "red":
str += "\033[1;31;40m"
elif color == "green":
str += "\033[1;32;40m"
elif color == "yellow":
str += "\033[1;33;40m"
else:
print(str + msg, flush=True)
return
str += msg + "\033[0m"
print(str, flush=True)
@@ -0,0 +1,81 @@
'''
Author: HJX
Date: 2025-04-01 14:09:21
LastEditors: Please set LastEditors
LastEditTime: 2025-04-08 11:18:23
FilePath: /Linker_Hand_SDK_ROS/src/linker_hand_sdk_ros/scripts/LinkerHand/utils/init_linker_hand.py
Description:
symbol_custom_string_obkorol_copyright:
'''
import yaml, os, sys
sys.path.append(os.path.dirname(os.path.abspath(__file__)))
from load_write_yaml import LoadWriteYaml
class InitLinkerHand():
def __init__(self):
self.yaml = LoadWriteYaml()
self.setting = self.yaml.load_setting_yaml()
def current_hand(self):
'''
初始化灵巧手
return: hand_joint str L7/L10/L20/L21/L25, hand_type str left or right
'''
# 左手是否配置
self.left_hand = None
self.left_hand_joint = None
self.left_hand_type = None
self.left_hand_force = None
self.left_hand_pose = None
self.left_hand_torque = [200, 200, 200, 200, 200]
self.left_hand_speed = [80, 200, 200, 200, 200]
# 右手是否配置
self.right_hand = None
self.right_hand_joint = None
self.right_hand_type = None
self.right_hand_force = None
self.right_hand_pose = None
self.right_hand_torque = [200, 200, 200, 200, 200]
self.right_hand_speed = [80, 200, 200, 200, 200]
if self.setting['LINKER_HAND']['LEFT_HAND']['EXISTS'] == True:
self.left_hand = True
self.left_hand_joint = self.setting['LINKER_HAND']['LEFT_HAND']['JOINT']
self.left_hand_type = "left"
self.left_hand_force = self.setting['LINKER_HAND']['LEFT_HAND']['TOUCH']
if self.left_hand_joint == "L7":
# The data length of L7 is 7, reinitialize here
self.left_hand_pose = [255, 200, 255, 255, 255, 255, 180]
self.left_hand_torque = [250, 250, 250, 250, 250, 250, 250]
self.left_hand_speed = [120, 180, 180, 180, 180, 180, 180]
elif self.left_hand_joint == "L10":
self.left_hand_pose = [255, 200, 255, 255, 255, 255, 180, 180, 180, 41]
elif self.left_hand_joint == "L20":
self.left_hand_pose = [255,255,255,255,255,255,10,100,180,240,245,255,255,255,255,255,255,255,255,255]
elif self.left_hand_joint == "L21":
self.left_hand_pose = [75, 255, 255, 255, 255, 176, 97, 81, 114, 147, 202, 255, 255, 255, 255, 255, 255, 255, 255, 255, 255, 255, 255, 255, 255]
elif self.left_hand_joint == "L25":
self.left_hand_pose = [75, 255, 255, 255, 255, 176, 97, 81, 114, 147, 202, 255, 255, 255, 255, 255, 255, 255, 255, 255, 255, 255, 255, 255, 255]
# 判断右手是否配置
if self.setting['LINKER_HAND']['RIGHT_HAND']['EXISTS'] == True:
self.right_hand = True
self.right_hand_joint = self.setting['LINKER_HAND']['RIGHT_HAND']['JOINT']
self.right_hand_type = "right"
self.right_hand_force = self.setting['LINKER_HAND']['RIGHT_HAND']['TOUCH']
if self.right_hand_joint == "L7":
# The data length of L7 is 7, reinitialize here
self.right_hand_pose = [255, 200, 255, 255, 255, 255, 180]
self.right_hand_torque = [250, 250, 250, 250, 250, 250, 250]
self.right_hand_speed = [120, 250, 250, 250, 250, 250, 250]
elif self.right_hand_joint == "L10":
self.right_hand_pose = [255, 200, 255, 255, 255, 255, 180, 180, 180, 41]
elif self.right_hand_joint == "L20":
self.right_hand_pose = [255,255,255,255,255,255,10,100,180,240,245,255,255,255,255,255,255,255,255,255]
elif self.right_hand_joint == "L21":
self.right_hand_pose = [75, 255, 255, 255, 255, 176, 97, 81, 114, 147, 202, 255, 255, 255, 255, 255, 255, 255, 255, 255, 255, 255, 255, 255, 255]
elif self.right_hand_joint == "L25":
self.right_hand_pose = [75, 255, 255, 255, 255, 176, 97, 81, 114, 147, 202, 255, 255, 255, 255, 255, 255, 255, 255, 255, 255, 255, 255, 255, 255]
return self.left_hand ,self.left_hand_joint ,self.left_hand_type ,self.left_hand_force,self.left_hand_pose, self.left_hand_torque, self.left_hand_speed ,self.right_hand ,self.right_hand_joint ,self.right_hand_type ,self.right_hand_force,self.right_hand_pose, self.right_hand_torque, self.right_hand_speed,self.setting
@@ -0,0 +1,101 @@
#!/usr/bin/env python3
# -*- coding: utf-8 -*-
'''
Author: HJX
Date: 2025-04-01 14:09:21
LastEditors: Please set LastEditors
LastEditTime: 2025-04-11 10:19:01
FilePath: /LinkerHand_Python_SDK/LinkerHand/utils/load_write_yaml.py
Description:
symbol_custom_string_obkorol_copyright:
'''
import yaml, os, sys
class LoadWriteYaml():
def __init__(self):
# 由于是API形式,这里要给配置文件目录绝对路径
#yaml_path = "/home/linkerhand/ROS2/linker_hand_ros2_sdk/src/linker_hand_ros2_sdk/linker_hand_ros2_sdk/LinkerHand"
yaml_path = os.path.dirname(os.path.abspath(__file__)) + "/../../LinkerHand"
self.setting_path = yaml_path+"/config/setting.yaml"
self.l7_positions = yaml_path+"/config/L7_positions.yaml"
self.l10_positions = yaml_path+"/config/L10_positions.yaml"
self.l20_positions = yaml_path+"/config/L20_positions.yaml"
self.l21_positions = yaml_path+"/config/L21_positions.yaml"
self.l25_positions = yaml_path+"/config/L25_positions.yaml"
def load_setting_yaml(self):
try:
with open(self.setting_path, 'r', encoding='utf-8') as file:
setting = yaml.safe_load(file)
self.sdk_version = setting["VERSION"]
self.left_hand_exists = setting['LINKER_HAND']['LEFT_HAND']['EXISTS']
self.left_hand_names = setting['LINKER_HAND']['LEFT_HAND']['NAME']
self.left_hand_joint = setting['LINKER_HAND']['LEFT_HAND']['JOINT']
self.left_hand_force = setting['LINKER_HAND']['LEFT_HAND']['TOUCH']
self.right_hand_exists = setting['LINKER_HAND']['RIGHT_HAND']['EXISTS']
self.right_hand_names = setting['LINKER_HAND']['RIGHT_HAND']['NAME']
self.right_hand_joint = setting['LINKER_HAND']['RIGHT_HAND']['JOINT']
self.right_hand_force = setting['LINKER_HAND']['RIGHT_HAND']['TOUCH']
self.password = setting['PASSWORD']
except Exception as e:
setting = None
print(f"Error reading setting.yaml: {e}")
self.setting = setting
return self.setting
def load_action_yaml(self,hand_joint="",hand_type=""):
if hand_joint == "L20":
action_path = self.l20_positions
elif hand_joint == "L10":
action_path = self.l10_positions
elif hand_joint == "L25":
action_path = self.l25_positions
elif hand_joint == "L21":
action_path = self.l21_positions
elif hand_joint == "L7":
action_path = self.l7_positions
print(action_path)
try:
with open(action_path, 'r', encoding='utf-8') as file:
yaml_data = yaml.safe_load(file)
if hand_type == "left":
self.action_yaml = yaml_data["LEFT_HAND"]
else:
self.action_yaml = yaml_data["RIGHT_HAND"]
except Exception as e:
self.action_yaml = None
print(f"yaml配置文件不存在: {e}")
return self.action_yaml
def write_to_yaml(self, action_name, action_pos,hand_joint="",hand_type=""):
a = False
if hand_joint == "L20":
action_path = self.l20_positions
elif hand_joint == "L10":
action_path = self.l10_positions
elif hand_joint == "L7":
action_path = self.l7_positions
elif hand_joint == "L21":
action_path = self.l21_positions
elif hand_joint == "L25":
action_path = self.l25_positions
try:
with open(action_path, 'r', encoding='utf-8') as file:
yaml_data = yaml.safe_load(file)
print(yaml_data)
if hand_type == "left":
if yaml_data["LEFT_HAND"] == None:
yaml_data["LEFT_HAND"] = []
yaml_data["LEFT_HAND"].append({"ACTION_NAME": action_name, "POSITION": action_pos})
elif hand_type == "right":
if yaml_data["RIGHT_HAND"] == None:
yaml_data["RIGHT_HAND"] = []
yaml_data["RIGHT_HAND"].append({"ACTION_NAME": action_name, "POSITION": action_pos})
with open(action_path, 'w', encoding='utf-8') as file:
yaml.safe_dump(yaml_data, file, allow_unicode=True)
a = True
except Exception as e:
a = False
print(f"Error writing to yaml file: {e}")
return a
@@ -0,0 +1,383 @@
#---------------------------------------------------------------------------------------------------
# L6 L
l6_l_min = [0, 0, 0, 0, 0, 0]
l6_l_max = [0.99, 1.39, 1.26, 1.26, 1.26, 1.26]
l6_l_derict = [-1, -1, -1, -1, -1, -1]
# L6 R
l6_r_min = [0, 0, 0, 0, 0, 0]
l6_r_max = [0.99, 1.39, 1.26, 1.26, 1.26, 1.26]
l6_r_derict = [-1, -1, -1, -1, -1, -1]
#---------------------------------------------------------------------------------------------------
# O6 L
o6_l_min = [0, 0, 0, 0, 0, 0]
o6_l_max = [0.58, 1.36, 1.6, 1.6, 1.6, 1.6]
o6_l_derict = [-1, -1, -1, -1, -1, -1]
# O6 R
o6_r_min = [0, 0, 0, 0, 0, 0]
o6_r_max = [0.58, 1.36, 1.6, 1.6, 1.6, 1.6]
o6_r_derict = [-1, -1, -1, -1, -1, -1]
#---------------------------------------------------------------------------------------------------
# L7 L OK
l7_l_min = [0, 0, 0, 0, 0, 0, 0]
l7_l_max = [0.44, 1.43, 1.62, 1.62, 1.62, 1.62, 1.01]
l7_l_derict = [-1, -1, -1, -1, -1, -1, -1]
# L7 R OK (urdf后续会更改!!!)
l7_r_min = [0, -1.43, 0, 0, 0, 0, 0]
l7_r_max = [0.75, 0, 1.62, 1.62, 1.62, 1.62, 1.54]
l7_r_derict = [-1, 0, -1, -1, -1, -1, -1]
#---------------------------------------------------------------------------------------------------
# L10 L OK
l10_l_min = [0, 0, 0, 0, 0, 0, 0, -0.26, -0.26, -0.52]
l10_l_max = [1.45, 1.43, 1.62, 1.62, 1.62, 1.62, 0.26, 0, 0, 1.01]
l10_l_derict = [-1, -1, -1, -1, -1, -1, 0, -1, -1, -1]
# L10 R OK
l10_r_min = [0, 0, 0, 0, 0, 0, -0.26, 0, 0, -0.52]
l10_r_max = [0.75, 1.43, 1.62, 1.62, 1.62, 1.62, 0.21, 0.21, 0.34, 1.01]
l10_r_derict = [-1, -1, -1, -1, -1, -1, 0, 0, 0, -1]
#---------------------------------------------------------------------------------------------------
# L20 L OK
l20_l_min = [0, 0, 0, 0, 0, -0.297, -0.26, -0.26, -0.26, -0.26, 0.122, 0, 0, 0, 0, 0, 0, 0, 0, 0]
l20_l_max = [0.87, 1.4, 1.4, 1.4, 1.4, 0.683, 0.26, 0.26, 0.26, 0.26, 1.78, 0, 0, 0, 0, 1.29, 1.08, 1.08, 1.08, 1.08]
l20_l_derict = [-1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, 0, 0, 0, 0, -1, -1, -1, -1, -1]
# L20 R OK
l20_r_min = [0, 0, 0, 0, 0, -0.297, -0.26, -0.26, -0.26, -0.26, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0]
l20_r_max = [0.87, 1.4, 1.4, 1.4, 1.4, 0.683, 0.26, 0.26, 0.26, 0.26, 1.78, 0, 0, 0, 0, 1.29, 1.08, 1.08, 1.08, 1.08]
l20_r_derict = [-1, -1, -1, -1, -1, -1, 0, 0, 0, 0, -1, 0, 0, 0, 0, -1, -1, -1, -1, -1]
#---------------------------------------------------------------------------------------------------
# L21 L OK
l21_l_min = [0, 0, 0, 0, 0, 0, 0, -0.18, -0.18, 0, -0.6, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0]
l21_l_max = [1, 1.57, 1.57, 1.57, 1.57, 1.6, 0.18, 0.18, 0.18, 0.18, 0.6, 0, 0, 0, 0, 1.57, 0, 0, 0, 0, 1.57, 1.57, 1.57, 1.57, 1.57]
l21_l_derict = [-1, -1, -1, -1, -1, -1, -1, -1, -1, 0, -1, 0, 0, 0, 0, -1, 0, 0, 0, 0, -1, -1, -1, -1, -1]
# L21 R OK
l21_r_min = [0, 0, 0, 0, 0, 0, -0.18, -0.18, -0.18, -0.18, -0.6, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0]
l21_r_max = [1, 1.57, 1.57, 1.57, 1.57, 1.6, 0.18, 0.18, 0.18, 0.18, 0.6, 0, 0, 0, 0, 1.57, 0, 0, 0, 0, 1.57, 1.57, 1.57, 1.57, 1.57]
l21_r_derict = [-1, -1, -1, -1, -1, -1, 0, 0, 0, 0, -1, 0, 0, 0, 0, -1, 0, 0, 0, 0, -1, -1, -1, -1, -1]
#---------------------------------------------------------------------------------------------------
#---------------------------------------------------------------------------------------------------
# L25 L OK
l25_l_min = [0, 0, 0, 0, 0, 0, -0.26, -0.26, -0.26, -0.26, -0.26, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0]
l25_l_max = [0.9, 1.57, 1.57, 1.57, 1.57, 1.3, 0.26, 0.26, 0.26, 0.26, 0.61, 0, 0, 0, 0, 1.57, 1.57, 1.57, 1.57, 1.57, 1.57, 1.57, 1.57, 1.57, 1.57]
l25_l_derict = [-1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1]
# L25 R OK
l25_r_min = [0, 0, 0, 0, 0, 0, -0.26, -0.26, -0.26, -0.26, -0.26, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0, 0]
l25_r_max = [0.9, 1.57, 1.57, 1.57, 1.57, 1.3, 0.26, 0.26, 0.26, 0.26, 0.61, 0, 0, 0, 0, 1.57, 1.57, 1.57, 1.57, 1.57, 1.57, 1.57, 1.57, 1.57, 1.57]
l25_r_derict = [-1, -1, -1, -1, -1, -1, 0, 0, 0, 0, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1]
#---------------------------------------------------------------------------------------------------
def range_to_arc_left(left_range,hand_joint):
num=0
if hand_joint == "L6":
num = 6
l_min = l6_l_min
l_max = l6_l_max
l_derict = l6_l_derict
elif hand_joint == "O6":
num = 6
l_min = o6_l_min
l_max = o6_l_max
l_derict = o6_l_derict
elif hand_joint == "L7":
num = 7
l_min = l7_l_min
l_max = l7_l_max
l_derict = l7_l_derict
elif hand_joint == "L10":
num = 10
l_min = l10_l_min
l_max = l10_l_max
l_derict = l10_l_derict
elif hand_joint == "L20":
num = 20
l_min = l20_l_min
l_max = l20_l_max
l_derict = l20_l_derict
elif hand_joint == "L21":
num = 25
l_min = l21_l_min
l_max = l21_l_max
l_derict = l21_l_derict
hand_arc = [0] * num
for i in range(num):
if hand_joint == "L20":
if 11 <= i <= 14: continue
if hand_joint == "L21":
if 11 <= i <= 14: continue
if 16 <= i <= 19: continue
val_l = is_within_range(left_range[i], 0, 255)
if l_derict[i] == -1:
hand_arc[i] = scale_value(val_l, 0, 255, l_max[i], l_min[i])
else:
hand_arc[i] = scale_value(val_l, 0, 255, l_min[i], l_max[i])
return hand_arc
def range_to_arc_right(right_range,hand_joint):
num=0
if hand_joint == "L6":
num = 6
r_min = l6_r_min
r_max = l6_r_max
r_derict = l6_r_derict
elif hand_joint == "O6":
num = 6
r_min = o6_r_min
r_max = o6_r_max
r_derict = o6_r_derict
elif hand_joint == "L7":
num = 7
r_min = l7_r_min
r_max = l7_r_max
r_derict = l7_r_derict
elif hand_joint == "L10":
num = 10
r_min = l10_r_min
r_max = l10_r_max
r_derict = l10_r_derict
elif hand_joint == "L20":
num = 20
r_min = l20_r_min
r_max = l20_r_max
r_derict = l20_r_derict
elif hand_joint == "L21":
num = 25
r_min = l21_r_min
r_max = l21_r_max
r_derict = l21_r_derict
hand_arc = [0] * num
for i in range(num):
if hand_joint == "L20":
if 11 <= i <= 14: continue
if hand_joint == "L21":
if 11 <= i <= 14: continue
if 16 <= i <= 19: continue
val_r = is_within_range(right_range[i], 0, 255)
if r_derict[i] == -1:
hand_arc[i] = scale_value(val_r, 0, 255, r_max[i], r_min[i])
else:
hand_arc[i] = scale_value(val_r, 0, 255, r_min[i], r_max[i])
return hand_arc
'''
def arc_to_range_left(left_arc,hand_joint):
num=0
if hand_joint == "L7":
num = 7
l_min = l7_l_min
l_max = l7_l_max
l_derict = l7_l_derict
elif hand_joint == "L10":
num = 10
l_min = l10_l_min
l_max = l10_l_max
l_derict = l10_l_derict
elif hand_joint == "L20":
num = 20
l_min = l20_l_min
l_max = l20_l_max
l_derict = l20_l_derict
elif hand_joint == "L21":
num = 25
l_min = l21_l_min
l_max = l21_l_max
l_derict = l21_l_derict
hand_range = [0] * num
for i in range(num):
if hand_joint == "L20":
if 11 <= i <= 14: continue
if hand_joint == "L21":
if 11 <= i <= 14: continue
if 16 <= i <= 19: continue
val_l = is_within_range(left_arc[i], 0, 255)
if l_derict[i] == -1:
hand_range[i] = scale_value(val_l, 0, 255, l_max[i], l_min[i])
else:
hand_range[i] = scale_value(val_l, 0, 255, l_min[i], l_max[i])
return hand_range
'''
def arc_to_range_left(hand_arc_l,hand_joint):
num=0
if hand_joint == "O6":
num = 6
l_min = o6_l_min
l_max = o6_l_max
l_derict = o6_l_derict
elif hand_joint == "L7":
num = 7
l_min = l7_l_min
l_max = l7_l_max
l_derict = l7_l_derict
elif hand_joint == "L10":
num = 10
l_min = l10_l_min
l_max = l10_l_max
l_derict = l10_l_derict
elif hand_joint == "L20":
num = 20
l_min = l20_l_min
l_max = l20_l_max
l_derict = l20_l_derict
elif hand_joint == "L21":
num = 25
l_min = l21_l_min
l_max = l21_l_max
l_derict = l21_l_derict
hand_range = [0] * num
#hand_range_l = [0] * 7
for i in range(num):
if hand_joint == "L20":
if 11 <= i <= 14: continue
if hand_joint == "L21":
if 11 <= i <= 14: continue
if 16 <= i <= 19: continue
val_l = is_within_range(hand_arc_l[i], l_min[i], l_max[i])
if l_derict[i] == -1:
hand_range[i] = scale_value(val_l, l_min[i], l_max[i], 255, 0)
else:
hand_range[i] = scale_value(val_l, l_min[i], l_max[i], 0, 255)
return hand_range
def arc_to_range_right(right_arc,hand_joint):
num=0
if hand_joint == "O6":
num = 6
r_min = o6_r_min
r_max = o6_r_max
r_derict = o6_r_derict
elif hand_joint == "L7":
num = 7
r_min = l7_r_min
r_max = l7_r_max
r_derict = l7_r_derict
elif hand_joint == "L10":
num = 10
r_min = l10_r_min
r_max = l10_r_max
r_derict = l10_r_derict
elif hand_joint == "L20":
num = 20
r_min = l20_r_min
r_max = l20_r_max
r_derict = l20_r_derict
elif hand_joint == "L21":
num = 25
r_min = l21_r_min
r_max = l21_r_max
r_derict = l21_r_derict
hand_range = [0] * num
for i in range(num):
if hand_joint == "L20":
if 11 <= i <= 14: continue
if hand_joint == "L21":
if 11 <= i <= 14: continue
if 16 <= i <= 19: continue
val_r = is_within_range(right_arc[i], r_min[i], r_max[i])
if r_derict[i] == -1:
hand_range[i] = scale_value(val_r, r_min[i], r_max[i], 255, 0)
else:
hand_range[i] = scale_value(val_r, r_min[i], r_max[i], 0, 255)
return hand_range
def range_to_arc_right_l20(hand_range_r):
hand_arc_r = [0] * 20
for i in range(20):
if 11 <= i <= 14: continue
val_r = is_within_range(hand_range_r[i], 0, 255)
if l20_r_derict[i] == -1:
hand_arc_r[i] = scale_value(val_r, 0, 255, l20_r_max[i], l20_r_min[i])
else:
hand_arc_r[i] = scale_value(val_r, 0, 255, l20_r_min[i], l20_r_max[i])
return hand_arc_r
def range_to_arc_left_l20(hand_range_l):
hand_arc_l = [0] * 20
for i in range(20):
if 11 <= i <= 14: continue
val_l = is_within_range(hand_range_l[i], 0, 255)
if l20_l_derict[i] == -1:
hand_arc_l[i] = scale_value(val_l, 0, 255, l20_l_max[i], l20_l_min[i])
else:
hand_arc_l[i] = scale_value(val_l, 0, 255, l20_l_min[i], l20_l_max[i])
return hand_arc_l
def arc_to_range_right_l20(hand_arc_r):
hand_range_r = [0] * 20
for i in range(20):
if 11 <= i <= 14: continue
val_r = is_within_range(hand_arc_r[i], l20_r_min[i], l20_r_max[i])
if l20_r_derict[i] == -1:
hand_range_r[i] = scale_value(val_r, l20_r_min[i], l20_r_max[i], 255, 0)
else:
hand_range_r[i] = scale_value(val_r, l20_r_min[i], l20_r_max[i], 0, 255)
return hand_range_r
def arc_to_range_left_l20(hand_arc_l):
hand_range_l = [0] * 20
for i in range(20):
if 11 <= i <= 14: continue
val_l = is_within_range(hand_arc_l[i], l20_l_min[i], l20_l_max[i])
if l20_l_derict[i] == -1:
hand_range_l[i] = scale_value(val_l, l20_l_min[i], l20_l_max[i], 255, 0)
else:
hand_range_l[i] = scale_value(val_l, l20_l_min[i], l20_l_max[i], 0, 255)
return hand_range_l
def range_to_arc_right_10(hand_range_r):
hand_arc_r = [0] * 10
for i in range(10):
val_r = is_within_range(hand_range_r[i], 0, 255)
if l10_r_derict[i] == -1:
hand_arc_r[i] = scale_value(val_r, 0, 255, l10_r_max[i], l10_r_min[i])
else:
hand_arc_r[i] = scale_value(val_r, 0, 255, l10_r_min[i], l10_r_max[i])
return hand_arc_r
def range_to_arc_left_10(hand_range_l):
hand_arc_l = [0] * 10
for i in range(10):
val_l = is_within_range(hand_range_l[i], 0, 255)
if l10_l_derict[i] == -1:
hand_arc_l[i] = scale_value(val_l, 0, 255, l10_l_max[i], l10_l_min[i])
else:
hand_arc_l[i] = scale_value(val_l, 0, 255, l10_l_min[i], l10_l_max[i])
return hand_arc_l
def arc_to_range_right_10(hand_arc_r):
hand_range_r = [0] * 10
for i in range(10):
val_r = is_within_range(hand_arc_r[i], l10_r_min[i], l10_r_max[i])
if l10_r_derict[i] == -1:
hand_range_r[i] = scale_value(val_r, l10_r_min[i], l10_r_max[i], 255, 0)
else:
hand_range_r[i] = scale_value(val_r, l10_r_min[i], l10_r_max[i], 0, 255)
return hand_range_r
def arc_to_range_left_10(hand_arc_l):
hand_range_l = [0] * 10
for i in range(10):
val_l = is_within_range(hand_arc_l[i], l10_l_min[i], l10_l_max[i])
if l10_l_derict[i] == -1:
hand_range_l[i] = scale_value(val_l, l10_l_min[i], l10_l_max[i], 255, 0)
else:
hand_range_l[i] = scale_value(val_l, l10_l_min[i], l10_l_max[i], 0, 255)
return hand_range_l
def scale_value(original_value, a_min, a_max, b_min, b_max):
return (original_value - a_min) * (b_max - b_min) / (a_max - a_min) + b_min
def is_within_range(value, min_value, max_value):
return min(max_value, max(min_value, value))
@@ -0,0 +1,145 @@
#!/usr/bin/env python3
# -*- coding: utf-8 -*-
'''
Author: HJX
Date: 2025-04-01 14:09:21
LastEditors: Please set LastEditors
LastEditTime: 2025-04-11 09:15:31
FilePath: /Linker_Hand_SDK_ROS/src/linker_hand_sdk_ros/scripts/LinkerHand/utils/open_can.py
Description:
symbol_custom_string_obkorol_copyright:
'''
import sys,os,time,subprocess
sys.path.append(os.path.dirname(os.path.abspath(__file__)))
from color_msg import ColorMsg
from load_write_yaml import LoadWriteYaml
# from ament_index_python.packages import get_package_share_directory
import os
class OpenCan:
def __init__(self,load_yaml=None):
self.yaml = LoadWriteYaml()
self.password = self.yaml.load_setting_yaml()["PASSWORD"]
def open_can0(self):
try:
# 检查 can0 接口是否已存在并处于 up 状态
result = subprocess.run(
["ip", "link", "show", "can0"],
check=True,
text=True,
capture_output=True
)
if "state UP" in result.stdout:
return
# 如果没有处于 UP 状态,则配置接口
subprocess.run(
["sudo", "-S", "ip", "link", "set", "can0", "up", "type", "can", "bitrate", "1000000"],
input=f"{self.password}\n",
check=True,
text=True,
capture_output=True
)
except subprocess.CalledProcessError as e:
pass
except Exception as e:
pass
def open_can(self,can="can0"):
try:
# 检查 can0 接口是否已存在并处于 up 状态
result = subprocess.run(
["ip", "link", "show", can],
check=True,
text=True,
capture_output=True
)
if "state UP" in result.stdout:
return
# 如果没有处于 UP 状态,则配置接口
subprocess.run(
["sudo", "-S", "ip", "link", "set", can, "up", "type", "can", "bitrate", "1000000"],
input=f"{self.password}\n",
check=True,
text=True,
capture_output=True
)
except subprocess.CalledProcessError as e:
pass
except Exception as e:
pass
def is_can_up_sysfs(self, interface="can0"):
# 检查接口目录是否存在
if not os.path.exists(f"/sys/class/net/{interface}"):
return False
# 读取接口状态
try:
with open(f"/sys/class/net/{interface}/operstate", "r") as f:
state = f.read().strip()
if state == "up":
return True
except Exception as e:
print(f"Error reading CAN interface state: {e}")
return False
def close_can0(self):
try:
# 检查 can0 接口是否存在
result = subprocess.run(
["ip", "link", "show", "can0"],
check=True,
text=True,
capture_output=True
)
# 如果接口存在且处于 UP 状态,则关闭它
if "state UP" in result.stdout:
subprocess.run(
["sudo", "-S", "ip", "link", "set", "can0", "down"],
input=f"{self.password}\n",
check=True,
text=True,
capture_output=True
)
return True
return False
except subprocess.CalledProcessError as e:
print(f"Error closing CAN interface: {e}")
return False
except Exception as e:
print(f"Unexpected error: {e}")
return False
def close_can(self,can="can0"):
try:
# 检查 can0 接口是否存在
result = subprocess.run(
["ip", "link", "show", can],
check=True,
text=True,
capture_output=True
)
# 如果接口存在且处于 UP 状态,则关闭它
if "state UP" in result.stdout:
subprocess.run(
["sudo", "-S", "ip", "link", "set", can, "down"],
input=f"{self.password}\n",
check=True,
text=True,
capture_output=True
)
return True
return False
except subprocess.CalledProcessError as e:
print(f"Error closing CAN interface: {e}")
return False
except Exception as e:
print(f"Unexpected error: {e}")
return False
@@ -0,0 +1,571 @@
#!/usr/bin/env python3
# -*- coding: utf-8 -*-
'''
编译: colcon build --symlink-install
启动命令:ros2 run linker_hand_ros2_sdk linker_hand_sdk
'''
from re import A
import rclpy,sys # ROS2 Python接口库
import time
import numpy as np
from rclpy.node import Node # ROS2 节点类
from rclpy.clock import Clock
from rclpy.parameter import Parameter
from rclpy.qos import HistoryPolicy, QoSProfile, ReliabilityPolicy
from std_msgs.msg import String, Header, Float32MultiArray
from sensor_msgs.msg import JointState, PointCloud2, PointField
import time, json, threading
from linker_hand_ros2_sdk.LinkerHand.linker_hand_api import LinkerHandApi
from linker_hand_ros2_sdk.LinkerHand.utils.color_msg import ColorMsg
from linker_hand_ros2_sdk.LinkerHand.utils.open_can import OpenCan
COMMAND_QOS = QoSProfile(
history=HistoryPolicy.KEEP_LAST,
depth=1,
reliability=ReliabilityPolicy.RELIABLE,
)
def command_changed(previous, current):
"""Return whether a non-empty command differs from the applied command."""
values = list(current)
if not values:
return False
if previous is None or len(previous) != len(values):
return True
return any(float(old) != float(new) for old, new in zip(previous, values))
def state_poll_due(last_poll_time, now, poll_period):
"""Keep slow CAN state reads off the latency-sensitive command path."""
return last_poll_time is None or now >= last_poll_time + poll_period
class LinkerHand(Node):
def __init__(self, name):
super().__init__(name)
# 声明参数(带默认值)
self.declare_parameter('hand_type', 'left')
self.declare_parameter('hand_joint', 'L6')
self.declare_parameter('is_touch', False)
self.declare_parameter('can', 'can0')
self.declare_parameter('modbus', "None")
# -1 keeps the model's original startup speed. Camera teleoperation can
# set this to a conservative value before the startup pose is sent.
self.declare_parameter('startup_speed', -1)
# Empty keeps the legacy absolute topics/startup pose. A prefix lets
# two same-side hands coexist without receiving each other's commands.
self.declare_parameter('topic_prefix', '')
self.declare_parameter('startup_pose', Parameter.Type.INTEGER_ARRAY)
# Hardware state reads are synchronous CAN transactions. Keeping them
# below the command rate prevents G20's five-frame reads from starving
# incoming position commands.
self.declare_parameter('state_poll_rate', 60.0)
self.declare_parameter('velocity_poll_rate', 60.0)
# ros时间获取
self.stamp_clock = Clock()
# 获取参数值
self.hand_type = self.get_parameter('hand_type').value
self.hand_joint = self.get_parameter('hand_joint').value
self.is_touch = self.get_parameter('is_touch').value
self.can = self.get_parameter('can').value
self.modbus = self.get_parameter('modbus').value
self.startup_speed = int(self.get_parameter('startup_speed').value)
if self.startup_speed < -1 or self.startup_speed > 255:
raise ValueError('startup_speed must be -1 or in the range [0, 255]')
self.topic_prefix = self.normalize_topic_prefix(
self.get_parameter('topic_prefix').value
)
self.state_poll_rate = float(
self.get_parameter('state_poll_rate').value
)
if self.state_poll_rate <= 0.0:
raise ValueError('state_poll_rate must be greater than zero')
self.state_poll_period = 1.0 / self.state_poll_rate
self.last_state_poll_time = None
self.velocity_poll_rate = float(
self.get_parameter('velocity_poll_rate').value
)
if self.velocity_poll_rate <= 0.0:
raise ValueError('velocity_poll_rate must be greater than zero')
self.velocity_poll_period = 1.0 / self.velocity_poll_rate
self.last_velocity_poll_time = None
configured_startup_pose = self.get_parameter_or(
'startup_pose',
Parameter('startup_pose', Parameter.Type.INTEGER_ARRAY, []),
).value
self.startup_pose = [int(value) for value in configured_startup_pose]
if any(value < 0 or value > 255 for value in self.startup_pose):
raise ValueError('startup_pose values must be in the range [0, 255]')
self.sdk_v = 2
self.sleep_time = 0.005
self.cmd_lock = False
self.last_hand_post_cmd = None # 最新手指位置命令
self.last_hand_vel_cmd = None # 最新手指速度命令
self.last_hand_eff_cmd = None # 最新手指力矩命令
self.applied_hand_post_cmd = None
self.applied_hand_vel_cmd = None
self.last_hand_state = [-1] * 10
self.last_hand_vel = [-1] * 10
self.force = [[-1] * 5] * 4
self.matrix_dic = {
"stamp":{
"sec": 0,
"nanosec": 0,
},
"thumb_matrix":[[-1] * 6 for _ in range(12)],
"index_matrix":[[-1] * 6 for _ in range(12)],
"middle_matrix":[[-1] * 6 for _ in range(12)],
"ring_matrix":[[-1] * 6 for _ in range(12)],
"little_matrix":[[-1] * 6 for _ in range(12)]
}
# 压感矩阵合值,单位g 克
self.matrix_mass_dic = {
"stamp":{
"secs": 0,
"nsecs": 0,
},
"thumb_mass":[-1],
"index_mass":[-1],
"middle_mass":[-1],
"ring_mass":[-1],
"little_mass":[-1]
}
self.last_hand_info = {
"version": [-1], # Dexterous hand version number
"hand_joint": self.hand_joint, # Dexterous hand joint type
"speed": [-1] * 10, # Current speed threshold of the dexterous hand
"current": [-1] * 10, # Current of the dexterous hand
"fault": [-1] * 10, # Current fault of the dexterous hand
"motor_temperature": [-1] * 10, # Current motor temperature of the dexterous hand
"torque": [-1] * 10, # Current torque of the dexterous hand
"is_touch":self.is_touch,
"touch_type": -1,
"finger_order": None # Finger motor order
}
self.version = []
self.touch_type = -1
self.hz = 1.0/60.0
self.hand_setting_sub = self.create_subscription(
String, self.topic('/l20_hand_setting_cmd'), self.hand_setting_cb, 10
)
self._init_hand()
time.sleep(1)
self.run_count = 0 # 计数器,用于记录运行次数
self.timer = self.create_timer(0.01, self.run) # 100 Hz
self.thread_pub_state = threading.Thread(target=self.pub_state)
self.thread_pub_state.daemon = True
self.thread_pub_state.start()
@staticmethod
def normalize_topic_prefix(prefix):
prefix = str(prefix).strip()
if not prefix or prefix == '/':
return ''
if not prefix.startswith('/'):
prefix = '/' + prefix
return prefix.rstrip('/')
def topic(self, absolute_topic):
if not absolute_topic.startswith('/'):
raise ValueError('base topic must be absolute')
return self.topic_prefix + absolute_topic
def _init_hand(self):
self.api = LinkerHandApi(hand_type=self.hand_type, hand_joint=self.hand_joint,modbus=self.modbus,can=self.can)
time.sleep(0.1)
self.touch_type = self.api.get_touch_type()
self.hand_cmd_sub = self.create_subscription(
JointState,
self.topic(f'/l20_{self.hand_type}_hand_control_cmd'),
self.hand_control_cb,
COMMAND_QOS,
)
self.hand_state_pub = self.create_publisher(JointState, self.topic(f'/l20_{self.hand_type}_hand_state'),10)
self.hand_info_pub = self.create_publisher(String, self.topic(f'/l20_{self.hand_type}_hand_info'), 10)
if self.is_touch == True:
if self.modbus != "None":
self.matrix_touch_pub = self.create_publisher(String, self.topic(f'/l20_{self.hand_type}_hand_matrix_touch'), 10)
self.matrix_touch_pub_pc = self.create_publisher(PointCloud2, self.topic(f'/l20_{self.hand_type}_hand_matrix_touch_pc'), 10)
self.matrix_touch_mass_pub = self.create_publisher(Float32MultiArray, self.topic(f'/l20_{self.hand_type}_hand_matrix_touch_mass'), 10)
elif self.hand_joint == "L20":
ColorMsg(msg=f"{self.hand_type} {self.hand_joint} matrix pressure sensing enabled", color='green')
self.touch_type = 2
self.matrix_touch_pub = self.create_publisher(String, self.topic(f'/l20_{self.hand_type}_hand_matrix_touch'), 10)
self.matrix_touch_pub_pc = self.create_publisher(PointCloud2, self.topic(f'/l20_{self.hand_type}_hand_matrix_touch_pc'), 10)
self.matrix_touch_mass_pub = self.create_publisher(Float32MultiArray, self.topic(f'/l20_{self.hand_type}_hand_matrix_touch_mass'), 10)
elif self.touch_type > 1:
ColorMsg(msg=f"{self.hand_type} {self.hand_joint} Equipped with matrix pressure sensing", color='green')
self.matrix_touch_pub = self.create_publisher(String, self.topic(f'/l20_{self.hand_type}_hand_matrix_touch'), 10)
self.matrix_touch_pub_pc = self.create_publisher(PointCloud2, self.topic(f'/l20_{self.hand_type}_hand_matrix_touch_pc'), 10)
self.matrix_touch_mass_pub = self.create_publisher(Float32MultiArray, self.topic(f'/l20_{self.hand_type}_hand_matrix_touch_mass'), 10)
elif self.touch_type != -1 and self.modbus == "None":
ColorMsg(msg=f"{self.hand_type} {self.hand_joint} Equipped with pressure sensor", color="green")
self.touch_pub = self.create_publisher(Float32MultiArray, self.topic(f'/l20_{self.hand_type}_hand_force'), 10)
else:
ColorMsg(msg=f"{self.hand_type} {self.hand_joint} Not equipped with any pressure sensors", color="red")
self.is_touch = False
self.embedded_version = self.api.get_embedded_version()
pose = None
torque = [200, 200, 200, 200, 200]
speed = [200, 250, 250, 250, 250]
if self.hand_joint.upper() == "O6" or self.hand_joint.upper() == "L6" or self.hand_joint.upper() == "L6P":
pose = [200, 255, 255, 255, 255, 180]
torque = [250, 250, 250, 250, 250, 250]
# O6 最大速度阈值
speed = [200, 250, 250, 250, 250, 250]
elif self.hand_joint == "L7":
# The data length of L7 is 7, reinitialize here
pose = [255, 200, 255, 255, 255, 255, 180]
torque = [250, 250, 250, 250, 250, 250, 250]
speed = [120, 250, 250, 250, 250, 250, 250]
elif self.hand_joint == "L10":
torque = [255] * 10
pose = [255, 200, 255, 255, 255, 255, 180, 180, 180, 41]
speed = [200, 250, 250, 250, 250, 250, 250, 250, 250, 250]
elif self.hand_joint == "L20":
pose = None
elif self.hand_joint == "G20":
# G20 uses a different CAN protocol from L20 even though both
# expose a 20-value ROS command. This is the calibrated startup
# pose also used by linker_hand_advanced_g20.
pose = [255,255,255,255,255,255,193,148,105,42,245,255,255,255,255,255,255,255,255,255]
torque = [255] * 5
speed = [255] * 5
elif self.hand_joint == "L21":
pose = [75, 255, 255, 255, 255, 176, 97, 81, 114, 147, 202, 255, 255, 255, 255, 255, 255, 255, 255, 255, 255, 255, 255, 255, 255]
elif self.hand_joint == "L25":
pose = [75, 255, 255, 255, 255, 176, 97, 81, 114, 147, 202, 255, 255, 255, 255, 255, 255, 255, 255, 255, 255, 255, 255, 255, 255]
if self.startup_pose:
expected_lengths = {
"O6": 6,
"L6": 6,
"L6P": 6,
"L7": 7,
"L10": 10,
"L20": 20,
"G20": 20,
"L21": 25,
"L25": 25,
}
expected = expected_lengths.get(str(self.hand_joint).upper(), 0)
if len(self.startup_pose) != expected:
raise ValueError(
f'startup_pose for {self.hand_joint} must contain {expected} values'
)
pose = list(self.startup_pose)
if self.startup_speed >= 0:
speed = [self.startup_speed] * len(speed)
if pose is not None:
for i in range(1):
self.api.set_speed(speed=speed)
time.sleep(0.1)
self.api.set_torque(torque=torque)
time.sleep(0.1)
self.api.finger_move(pose=pose)
time.sleep(0.1)
def hand_control_cb(self, msg):
# The hardware can be slower than the camera. Always replace a
# pending command with the newest sample and never replay an already
# applied sample; this prevents latency from accumulating in software.
position = list(msg.position)
if position:
self.last_hand_post_cmd = (
position
if command_changed(self.applied_hand_post_cmd, position)
else None
)
velocity = list(msg.velocity)
if velocity:
self.last_hand_vel_cmd = (
velocity
if command_changed(self.applied_hand_vel_cmd, velocity)
else None
)
effort = list(msg.effort)
if effort:
self.last_hand_eff_cmd = effort
def _apply_pending_commands(self):
if self.cmd_lock:
return
if self.last_hand_post_cmd is not None:
pose = list(self.last_hand_post_cmd)
self.api.finger_move(pose=pose)
self.applied_hand_post_cmd = pose
self.last_hand_post_cmd = None
if self.last_hand_vel_cmd is not None:
vel = list(self.last_hand_vel_cmd)
if not all(x == 0 for x in vel):
if (str(self.hand_joint).upper() == "O6" or str(self.hand_joint).upper() == "L6" or str(self.hand_joint).upper() == "L6P") and len(vel) == 6:
speed = vel
self.api.set_joint_speed(speed=speed)
elif self.hand_joint == "L7" and len(vel) == 7:
speed = vel
self.api.set_joint_speed(speed=speed)
elif self.hand_joint == "L10" and len(vel) == 10:
speed = [vel[0],vel[2],vel[3],vel[4],vel[5]]
self.api.set_joint_speed(speed=speed)
elif self.hand_joint == "L20" and len(vel) == 20:
speed = [vel[10],vel[1],vel[2],vel[3],vel[4]]
self.api.set_joint_speed(speed=speed)
elif self.hand_joint == "G20" and len(vel) == 20:
# G20 speed is configured per finger, not per one of
# the 20 exposed position slots.
speed = [vel[0],vel[1],vel[2],vel[3],vel[4]]
self.api.set_joint_speed(speed=speed)
elif self.hand_joint == "L21" and len(vel) == 25:
speed = vel
self.api.set_joint_speed(speed=speed)
elif self.hand_joint == "L25" and len(vel) == 25:
speed = vel
self.api.set_joint_speed(speed=speed)
self.applied_hand_vel_cmd = vel
self.last_hand_vel_cmd = None
def _poll_state_if_due(self):
if self.hand_state_pub.get_subscription_count() < 1:
return
now = time.monotonic()
if not state_poll_due(
self.last_state_poll_time, now, self.state_poll_period
):
return
# Record the start time so a slow G20 read cannot immediately trigger
# another read on the following timer callback.
self.last_state_poll_time = now
self.last_hand_state = self.api.get_state()
time.sleep(0.003)
if state_poll_due(
self.last_velocity_poll_time, now, self.velocity_poll_period
):
self.last_velocity_poll_time = now
self.last_hand_vel = self.api.get_joint_speed()
time.sleep(0.002)
def run(self):
if self.sdk_v == 1:
self.sleep_time = 0.009
# Position commands have priority over synchronous state reads.
self._apply_pending_commands()
self._poll_state_if_due()
if self.cmd_lock == False:
time.sleep(0.003)
if self.run_count == 3 and self.is_touch == True and self.touch_type == 1 and self.modbus == "None" and self.touch_pub.get_subscription_count() > 0:
"""单点式压力传感器"""
self.force = self.api.get_force()
if self.is_touch == True and (self.touch_type > 1 or self.modbus != "None") and (self.matrix_touch_pub.get_subscription_count() > 0 or self.matrix_touch_mass_pub.get_subscription_count() > 0 or self.matrix_touch_pub_pc.get_subscription_count() > 0):
"""矩阵式压力传感器"""
if self.run_count == 3:
self.matrix_dic["thumb_matrix"] = self.api.get_thumb_matrix_touch(sleep_time=self.sleep_time).tolist()
if self.run_count == 4:
self.matrix_dic["index_matrix"] = self.api.get_index_matrix_touch(sleep_time=self.sleep_time).tolist()
if self.run_count == 5:
self.matrix_dic["middle_matrix"] = self.api.get_middle_matrix_touch(sleep_time=self.sleep_time).tolist()
if self.run_count == 6:
self.matrix_dic["ring_matrix"] = self.api.get_ring_matrix_touch(sleep_time=self.sleep_time).tolist()
if self.run_count == 7:
self.matrix_dic["little_matrix"] = self.api.get_little_matrix_touch(sleep_time=self.sleep_time).tolist()
time.sleep(0.005)
if self.run_count == 8 and self.hand_info_pub.get_subscription_count() > 0:
"""手部信息"""
self.last_hand_info = {
"version": self.embedded_version, # Dexterous hand version number
"hand_joint": self.hand_joint, # Dexterous hand joint type
"speed": self.api.get_speed(), # Current speed threshold of the dexterous hand
"current": self.api.get_current(), # Current of the dexterous hand
"fault": self.api.get_fault(), # Current fault of the dexterous hand
"motor_temperature": self.api.get_temperature(), # Current motor temperature of the dexterous hand
"torque": self.api.get_torque(), # Current torque of the dexterous hand
"is_touch":self.is_touch,
"touch_type": self.touch_type,
"finger_order": self.api.get_finger_order() # Finger motor order
}
if self.run_count == 9:
self.run_count = 0
self.run_count += 1
time.sleep(0.003)
def pub_state(self):
while True:
if self.hand_state_pub.get_subscription_count() > 0:
msg = self.joint_state_msg(self.last_hand_state, self.last_hand_vel)
self.hand_state_pub.publish(msg)
if self.is_touch == True and self.touch_type == 1 and self.modbus == "None" and self.touch_pub.get_subscription_count() > 0:
msg = Float32MultiArray()
msg.data = [float(val) for sublist in self.force for val in sublist]
self.touch_pub.publish(msg)
if self.is_touch == True and (self.touch_type > 1 or self.modbus != "None") and (self.matrix_touch_pub.get_subscription_count() > 0 or self.matrix_touch_mass_pub.get_subscription_count() > 0 or self.matrix_touch_pub_pc.get_subscription_count() > 0):
# 发布矩阵压感数据JSON格式
self.pub_matrix_dic()
# 发布矩阵压感合值浮点数组
self.pub_matrix_mass(dic=self.matrix_dic)
# 发布矩阵压感点云格式
self.pub_matrix_point_cloud()
if self.hand_info_pub.get_subscription_count() > 0:
msg = String()
msg.data = json.dumps(self.last_hand_info)
self.hand_info_pub.publish(msg)
time.sleep(self.hz)
def pub_matrix_mass(self, dic):
"""发布矩阵数据合值,顺序为 thumb, index, middle, ring, little,单位 g。"""
msg = Float32MultiArray()
msg.data = [
float(sum(sum(row) for row in dic["thumb_matrix"])),
float(sum(sum(row) for row in dic["index_matrix"])),
float(sum(sum(row) for row in dic["middle_matrix"])),
float(sum(sum(row) for row in dic["ring_matrix"])),
float(sum(sum(row) for row in dic["little_matrix"])),
]
self.matrix_touch_mass_pub.publish(msg)
def pub_matrix_point_cloud(self):
"""发布矩阵数据点云格式"""
tmp_dic = self.matrix_dic.copy()
del tmp_dic['stamp'] # 去掉时间戳字段
all_matrices = list(tmp_dic.values()) # 5 帧,每帧 6×12=72 个数
# 摊平到一维:360 个 float
flat_list = [v for frame in all_matrices for v in frame] # 360
flat = np.concatenate([np.asarray(np.clip(c, 0, 255), dtype=np.uint8) for c in flat_list])
fields = [PointField(
name='val',
offset=0,
datatype=PointField.UINT8,
count=1
)]
pc = PointCloud2()
pc.header.stamp = self.stamp_clock.now().to_msg()
pc.header.frame_id = ''
pc.height = 1
pc.width = flat.size # 360
pc.fields = fields
pc.is_bigendian = False
pc.point_step = 1 # 1 个 float32
pc.row_step = pc.point_step * pc.width
pc.data = flat.tobytes() # 1440 字节
self.matrix_touch_pub_pc.publish(pc)
def pub_matrix_dic(self):
"""发布矩阵数据JSON格式"""
msg = String()
# 获取当前的 ROS 时间
current_time = self.stamp_clock.now()
# 提取 secs 和 nsecs
t_secs = current_time.to_msg().sec
t_nsecs = current_time.to_msg().nanosec
self.matrix_dic["stamp"]["secs"] = t_secs
self.matrix_dic["stamp"]["nsecs"] = t_nsecs
msg.data = json.dumps(self.matrix_dic)
self.matrix_touch_pub.publish(msg)
def joint_state_msg(self, pose,vel=[]):
joint_state = JointState()
joint_state.header = Header()
joint_state.header.stamp = self.get_clock().now().to_msg()
joint_state.name = self.api.get_finger_order()
joint_state.position = [float(x) for x in pose]
if len(vel) > 1:
joint_state.velocity = [float(x) for x in vel]
else:
joint_state.velocity = [0.0] * len(pose)
joint_state.effort = [0.0] * len(pose)
return joint_state
def hand_setting_cb(self,msg):
'''控制命令回调'''
data = json.loads(msg.data)
print(f"Received setting command: {data['setting_cmd']}",flush=True)
try:
if data["params"]["hand_type"] == "left":
hand = self.api
hand_left = True
elif data["params"]["hand_type"] == "right":
hand = self.api
hand_right = True
else:
print("Please specify the hand part to be set",flush=True)
return
self.cmd_lock = True
# Set maximum torque
if data["setting_cmd"] == "set_max_torque_limits": # Set maximum torque
torque = list(data["params"]["torque"])
hand.set_torque(torque=torque)
if data["setting_cmd"] == "set_speed": # Set speed
if isinstance(data["params"]["speed"], list) == True:
speed = data["params"]["speed"]
hand.set_speed(speed=speed)
else:
ColorMsg(msg=f"Speed parameter error, speed must be a list", color="red")
if data["setting_cmd"] == "clear_faults": # Clear faults
if hand_left == True and self.hand_joint == "L10" :
ColorMsg(msg=f"L10 left hand cannot clear faults")
elif hand_right == True and self.hand_joint == "L10" :
ColorMsg(msg=f"L10 right hand cannot clear faults")
else:
hand.clear_faults()
if data["setting_cmd"] == "get_faults": # Get faults
f = hand.get_fault()
ColorMsg(msg=f"Get faults: {f}")
if data["setting_cmd"] == "electric_current": # Get current
ColorMsg(msg=f"Get current: {hand.get_current()}")
if data["setting_cmd"] == "set_electric_current": # Set current
if isinstance(data["params"]["current"], list) == True:
hand.set_current(data["params"]["current"])
if data["setting_cmd"] == "show_fun_table": # Get faults
f = hand.show_fun_table()
except:
print("命令参数错误")
self.cmd_lock = False
finally:
self.cmd_lock = False
def close_can(self):
self.api.open_can.close_can(can=self.can)
sys.exit(0)
def main(args=None):
try:
rclpy.init(args=args)
node = LinkerHand("linker_hand_sdk")
embedded_version = node.embedded_version or []
hand_joint = node.hand_joint.upper()
if len(embedded_version) == 3 or hand_joint in {"O6", "L6", "G20"}:
ColorMsg(msg=f"New Matrix Touch For SDK V2", color="green")
node.sdk_v = 2
elif len(embedded_version) == 6 and hand_joint == "L10":
ColorMsg(msg=f"New Matrix Touch For SDK V2", color="green")
node.sdk_v = 2
elif len(embedded_version) > 4 and ((embedded_version[0]==10 and embedded_version[4]>35) or (embedded_version[0]==7 and embedded_version[4]>50) or (embedded_version[0] == 6)):
ColorMsg(msg=f"New Matrix Touch For SDK V2", color="green")
node.sdk_v = 2
else:
ColorMsg(msg=f"SDK V1", color="green")
node.sdk_v = 1
rclpy.spin(node) # 主循环,监听 ROS 回调
except KeyboardInterrupt:
print("收到 Ctrl+C,准备退出...")
finally:
# node.close_can() # 关闭 CAN 或其他硬件资源
# node.destroy_node() # 销毁 ROS 节点
# rclpy.shutdown() # 关闭 ROS
print("程序已退出。")
@@ -0,0 +1,414 @@
#!/usr/bin/env python3
# -*- coding: utf-8 -*-
'''
编译: colcon build --symlink-install
启动命令:ros2 run linker_hand_ros2_sdk linker_hand_sdk
'''
from re import A
import rclpy,sys # ROS2 Python接口库
import time
import numpy as np
from rclpy.node import Node # ROS2 节点类
from rclpy.clock import Clock
from std_msgs.msg import String, Header, Float32MultiArray
from sensor_msgs.msg import JointState, PointCloud2, PointField
import time, json, threading
from linker_hand_ros2_sdk.LinkerHand.linker_hand_api import LinkerHandApi
from linker_hand_ros2_sdk.LinkerHand.utils.color_msg import ColorMsg
from linker_hand_ros2_sdk.LinkerHand.utils.open_can import OpenCan
class LinkerHand(Node):
def __init__(self, name):
super().__init__(name)
# 声明参数(带默认值)
self.declare_parameter('hand_type', 'left')
self.declare_parameter('hand_joint', 'L6')
self.declare_parameter('is_touch', False)
self.declare_parameter('can', 'can0')
self.declare_parameter('modbus', "None")
# ros时间获取
self.stamp_clock = Clock()
# 获取参数值
self.hand_type = self.get_parameter('hand_type').value
self.hand_joint = self.get_parameter('hand_joint').value
self.is_touch = self.get_parameter('is_touch').value
self.can = self.get_parameter('can').value
self.modbus = self.get_parameter('modbus').value
self.sdk_v = 2
self.sleep_time = 0.005
self.cmd_lock = False
self.last_hand_post_cmd = None # 最新手指位置命令
self.last_hand_vel_cmd = None # 最新手指速度命令
self.last_hand_eff_cmd = None # 最新手指力矩命令
self.last_hand_state = [-1] * 10
self.last_hand_vel = [-1] * 10
self.force = [[-1] * 5] * 4
self.matrix_dic = {
"stamp":{
"sec": 0,
"nanosec": 0,
},
"thumb_matrix":[[-1] * 6 for _ in range(12)],
"index_matrix":[[-1] * 6 for _ in range(12)],
"middle_matrix":[[-1] * 6 for _ in range(12)],
"ring_matrix":[[-1] * 6 for _ in range(12)],
"little_matrix":[[-1] * 6 for _ in range(12)]
}
# 压感矩阵合值,单位g 克
self.matrix_mass_dic = {
"stamp":{
"secs": 0,
"nsecs": 0,
},
"thumb_mass":[-1],
"index_mass":[-1],
"middle_mass":[-1],
"ring_mass":[-1],
"little_mass":[-1]
}
self.last_hand_info = {
"version": [-1], # Dexterous hand version number
"hand_joint": self.hand_joint, # Dexterous hand joint type
"speed": [-1] * 10, # Current speed threshold of the dexterous hand
"current": [-1] * 10, # Current of the dexterous hand
"fault": [-1] * 10, # Current fault of the dexterous hand
"motor_temperature": [-1] * 10, # Current motor temperature of the dexterous hand
"torque": [-1] * 10, # Current torque of the dexterous hand
"is_touch":self.is_touch,
"touch_type": -1,
"finger_order": None # Finger motor order
}
self.version = []
self.touch_type = -1
self.hz = 1.0/60.0
self.hand_setting_sub = self.create_subscription(String,'/cb_hand_setting_cmd', self.hand_setting_cb, 10)
self._init_hand()
time.sleep(1)
self.run_count = 0 # 计数器,用于记录运行次数
self.timer = self.create_timer(0.01, self.run) # 100 Hz
self.thread_pub_state = threading.Thread(target=self.pub_state)
self.thread_pub_state.daemon = True
self.thread_pub_state.start()
def _init_hand(self):
self.api = LinkerHandApi(hand_type=self.hand_type, hand_joint=self.hand_joint,modbus=self.modbus,can=self.can)
time.sleep(0.1)
self.touch_type = self.api.get_touch_type()
self.hand_cmd_sub = self.create_subscription(JointState, f'/cb_{self.hand_type}_hand_control_cmd', self.hand_control_cb,10)
self.hand_state_pub = self.create_publisher(JointState, f'/cb_{self.hand_type}_hand_state',10)
self.hand_info_pub = self.create_publisher(String, f'/cb_{self.hand_type}_hand_info', 10)
if self.is_touch == True:
if self.touch_type > 1:
ColorMsg(msg=f"{self.hand_type} {self.hand_joint} Equipped with matrix pressure sensing", color='green')
self.matrix_touch_pub = self.create_publisher(String, f'/cb_{self.hand_type}_hand_matrix_touch', 10)
self.matrix_touch_pub_pc = self.create_publisher(PointCloud2, f'/cb_{self.hand_type}_hand_matrix_touch_pc', 10)
self.matrix_touch_mass_pub = self.create_publisher(String, f'/cb_{self.hand_type}_hand_matrix_touch_mass', 10)
elif self.touch_type != -1:
ColorMsg(msg=f"{self.hand_type} {self.hand_joint} Equipped with pressure sensor", color="green")
self.touch_pub = self.create_publisher(Float32MultiArray, f'/cb_{self.hand_type}_hand_force', 10)
else:
ColorMsg(msg=f"{self.hand_type} {self.hand_joint} Not equipped with any pressure sensors", color="red")
self.is_touch = False
self.embedded_version = self.api.get_embedded_version()
pose = None
torque = [200, 200, 200, 200, 200]
speed = [200, 250, 250, 250, 250]
if self.hand_joint.upper() == "O6" or self.hand_joint.upper() == "L6" or self.hand_joint.upper() == "L6P":
pose = [200, 255, 255, 255, 255, 180]
torque = [250, 250, 250, 250, 250, 250]
# O6 最大速度阈值
speed = [200, 250, 250, 250, 250, 250]
elif self.hand_joint == "L7":
# The data length of L7 is 7, reinitialize here
pose = [255, 200, 255, 255, 255, 255, 180]
torque = [250, 250, 250, 250, 250, 250, 250]
speed = [120, 250, 250, 250, 250, 250, 250]
elif self.hand_joint == "L10":
torque = [255] * 10
pose = [255, 200, 255, 255, 255, 255, 180, 180, 180, 41]
speed = [200, 250, 250, 250, 250, 250, 250, 250, 250, 250]
elif self.hand_joint == "L20":
pose = [255,255,255,255,255,255,10,100,180,240,245,255,255,255,255,255,255,255,255,255]
elif self.hand_joint == "L21":
pose = [75, 255, 255, 255, 255, 176, 97, 81, 114, 147, 202, 255, 255, 255, 255, 255, 255, 255, 255, 255, 255, 255, 255, 255, 255]
elif self.hand_joint == "L25":
pose = [75, 255, 255, 255, 255, 176, 97, 81, 114, 147, 202, 255, 255, 255, 255, 255, 255, 255, 255, 255, 255, 255, 255, 255, 255]
if pose is not None:
for i in range(1):
self.api.set_speed(speed=speed)
time.sleep(0.1)
self.api.set_torque(torque=torque)
time.sleep(0.1)
self.api.finger_move(pose=pose)
time.sleep(0.1)
def list_check(self,pose):
if isinstance(pose, list) == False:
return False
if len(self.last_hand_post_cmd) != len(pose):
return False
return any(abs(self.last_hand_post_cmd - pose) >= 3 for self.last_hand_post_cmd, pose in zip(self.last_hand_post_cmd, pose))
def hand_control_cb(self, msg):
if self.last_hand_post_cmd == None or self.list_check(msg.position) == True:
self.last_hand_post_cmd = msg.position
if self.last_hand_vel_cmd == None or self.list_check(msg.velocity) == True:
self.last_hand_vel_cmd = msg.velocity
if self.last_hand_eff_cmd == None or self.list_check(msg.effort) == True:
self.last_hand_eff_cmd = msg.effort
def run(self):
if self.sdk_v == 1:
self.sleep_time = 0.009
if self.hand_state_pub.get_subscription_count() > 0:
# 优先获取手指状态并且发布
self.last_hand_state = self.api.get_state()
time.sleep(0.003)
self.last_hand_vel = self.api.get_joint_speed()
time.sleep(0.002)
if self.cmd_lock == False:
if self.last_hand_post_cmd != None:
self.api.finger_move(pose=self.last_hand_post_cmd)
self.last_hand_post_cmd = None
if self.last_hand_vel_cmd != None:
vel = list(self.last_hand_vel_cmd)
if all(x == 0 for x in vel):
pass
else:
if (str(self.hand_joint).upper() == "O6" or str(self.hand_joint).upper() == "L6" or str(self.hand_joint).upper() == "L6P") and len(vel) == 6:
speed = vel
self.api.set_joint_speed(speed=speed)
elif self.hand_joint == "L7" and len(vel) == 7:
speed = vel
self.api.set_joint_speed(speed=speed)
elif self.hand_joint == "L10" and len(vel) == 10:
speed = [vel[0],vel[2],vel[3],vel[4],vel[5]]
self.api.set_joint_speed(speed=speed)
elif self.hand_joint == "L20" and len(vel) == 20:
speed = [vel[10],vel[1],vel[2],vel[3],vel[4]]
self.api.set_joint_speed(speed=speed)
elif self.hand_joint == "L21" and len(vel) == 25:
speed = vel
self.api.set_joint_speed(speed=speed)
elif self.hand_joint == "L25" and len(vel) == 25:
speed = vel
self.api.set_joint_speed(speed=speed)
self.last_hand_vel_cmd = None
time.sleep(0.003)
if self.run_count == 3 and self.is_touch == True and self.touch_type == 1 and self.touch_pub.get_subscription_count() > 0:
"""单点式压力传感器"""
self.force = self.api.get_force()
if self.is_touch == True and self.touch_type > 1 and (self.matrix_touch_pub.get_subscription_count() > 0 or self.matrix_touch_mass_pub.get_subscription_count() > 0 or self.matrix_touch_pub_pc.get_subscription_count() > 0):
"""矩阵式压力传感器"""
if self.run_count == 3:
self.matrix_dic["thumb_matrix"] = self.api.get_thumb_matrix_touch(sleep_time=self.sleep_time).tolist()
if self.run_count == 4:
self.matrix_dic["index_matrix"] = self.api.get_index_matrix_touch(sleep_time=self.sleep_time).tolist()
if self.run_count == 5:
self.matrix_dic["middle_matrix"] = self.api.get_middle_matrix_touch(sleep_time=self.sleep_time).tolist()
if self.run_count == 6:
self.matrix_dic["ring_matrix"] = self.api.get_ring_matrix_touch(sleep_time=self.sleep_time).tolist()
if self.run_count == 7:
self.matrix_dic["little_matrix"] = self.api.get_little_matrix_touch(sleep_time=self.sleep_time).tolist()
time.sleep(0.005)
if self.run_count == 8 and self.hand_info_pub.get_subscription_count() > 0:
"""手部信息"""
self.last_hand_info = {
"version": self.embedded_version, # Dexterous hand version number
"hand_joint": self.hand_joint, # Dexterous hand joint type
"speed": self.api.get_speed(), # Current speed threshold of the dexterous hand
"current": self.api.get_current(), # Current of the dexterous hand
"fault": self.api.get_fault(), # Current fault of the dexterous hand
"motor_temperature": self.api.get_temperature(), # Current motor temperature of the dexterous hand
"torque": self.api.get_torque(), # Current torque of the dexterous hand
"is_touch":self.is_touch,
"touch_type": self.touch_type,
"finger_order": self.api.get_finger_order() # Finger motor order
}
if self.run_count == 9:
self.run_count = 0
self.run_count += 1
time.sleep(0.003)
def pub_state(self):
while True:
if self.hand_state_pub.get_subscription_count() > 0:
msg = self.joint_state_msg(self.last_hand_state, self.last_hand_vel)
self.hand_state_pub.publish(msg)
if self.is_touch == True and self.touch_type == 1 and self.touch_pub.get_subscription_count() > 0:
msg = Float32MultiArray()
msg.data = [float(val) for sublist in self.force for val in sublist]
self.touch_pub.publish(msg)
if self.is_touch == True and self.touch_type > 1 and (self.matrix_touch_pub.get_subscription_count() > 0 or self.matrix_touch_mass_pub.get_subscription_count() > 0 or self.matrix_touch_pub_pc.get_subscription_count() > 0):
# 发布矩阵压感数据JSON格式
self.pub_matrix_dic()
# 发布矩阵压感和值JSON格式
self.pub_matrix_mass(dic=self.matrix_dic)
# 发布矩阵压感点云格式
self.pub_matrix_point_cloud()
if self.hand_info_pub.get_subscription_count() > 0:
msg = String()
msg.data = json.dumps(self.last_hand_info)
self.hand_info_pub.publish(msg)
time.sleep(self.hz)
def pub_matrix_mass(self, dic):
"""发布矩阵数据合值 单位g 克 JSON格式"""
msg = String()
# 获取当前的 ROS 时间
current_time = self.stamp_clock.now()
# 提取 secs 和 nsecs
t_secs = current_time.to_msg().sec
t_nsecs = current_time.to_msg().nanosec
self.matrix_mass_dic["stamp"]["secs"] = t_secs
self.matrix_mass_dic["stamp"]["nsecs"] = t_nsecs
self.matrix_mass_dic["unit"] = "g"
self.matrix_mass_dic["thumb_mass"] = sum(sum(row) for row in dic["thumb_matrix"])
self.matrix_mass_dic["index_mass"] = sum(sum(row) for row in dic["index_matrix"])
self.matrix_mass_dic["middle_mass"] = sum(sum(row) for row in dic["middle_matrix"])
self.matrix_mass_dic["ring_mass"] = sum(sum(row) for row in dic["ring_matrix"])
self.matrix_mass_dic["little_mass"] = sum(sum(row) for row in dic["little_matrix"])
msg.data = json.dumps(self.matrix_mass_dic)
self.matrix_touch_mass_pub.publish(msg)
def pub_matrix_point_cloud(self):
"""发布矩阵数据点云格式"""
tmp_dic = self.matrix_dic.copy()
del tmp_dic['stamp'] # 去掉时间戳字段
all_matrices = list(tmp_dic.values()) # 5 帧,每帧 6×12=72 个数
# 摊平到一维:360 个 float
flat_list = [v for frame in all_matrices for v in frame] # 360
flat = np.concatenate([np.asarray(np.clip(c, 0, 255), dtype=np.uint8) for c in flat_list])
fields = [PointField(
name='val',
offset=0,
datatype=PointField.UINT8,
count=1
)]
pc = PointCloud2()
pc.header.stamp = self.stamp_clock.now().to_msg()
pc.header.frame_id = ''
pc.height = 1
pc.width = flat.size # 360
pc.fields = fields
pc.is_bigendian = False
pc.point_step = 1 # 1 个 float32
pc.row_step = pc.point_step * pc.width
pc.data = flat.tobytes() # 1440 字节
self.matrix_touch_pub_pc.publish(pc)
def pub_matrix_dic(self):
"""发布矩阵数据JSON格式"""
msg = String()
# 获取当前的 ROS 时间
current_time = self.stamp_clock.now()
# 提取 secs 和 nsecs
t_secs = current_time.to_msg().sec
t_nsecs = current_time.to_msg().nanosec
self.matrix_dic["stamp"]["secs"] = t_secs
self.matrix_dic["stamp"]["nsecs"] = t_nsecs
msg.data = json.dumps(self.matrix_dic)
self.matrix_touch_pub.publish(msg)
def joint_state_msg(self, pose,vel=[]):
joint_state = JointState()
joint_state.header = Header()
joint_state.header.stamp = self.get_clock().now().to_msg()
joint_state.name = self.api.get_finger_order()
joint_state.position = [float(x) for x in pose]
if len(vel) > 1:
joint_state.velocity = [float(x) for x in vel]
else:
joint_state.velocity = [0.0] * len(pose)
joint_state.effort = [0.0] * len(pose)
return joint_state
def hand_setting_cb(self,msg):
'''控制命令回调'''
data = json.loads(msg.data)
print(f"Received setting command: {data['setting_cmd']}",flush=True)
try:
if data["params"]["hand_type"] == "left":
hand = self.api
hand_left = True
elif data["params"]["hand_type"] == "right":
hand = self.api
hand_right = True
else:
print("Please specify the hand part to be set",flush=True)
return
self.cmd_lock = True
# Set maximum torque
if data["setting_cmd"] == "set_max_torque_limits": # Set maximum torque
torque = list(data["params"]["torque"])
hand.set_torque(torque=torque)
if data["setting_cmd"] == "set_speed": # Set speed
if isinstance(data["params"]["speed"], list) == True:
speed = data["params"]["speed"]
hand.set_speed(speed=speed)
else:
ColorMsg(msg=f"Speed parameter error, speed must be a list", color="red")
if data["setting_cmd"] == "clear_faults": # Clear faults
if hand_left == True and self.hand_joint == "L10" :
ColorMsg(msg=f"L10 left hand cannot clear faults")
elif hand_right == True and self.hand_joint == "L10" :
ColorMsg(msg=f"L10 right hand cannot clear faults")
else:
hand.clear_faults()
if data["setting_cmd"] == "get_faults": # Get faults
f = hand.get_fault()
ColorMsg(msg=f"Get faults: {f}")
if data["setting_cmd"] == "electric_current": # Get current
ColorMsg(msg=f"Get current: {hand.get_current()}")
if data["setting_cmd"] == "set_electric_current": # Set current
if isinstance(data["params"]["current"], list) == True:
hand.set_current(data["params"]["current"])
if data["setting_cmd"] == "show_fun_table": # Get faults
f = hand.show_fun_table()
except:
print("命令参数错误")
self.cmd_lock = False
finally:
self.cmd_lock = False
def close_can(self):
self.api.open_can.close_can(can=self.can)
sys.exit(0)
def main(args=None):
try:
rclpy.init(args=args)
node = LinkerHand("linker_hand_sdk")
embedded_version = node.embedded_version
if len(embedded_version) == 3 or node.hand_joint.upper() == "O6" or node.hand_joint.upper() == "L6" or node.hand_joint.upper() == "G20":
ColorMsg(msg=f"New Matrix Touch For SDK V2", color="green")
node.sdk_v = 2
elif len(embedded_version) == 6 and node.hand_joint == "L10":
ColorMsg(msg=f"New Matrix Touch For SDK V2", color="green")
node.sdk_v = 2
elif len(embedded_version) > 4 and ((embedded_version[0]==10 and embedded_version[4]>35) or (embedded_version[0]==7 and embedded_version[4]>50) or (embedded_version[0] == 6)):
ColorMsg(msg=f"New Matrix Touch For SDK V2", color="green")
node.sdk_v = 2
else:
ColorMsg(msg=f"SDK V1", color="green")
node.sdk_v = 1
rclpy.spin(node) # 主循环,监听 ROS 回调
except KeyboardInterrupt:
print("收到 Ctrl+C,准备退出...")
finally:
# node.close_can() # 关闭 CAN 或其他硬件资源
# node.destroy_node() # 销毁 ROS 节点
# rclpy.shutdown() # 关闭 ROS
print("程序已退出。")
@@ -0,0 +1,251 @@
#!/usr/bin/env python3
# -*- coding: utf-8 -*-
from re import A
import rclpy,sys # ROS2 Python接口库
import time
import argparse
import numpy as np
from rclpy.node import Node # ROS2 节点类
from rclpy.clock import Clock
from std_msgs.msg import String, Header, Float32MultiArray
from sensor_msgs.msg import JointState, PointCloud2, PointField
import time, json, threading
from linker_hand_ros2_sdk.LinkerHand.linker_hand_api import LinkerHandApi
from linker_hand_ros2_sdk.LinkerHand.utils.color_msg import ColorMsg
from linker_hand_ros2_sdk.LinkerHand.utils.open_can import OpenCan
# Linker Hand 型号
HAND_JOINT = "G20"
# 默认手指关节位置
DEFAULT_POSITION = [255, 255, 255, 255, 255, 255, 193, 148, 105, 42, 245, 255, 255, 255, 255, 255, 255, 255, 255, 255]
# 默认手指关节速度
DEFAULT_SPEED=[255, 255, 255, 255, 255]
# 默认手指关节力矩
DEFAULT_TORQUE = [255, 255, 255, 255, 255]
# 压感传感器延迟时间
TOUCH_SLEEP_TIME = 0.003
class LinkerHandAdvancedG20(Node):
def __init__(self, name, hand_type, can, is_touch):
super().__init__(name)
self.hand_type = hand_type
self.hand_joint = HAND_JOINT
if is_touch == "true":
self.is_touch = True
else:
self.is_touch = False
self.can = can
self.modbus = "None"
time.sleep(0.1)
self._check_linker_hand_type()
self.last_hand_post_cmd = None # 最新手指位置命令
self.last_hand_vel_cmd = None # 最新手指速度命令
self.last_hand_eff_cmd = None # 最新手指力矩命令
self.matrix_dic = {
"stamp":{
"sec": 0,
"nanosec": 0,
},
"thumb_matrix":[[-1] * 6 for _ in range(12)],
"index_matrix":[[-1] * 6 for _ in range(12)],
"middle_matrix":[[-1] * 6 for _ in range(12)],
"ring_matrix":[[-1] * 6 for _ in range(12)],
"little_matrix":[[-1] * 6 for _ in range(12)]
}
# 压感矩阵合值,单位g 克
self.matrix_mass_dic = {
"stamp":{
"secs": 0,
"nsecs": 0,
},
"thumb_mass":[-1],
"index_mass":[-1],
"middle_mass":[-1],
"ring_mass":[-1],
"little_mass":[-1]
}
self.hz = 1.0/60.0
# ros时间获取
self.stamp_clock = Clock()
self._init_hand()
time.sleep(2)
self.count = 0
self.timer = self.create_timer(self.hz, self.run) # 100 Hz
def _check_linker_hand_type(self):
if self.modbus != "None":
ColorMsg(msg=f"Modbus暂不支持", color="red")
sys.exit(0)
if self.hand_joint.upper() != "G20":
ColorMsg(msg=f"Linker Hand hand_joint参数错误", color="red")
sys.exit(0)
def _init_hand(self):
self.api = LinkerHandApi(hand_type=self.hand_type, hand_joint=self.hand_joint,modbus=self.modbus,can=self.can)
time.sleep(0.1)
self.touch_type = self.api.get_touch_type()
self.hand_cmd_sub = self.create_subscription(JointState, f'/l20_{self.hand_type}_hand_control_cmd', self.hand_control_cb,10)
self.hand_state_pub = self.create_publisher(JointState, f'/l20_{self.hand_type}_hand_state',10)
if self.is_touch == True:
if self.touch_type > 1:
ColorMsg(msg=f"{self.hand_type} {self.hand_joint} Equipped with matrix pressure sensing", color='green')
self.matrix_touch_pub = self.create_publisher(String, f'/l20_{self.hand_type}_hand_matrix_touch', 10)
self.matrix_touch_pub_pc = self.create_publisher(PointCloud2, f'/l20_{self.hand_type}_hand_matrix_touch_pc', 10)
self.matrix_touch_mass_pub = self.create_publisher(Float32MultiArray, f'/l20_{self.hand_type}_hand_matrix_touch_mass', 10)
elif self.touch_type != -1:
ColorMsg(msg=f"{self.hand_type} {self.hand_joint} Equipped with pressure sensor", color="green")
self.touch_pub = self.create_publisher(Float32MultiArray, f'/l20_{self.hand_type}_hand_force', 10)
else:
ColorMsg(msg=f"{self.hand_type} {self.hand_joint} Not equipped with any pressure sensors", color="red")
self.is_touch = False
self.embedded_version = self.api.get_embedded_version()
self.api.set_speed(speed=DEFAULT_SPEED)
time.sleep(0.1)
self.api.set_torque(torque=DEFAULT_TORQUE)
time.sleep(0.1)
self.api.finger_move(pose=DEFAULT_POSITION)
time.sleep(0.1)
def hand_control_cb(self, msg):
if self.last_hand_post_cmd == None or self.list_check(msg.position) == True:
self.last_hand_post_cmd = msg.position
if self.last_hand_vel_cmd == None or self.list_check(msg.velocity) == True:
self.last_hand_vel_cmd = msg.velocity
if self.last_hand_eff_cmd == None or self.list_check(msg.effort) == True:
self.last_hand_eff_cmd = msg.effort
def list_check(self,pose):
if isinstance(pose, list) == False:
return False
if len(self.last_hand_post_cmd) != len(pose):
return False
return any(abs(self.last_hand_post_cmd - pose) >= 3 for self.last_hand_post_cmd, pose in zip(self.last_hand_post_cmd, pose))
def joint_state_msg(self, pose,vel=[]):
joint_state = JointState()
joint_state.header = Header()
joint_state.header.stamp = self.get_clock().now().to_msg()
joint_state.name = self.api.get_finger_order()
joint_state.position = [float(x) for x in pose]
if len(vel) > 1:
joint_state.velocity = [float(x) for x in vel]
else:
joint_state.velocity = [0.0] * len(pose)
joint_state.effort = [0.0] * len(pose)
return joint_state
def run(self):
# 执行手控制指令
if self.last_hand_post_cmd != None:
self.api.finger_move(pose=self.last_hand_post_cmd)
self.last_hand_post_cmd = None
# 优先获取手指状态并且发布
self.last_hand_state = self.api.get_state()
self.last_hand_vel = [0.0] * len(self.last_hand_state)
# 发布手状态
msg_state = self.joint_state_msg(self.last_hand_state, self.last_hand_vel)
self.hand_state_pub.publish(msg_state)
if self.is_touch == True:
# 获取压感数据
if self.count == 2:
self.matrix_dic["thumb_matrix"] = self.api.get_thumb_matrix_touch(sleep_time=TOUCH_SLEEP_TIME).tolist()
if self.count == 4:
self.matrix_dic["index_matrix"] = self.api.get_index_matrix_touch(sleep_time=TOUCH_SLEEP_TIME).tolist()
if self.count == 6:
self.matrix_dic["middle_matrix"] = self.api.get_middle_matrix_touch(sleep_time=TOUCH_SLEEP_TIME).tolist()
if self.count == 8:
self.matrix_dic["ring_matrix"] = self.api.get_ring_matrix_touch(sleep_time=TOUCH_SLEEP_TIME).tolist()
if self.count == 10:
self.matrix_dic["little_matrix"] = self.api.get_little_matrix_touch(sleep_time=TOUCH_SLEEP_TIME).tolist()
# 发布矩阵压感数据JSON格式
self.pub_matrix_dic()
# 发布矩阵压感合值浮点数组
self.pub_matrix_mass(dic=self.matrix_dic)
# 发布矩阵压感点云格式
self.pub_matrix_point_cloud()
self.count += 1
if self.count == 11:
self.count = 0
def pub_matrix_dic(self):
"""发布矩阵数据JSON格式"""
msg = String()
# 获取当前的 ROS 时间
current_time = self.stamp_clock.now()
# 提取 secs 和 nsecs
t_secs = current_time.to_msg().sec
t_nsecs = current_time.to_msg().nanosec
self.matrix_dic["stamp"]["secs"] = t_secs
self.matrix_dic["stamp"]["nsecs"] = t_nsecs
msg.data = json.dumps(self.matrix_dic)
self.matrix_touch_pub.publish(msg)
def pub_matrix_mass(self, dic):
"""发布矩阵数据合值,顺序为 thumb, index, middle, ring, little,单位 g。"""
msg = Float32MultiArray()
msg.data = [
float(sum(sum(row) for row in dic["thumb_matrix"])),
float(sum(sum(row) for row in dic["index_matrix"])),
float(sum(sum(row) for row in dic["middle_matrix"])),
float(sum(sum(row) for row in dic["ring_matrix"])),
float(sum(sum(row) for row in dic["little_matrix"])),
]
self.matrix_touch_mass_pub.publish(msg)
def pub_matrix_point_cloud(self):
tmp_dic = self.matrix_dic.copy()
del tmp_dic['stamp'] # 去掉时间戳字段
all_matrices = list(tmp_dic.values()) # 5 帧,每帧 6×12=72 个数 or 5 帧,每帧 4×10=40 个数 列x行
# 摊平到一维
flat_list = [v for frame in all_matrices for v in frame]
flat = np.concatenate([np.asarray(np.clip(c, 0, 255), dtype=np.uint8) for c in flat_list])
fields = [PointField(name='val', offset=0, datatype=PointField.UINT8, count=1)]
pc = PointCloud2()
pc.header.stamp = self.get_clock().now().to_msg()
pc.header.frame_id = '' # 可改成你需要的坐标系
pc.height = 1
pc.width = flat.size # 360
pc.fields = fields
pc.is_bigendian = False
pc.point_step = 1 # 1 个 float32
pc.row_step = pc.point_step * pc.width
pc.data = flat.tobytes() # 1440 字节
self.matrix_touch_pub_pc.publish(pc)
def close_can(self):
self.api.open_can.close_can(can=self.can)
sys.exit(0)
def main(args=None):
'''
本节点用于收集手指状态和压感数据。
'/l20_{self.hand_type}_hand_control_cmd' 话题类型为 sensor_msgs/msg/JointState 控制话题,限制 30Hz
/l20_{self.hand_type}_hand_state 话题类型为 sensor_msgs/msg/JointState 30Hz
'/l20_{self.hand_type}_hand_matrix_touch' 话题类型为 std_msgs/msg/String 30Hz
启动命令:
ros2 run linker_hand_ros2_sdk linker_hand_advanced_g20 --hand_type left --can can0 --is_touch true
'''
try:
rclpy.init(args=args)
parser = argparse.ArgumentParser()
parser.add_argument('--hand_type', required=True)
parser.add_argument('--can', required=True)
parser.add_argument('--is_touch', choices=['true','false'], required=True)
args = parser.parse_args()
node = LinkerHandAdvancedG20(name="linker_hand_advanced_g20",hand_type=args.hand_type,can=args.can,is_touch=args.is_touch)
embedded_version = node.embedded_version
rclpy.spin(node) # 主循环,监听 ROS 回调
except KeyboardInterrupt:
print("收到 Ctrl+C,准备退出...")
finally:
# node.close_can() # 关闭 CAN 或其他硬件资源
# node.destroy_node() # 销毁 ROS 节点
# rclpy.shutdown() # 关闭 ROS
print("程序已退出。")
@@ -0,0 +1,239 @@
#!/usr/bin/env python3
# -*- coding: utf-8 -*-
from re import A
import rclpy,sys # ROS2 Python接口库
import time
import argparse
import numpy as np
from rclpy.node import Node # ROS2 节点类
from rclpy.clock import Clock
from std_msgs.msg import String, Header, Float32MultiArray
from sensor_msgs.msg import JointState, PointCloud2, PointField
import time, json, threading
from linker_hand_ros2_sdk.LinkerHand.linker_hand_api import LinkerHandApi
from linker_hand_ros2_sdk.LinkerHand.utils.color_msg import ColorMsg
from linker_hand_ros2_sdk.LinkerHand.utils.open_can import OpenCan
class LinkerHandAdvancedL10(Node):
def __init__(self, name, hand_type, can, is_touch):
super().__init__(name)
self.hand_type = hand_type
self.hand_joint = "L10"
if is_touch == "true":
self.is_touch = True
else:
self.is_touch = False
self.can = can
self.modbus = "None"
time.sleep(0.1)
self._check_linker_hand_type()
self.last_hand_post_cmd = None # 最新手指位置命令
self.last_hand_vel_cmd = None # 最新手指速度命令
self.last_hand_eff_cmd = None # 最新手指力矩命令
self.count = 0 # 循环计数器
self.matrix_dic = {
"stamp":{
"sec": 0,
"nanosec": 0,
},
"thumb_matrix":[[-1] * 6 for _ in range(12)],
"index_matrix":[[-1] * 6 for _ in range(12)],
"middle_matrix":[[-1] * 6 for _ in range(12)],
"ring_matrix":[[-1] * 6 for _ in range(12)],
"little_matrix":[[-1] * 6 for _ in range(12)]
}
# 压感矩阵合值,单位g 克
self.matrix_mass_dic = {
"stamp":{
"secs": 0,
"nsecs": 0,
},
"thumb_mass":[-1],
"index_mass":[-1],
"middle_mass":[-1],
"ring_mass":[-1],
"little_mass":[-1]
}
self.hz = 1.0/60.0
# ros时间获取
self.stamp_clock = Clock()
self._init_hand()
time.sleep(2)
self.timer = self.create_timer(self.hz, self.run) # 100 Hz
def _check_linker_hand_type(self):
if self.modbus != "None":
ColorMsg(msg=f"Modbus暂不支持", color="red")
sys.exit(0)
if self.hand_joint.upper() != "L10":
ColorMsg(msg=f"L10以外其他Linker Hand暂不支持", color="red")
sys.exit(0)
def _init_hand(self):
self.api = LinkerHandApi(hand_type=self.hand_type, hand_joint=self.hand_joint,modbus=self.modbus,can=self.can)
time.sleep(0.1)
self.touch_type = self.api.get_touch_type()
self.hand_cmd_sub = self.create_subscription(JointState, f'/l20_{self.hand_type}_hand_control_cmd', self.hand_control_cb,10)
self.hand_state_pub = self.create_publisher(JointState, f'/l20_{self.hand_type}_hand_state',10)
if self.is_touch == True:
if self.touch_type > 1:
ColorMsg(msg=f"{self.hand_type} {self.hand_joint} Equipped with matrix pressure sensing", color='green')
self.matrix_touch_pub = self.create_publisher(String, f'/l20_{self.hand_type}_hand_matrix_touch', 10)
self.matrix_touch_pub_pc = self.create_publisher(PointCloud2, f'/l20_{self.hand_type}_hand_matrix_touch_pc', 10)
self.matrix_touch_mass_pub = self.create_publisher(Float32MultiArray, f'/l20_{self.hand_type}_hand_matrix_touch_mass', 10)
elif self.touch_type != -1:
ColorMsg(msg=f"{self.hand_type} {self.hand_joint} Equipped with pressure sensor", color="green")
self.touch_pub = self.create_publisher(Float32MultiArray, f'/l20_{self.hand_type}_hand_force', 10)
else:
ColorMsg(msg=f"{self.hand_type} {self.hand_joint} Not equipped with any pressure sensors", color="red")
self.is_touch = False
self.embedded_version = self.api.get_embedded_version()
if self.hand_joint.upper() == "L10":
pose = [255, 200, 255, 255, 255, 255, 180, 180, 180, 41]
torque = [255, 255, 255, 255, 255, 255, 255, 255, 255, 255]
speed = [255, 255, 255, 255, 255, 255, 255, 255, 255, 255]
self.api.set_speed(speed=speed)
time.sleep(0.1)
self.api.set_torque(torque=torque)
time.sleep(0.1)
self.api.finger_move(pose=pose)
time.sleep(0.1)
self.serial_number = self.api.get_serial_number()
def hand_control_cb(self, msg):
if self.last_hand_post_cmd == None or self.list_check(msg.position) == True:
self.last_hand_post_cmd = msg.position
if self.last_hand_vel_cmd == None or self.list_check(msg.velocity) == True:
self.last_hand_vel_cmd = msg.velocity
if self.last_hand_eff_cmd == None or self.list_check(msg.effort) == True:
self.last_hand_eff_cmd = msg.effort
def list_check(self,pose):
if isinstance(pose, list) == False:
return False
if len(self.last_hand_post_cmd) != len(pose):
return False
return any(abs(self.last_hand_post_cmd - pose) >= 3 for self.last_hand_post_cmd, pose in zip(self.last_hand_post_cmd, pose))
def joint_state_msg(self, pose,vel=[]):
joint_state = JointState()
joint_state.header = Header()
joint_state.header.stamp = self.get_clock().now().to_msg()
joint_state.name = self.api.get_finger_order()
joint_state.position = [float(x) for x in pose]
if len(vel) > 1:
joint_state.velocity = [float(x) for x in vel]
else:
joint_state.velocity = [0.0] * len(pose)
joint_state.effort = [0.0] * len(pose)
return joint_state
def run(self):
# 执行手控制指令
if self.last_hand_post_cmd != None:
self.api.finger_move(pose=self.last_hand_post_cmd)
self.last_hand_post_cmd = None
# 优先获取手指状态并且发布
self.last_hand_state = self.api.get_state()
self.last_hand_vel = [0.0] * len(self.last_hand_state)
# 发布手状态
msg_state = self.joint_state_msg(self.last_hand_state)
self.hand_state_pub.publish(msg_state)
# 获取压感数据
if self.is_touch == True:
self.matrix_dic["thumb_matrix"] = self.api.get_thumb_matrix_touch(sleep_time=0.003).tolist()
self.matrix_dic["index_matrix"] = self.api.get_index_matrix_touch(sleep_time=0.004).tolist()
self.matrix_dic["middle_matrix"] = self.api.get_middle_matrix_touch(sleep_time=0.003).tolist()
self.matrix_dic["ring_matrix"] = self.api.get_ring_matrix_touch(sleep_time=0.004).tolist()
self.matrix_dic["little_matrix"] = self.api.get_little_matrix_touch(sleep_time=0.004).tolist()
# 发布矩阵压感数据JSON格式
self.pub_matrix_dic()
# 发布矩阵压感合值浮点数组
self.pub_matrix_mass(dic=self.matrix_dic)
# 发布矩阵压感点云格式
self.pub_matrix_point_cloud()
def pub_matrix_dic(self):
"""发布矩阵数据JSON格式"""
msg = String()
# 获取当前的 ROS 时间
current_time = self.stamp_clock.now()
# 提取 secs 和 nsecs
t_secs = current_time.to_msg().sec
t_nsecs = current_time.to_msg().nanosec
self.matrix_dic["stamp"]["secs"] = t_secs
self.matrix_dic["stamp"]["nsecs"] = t_nsecs
msg.data = json.dumps(self.matrix_dic)
self.matrix_touch_pub.publish(msg)
def pub_matrix_mass(self, dic):
"""发布矩阵数据合值,顺序为 thumb, index, middle, ring, little,单位 g。"""
msg = Float32MultiArray()
msg.data = [
float(sum(sum(row) for row in dic["thumb_matrix"])),
float(sum(sum(row) for row in dic["index_matrix"])),
float(sum(sum(row) for row in dic["middle_matrix"])),
float(sum(sum(row) for row in dic["ring_matrix"])),
float(sum(sum(row) for row in dic["little_matrix"])),
]
self.matrix_touch_mass_pub.publish(msg)
def pub_matrix_point_cloud(self):
tmp_dic = self.matrix_dic.copy()
del tmp_dic['stamp'] # 去掉时间戳字段
all_matrices = list(tmp_dic.values()) # 5 帧,每帧 6×12=72 个数 or 5 帧,每帧 4×10=40 个数 列x行
# 摊平到一维
flat_list = [v for frame in all_matrices for v in frame]
flat = np.concatenate([np.asarray(np.clip(c, 0, 255), dtype=np.uint8) for c in flat_list])
fields = [PointField(name='val', offset=0, datatype=PointField.UINT8, count=1)]
pc = PointCloud2()
pc.header.stamp = self.get_clock().now().to_msg()
pc.header.frame_id = '' # 可改成你需要的坐标系
pc.height = 1
pc.width = flat.size # 360
pc.fields = fields
pc.is_bigendian = False
pc.point_step = 1 # 1 个 float32
pc.row_step = pc.point_step * pc.width
pc.data = flat.tobytes() # 1440 字节
self.matrix_touch_pub_pc.publish(pc)
def close_can(self):
self.api.open_can.close_can(can=self.can)
sys.exit(0)
def main(args=None):
'''
本节点用于收集手指状态和压感数据。
'/l20_{self.hand_type}_hand_control_cmd' 话题类型为 sensor_msgs/msg/JointState 控制话题,限制 30Hz
/l20_{self.hand_type}_hand_state 话题类型为 sensor_msgs/msg/JointState 30Hz
'/l20_{self.hand_type}_hand_matrix_touch' 话题类型为 std_msgs/msg/String 30Hz
'/l20_{self.hand_type}_hand_matrix_touch_pc', 10)
self.matrix_touch_mass_pub = self.create_publisher(Float32MultiArray, f'/l20_{self.hand_type}_hand_matrix_touch_mass', 10)
启动命令:
ros2 run linker_hand_ros2_sdk linker_hand_advanced_l10 --hand_type left --can can0 --is_touch true
'''
try:
rclpy.init(args=args)
parser = argparse.ArgumentParser()
parser.add_argument('--hand_type', required=True)
parser.add_argument('--can', required=True)
parser.add_argument('--is_touch', choices=['true','false'], required=True)
args = parser.parse_args()
node = LinkerHandAdvancedL10(name="linker_hand_advanced_l10",hand_type=args.hand_type,can=args.can,is_touch=args.is_touch)
embedded_version = node.embedded_version
rclpy.spin(node) # 主循环,监听 ROS 回调
except KeyboardInterrupt:
print("收到 Ctrl+C,准备退出...")
finally:
# node.close_can() # 关闭 CAN 或其他硬件资源
# node.destroy_node() # 销毁 ROS 节点
# rclpy.shutdown() # 关闭 ROS
print("程序已退出。")
@@ -0,0 +1,244 @@
#!/usr/bin/env python3
# -*- coding: utf-8 -*-
'''
编译: colcon build --symlink-install
启动命令:ros2 run linker_hand_ros2_sdk linker_hand_sdk
'''
from re import A
import rclpy,sys # ROS2 Python接口库
import time
import numpy as np
import argparse
from rclpy.node import Node # ROS2 节点类
from rclpy.clock import Clock
from std_msgs.msg import String, Header, Float32MultiArray
from sensor_msgs.msg import JointState, PointCloud2, PointField
import time, json, threading
from linker_hand_ros2_sdk.LinkerHand.linker_hand_api import LinkerHandApi
from linker_hand_ros2_sdk.LinkerHand.utils.color_msg import ColorMsg
from linker_hand_ros2_sdk.LinkerHand.utils.open_can import OpenCan
class LinkerHandAdvancedL6(Node):
def __init__(self, name, hand_type, can, is_touch):
super().__init__(name)
self.hand_type = hand_type
self.hand_joint = "L6"
if is_touch == "true":
self.is_touch = True
else:
self.is_touch = False
self.can = can
self.modbus = "None"
time.sleep(0.1)
self._check_linker_hand_type()
self.last_hand_post_cmd = None # 最新手指位置命令
self.last_hand_vel_cmd = None # 最新手指速度命令
self.last_hand_eff_cmd = None # 最新手指力矩命令
self.count = 0 # 循环计数器
self.matrix_dic = {
"stamp":{
"sec": 0,
"nanosec": 0,
},
"thumb_matrix":[[-1] * 6 for _ in range(12)],
"index_matrix":[[-1] * 6 for _ in range(12)],
"middle_matrix":[[-1] * 6 for _ in range(12)],
"ring_matrix":[[-1] * 6 for _ in range(12)],
"little_matrix":[[-1] * 6 for _ in range(12)]
}
# 压感矩阵合值,单位g 克
self.matrix_mass_dic = {
"stamp":{
"secs": 0,
"nsecs": 0,
},
"thumb_mass":[-1],
"index_mass":[-1],
"middle_mass":[-1],
"ring_mass":[-1],
"little_mass":[-1]
}
self.hz = 1.0/60.0
# ros时间获取
self.stamp_clock = Clock()
self._init_hand()
time.sleep(2)
self.timer = self.create_timer(self.hz, self.run) # 60 Hz
def _check_linker_hand_type(self):
if self.modbus != "None":
ColorMsg(msg=f"Modbus暂不支持", color="red")
sys.exit(0)
if self.hand_joint.upper() != "L6":
ColorMsg(msg=f"L6以外其他Linker Hand暂不支持", color="red")
sys.exit(0)
def _init_hand(self):
self.api = LinkerHandApi(hand_type=self.hand_type, hand_joint=self.hand_joint,modbus=self.modbus,can=self.can)
time.sleep(0.1)
self.touch_type = self.api.get_touch_type()
self.hand_cmd_sub = self.create_subscription(JointState, f'/l20_{self.hand_type}_hand_control_cmd', self.hand_control_cb,10)
self.hand_state_pub = self.create_publisher(JointState, f'/l20_{self.hand_type}_hand_state',10)
if self.is_touch == True:
if self.touch_type > 1:
ColorMsg(msg=f"{self.hand_type} {self.hand_joint} Equipped with matrix pressure sensing", color='green')
self.matrix_touch_pub = self.create_publisher(String, f'/l20_{self.hand_type}_hand_matrix_touch', 10)
self.matrix_touch_pub_pc = self.create_publisher(PointCloud2, f'/l20_{self.hand_type}_hand_matrix_touch_pc', 10)
self.matrix_touch_mass_pub = self.create_publisher(Float32MultiArray, f'/l20_{self.hand_type}_hand_matrix_touch_mass', 10)
elif self.touch_type != -1:
ColorMsg(msg=f"{self.hand_type} {self.hand_joint} Equipped with pressure sensor", color="green")
self.touch_pub = self.create_publisher(Float32MultiArray, f'/l20_{self.hand_type}_hand_force', 10)
else:
ColorMsg(msg=f"{self.hand_type} {self.hand_joint} Not equipped with any pressure sensors", color="red")
self.is_touch = False
self.embedded_version = self.api.get_embedded_version()
if self.hand_joint.upper() == "O6" or self.hand_joint.upper() == "L6":
pose = [200, 255, 255, 255, 255, 180]
torque = [255, 255, 255, 255, 255, 255]
# O6 最大速度阈值
speed = [255, 255, 255, 255, 255, 255]
self.api.set_speed(speed=speed)
time.sleep(0.1)
self.api.set_torque(torque=torque)
time.sleep(0.1)
self.api.finger_move(pose=pose)
time.sleep(0.1)
def hand_control_cb(self, msg):
if self.last_hand_post_cmd == None or self.list_check(msg.position) == True:
self.last_hand_post_cmd = msg.position
if self.last_hand_vel_cmd == None or self.list_check(msg.velocity) == True:
self.last_hand_vel_cmd = msg.velocity
if self.last_hand_eff_cmd == None or self.list_check(msg.effort) == True:
self.last_hand_eff_cmd = msg.effort
def list_check(self,pose):
if isinstance(pose, list) == False:
return False
if len(self.last_hand_post_cmd) != len(pose):
return False
return any(abs(self.last_hand_post_cmd - pose) >= 3 for self.last_hand_post_cmd, pose in zip(self.last_hand_post_cmd, pose))
def joint_state_msg(self, pose,vel=[]):
joint_state = JointState()
joint_state.header = Header()
joint_state.header.stamp = self.get_clock().now().to_msg()
joint_state.name = self.api.get_finger_order()
joint_state.position = [float(x) for x in pose]
if len(vel) > 1:
joint_state.velocity = [float(x) for x in vel]
else:
joint_state.velocity = [0.0] * len(pose)
joint_state.effort = [0.0] * len(pose)
return joint_state
def run(self):
# 执行手控制指令
if self.last_hand_post_cmd != None:
self.api.finger_move(pose=self.last_hand_post_cmd)
self.last_hand_post_cmd = None
#time.sleep(0.002)
# 优先获取手指状态并且发布
self.last_hand_state = self.api.get_state()
self.last_hand_vel = self.api.get_joint_speed()
# 发布手状态
msg_state = self.joint_state_msg(self.last_hand_state, self.last_hand_vel)
self.hand_state_pub.publish(msg_state)
time.sleep(0.002)
# 获取压感数据
if self.is_touch == True:
self.matrix_dic["thumb_matrix"] = self.api.get_thumb_matrix_touch(sleep_time=0.003).tolist()
self.matrix_dic["index_matrix"] = self.api.get_index_matrix_touch(sleep_time=0.003).tolist()
self.matrix_dic["middle_matrix"] = self.api.get_middle_matrix_touch(sleep_time=0.003).tolist()
self.matrix_dic["ring_matrix"] = self.api.get_ring_matrix_touch(sleep_time=0.003).tolist()
self.matrix_dic["little_matrix"] = self.api.get_little_matrix_touch(sleep_time=0.003).tolist()
# 发布矩阵压感数据JSON格式
self.pub_matrix_dic()
# 发布矩阵压感合值浮点数组
self.pub_matrix_mass(dic=self.matrix_dic)
# 发布矩阵压感点云格式
self.pub_matrix_point_cloud()
def pub_matrix_dic(self):
"""发布矩阵数据JSON格式"""
msg = String()
# 获取当前的 ROS 时间
current_time = self.stamp_clock.now()
# 提取 secs 和 nsecs
t_secs = current_time.to_msg().sec
t_nsecs = current_time.to_msg().nanosec
self.matrix_dic["stamp"]["secs"] = t_secs
self.matrix_dic["stamp"]["nsecs"] = t_nsecs
msg.data = json.dumps(self.matrix_dic)
self.matrix_touch_pub.publish(msg)
def pub_matrix_mass(self, dic):
"""发布矩阵数据合值,顺序为 thumb, index, middle, ring, little,单位 g。"""
msg = Float32MultiArray()
msg.data = [
float(sum(sum(row) for row in dic["thumb_matrix"])),
float(sum(sum(row) for row in dic["index_matrix"])),
float(sum(sum(row) for row in dic["middle_matrix"])),
float(sum(sum(row) for row in dic["ring_matrix"])),
float(sum(sum(row) for row in dic["little_matrix"])),
]
self.matrix_touch_mass_pub.publish(msg)
def pub_matrix_point_cloud(self):
tmp_dic = self.matrix_dic.copy()
del tmp_dic['stamp'] # 去掉时间戳字段
all_matrices = list(tmp_dic.values()) # 5 帧,每帧 6×12=72 个数 or 5 帧,每帧 4×10=40 个数 列x行
# 摊平到一维
flat_list = [v for frame in all_matrices for v in frame]
flat = np.concatenate([np.asarray(np.clip(c, 0, 255), dtype=np.uint8) for c in flat_list])
fields = [PointField(name='val', offset=0, datatype=PointField.UINT8, count=1)]
pc = PointCloud2()
pc.header.stamp = self.get_clock().now().to_msg()
pc.header.frame_id = '' # 可改成你需要的坐标系
pc.height = 1
pc.width = flat.size # 360
pc.fields = fields
pc.is_bigendian = False
pc.point_step = 1 # 1 个 float32
pc.row_step = pc.point_step * pc.width
pc.data = flat.tobytes() # 1440 字节
self.matrix_touch_pub_pc.publish(pc)
def close_can(self):
self.api.open_can.close_can(can=self.can)
sys.exit(0)
def main(args=None):
'''
本节点用于收集手指状态和压感数据。
'/l20_{self.hand_type}_hand_control_cmd' 话题类型为 sensor_msgs/msg/JointState 控制话题,限制 30Hz
/l20_{self.hand_type}_hand_state 话题类型为 sensor_msgs/msg/JointState 40Hz
'/l20_{self.hand_type}_hand_matrix_touch' 话题类型为 std_msgs/msg/String 40Hz
启动命令:
ros2 run linker_hand_ros2_sdk linker_hand_advanced_l6 --hand_type left --can can0 --is_touch true
'''
try:
rclpy.init(args=args)
parser = argparse.ArgumentParser()
parser.add_argument('--hand_type', required=True)
parser.add_argument('--can', required=True)
parser.add_argument('--is_touch', choices=['true','false'], required=True)
args = parser.parse_args()
node = LinkerHandAdvancedL6(name="linker_hand_advanced_l6",hand_type=args.hand_type,can=args.can,is_touch=args.is_touch)
embedded_version = node.embedded_version
if embedded_version[2] < 8 and len(embedded_version) != 3:
ColorMsg(msg=f"固件版本过低,请升级固件到V{embedded_version[0]}.{embedded_version[1]}.8及以上版本", color="red")
sys.exit(0)
rclpy.spin(node) # 主循环,监听 ROS 回调
except KeyboardInterrupt:
print("收到 Ctrl+C,准备退出...")
finally:
# node.close_can() # 关闭 CAN 或其他硬件资源
# node.destroy_node() # 销毁 ROS 节点
# rclpy.shutdown() # 关闭 ROS
print("程序已退出。")
@@ -0,0 +1,274 @@
#!/usr/bin/env python3
# -*- coding: utf-8 -*-
'''
编译: colcon build --symlink-install
启动命令:ros2 run linker_hand_ros2_sdk linker_hand_sdk
'''
from re import A
import rclpy,sys # ROS2 Python接口库
import time
import argparse
import numpy as np
from rclpy.node import Node # ROS2 节点类
from rclpy.clock import Clock
from std_msgs.msg import String, Header, Float32MultiArray
from sensor_msgs.msg import JointState, PointCloud2, PointField
import time, json, threading
from linker_hand_ros2_sdk.LinkerHand.linker_hand_api import LinkerHandApi
from linker_hand_ros2_sdk.LinkerHand.utils.color_msg import ColorMsg
from linker_hand_ros2_sdk.LinkerHand.utils.open_can import OpenCan
class LinkerHandAdvancedL7(Node):
def __init__(self, name, hand_type, can, is_touch):
super().__init__(name)
self.hand_type = hand_type
self.hand_joint = "L7"
if is_touch == "true":
self.is_touch = True
else:
self.is_touch = False
self.can = can
self.modbus = "None"
time.sleep(0.1)
self._check_linker_hand_type()
self.last_hand_post_cmd = None # 最新手指位置命令
self.last_hand_vel_cmd = None # 最新手指速度命令
self.last_hand_eff_cmd = None # 最新手指力矩命令
self.count = 0 # 循环计数器
self.matrix_dic = {
"stamp":{
"sec": 0,
"nanosec": 0,
},
"thumb_matrix":[[-1] * 6 for _ in range(12)],
"index_matrix":[[-1] * 6 for _ in range(12)],
"middle_matrix":[[-1] * 6 for _ in range(12)],
"ring_matrix":[[-1] * 6 for _ in range(12)],
"little_matrix":[[-1] * 6 for _ in range(12)]
}
# 压感矩阵合值,单位g 克
self.matrix_mass_dic = {
"stamp":{
"secs": 0,
"nsecs": 0,
},
"thumb_mass":[-1],
"index_mass":[-1],
"middle_mass":[-1],
"ring_mass":[-1],
"little_mass":[-1]
}
self.hz = 1.0/60.0
# ros时间获取
self.stamp_clock = Clock()
self._init_hand()
time.sleep(2)
self.timer = self.create_timer(self.hz, self.run) # 100 Hz
def _check_linker_hand_type(self):
if self.modbus != "None":
ColorMsg(msg=f"Modbus暂不支持", color="red")
sys.exit(0)
if self.hand_joint.upper() != "L7":
ColorMsg(msg=f"L6以外其他Linker Hand暂不支持", color="red")
sys.exit(0)
def _init_hand(self):
self.api = LinkerHandApi(hand_type=self.hand_type, hand_joint=self.hand_joint,modbus=self.modbus,can=self.can)
time.sleep(0.1)
self.touch_type = self.api.get_touch_type()
self.hand_cmd_sub = self.create_subscription(JointState, f'/l20_{self.hand_type}_hand_control_cmd', self.hand_control_cb,10)
self.hand_state_pub = self.create_publisher(JointState, f'/l20_{self.hand_type}_hand_state',10)
if self.is_touch == True:
if self.touch_type > 1:
ColorMsg(msg=f"{self.hand_type} {self.hand_joint} Equipped with matrix pressure sensing", color='green')
self.matrix_touch_pub = self.create_publisher(String, f'/l20_{self.hand_type}_hand_matrix_touch', 10)
self.matrix_touch_pub_pc = self.create_publisher(PointCloud2, f'/l20_{self.hand_type}_hand_matrix_touch_pc', 10)
self.matrix_touch_mass_pub = self.create_publisher(Float32MultiArray, f'/l20_{self.hand_type}_hand_matrix_touch_mass', 10)
elif self.touch_type != -1:
ColorMsg(msg=f"{self.hand_type} {self.hand_joint} Equipped with pressure sensor", color="green")
self.touch_pub = self.create_publisher(Float32MultiArray, f'/l20_{self.hand_type}_hand_force', 10)
else:
ColorMsg(msg=f"{self.hand_type} {self.hand_joint} Not equipped with any pressure sensors", color="red")
self.is_touch = False
self.embedded_version = self.api.get_embedded_version()
if self.hand_joint.upper() == "L7":
pose = [255, 200, 255, 255, 255, 255, 180]
torque = [255] * 7
speed = [255] * 7
self.api.set_speed(speed=speed)
time.sleep(0.1)
self.api.set_torque(torque=torque)
time.sleep(0.1)
self.api.finger_move(pose=pose)
time.sleep(0.1)
self.serial_number = self.api.get_serial_number()
def hand_control_cb(self, msg):
if self.last_hand_post_cmd == None or self.list_check(msg.position) == True:
self.last_hand_post_cmd = msg.position
if self.last_hand_vel_cmd == None or self.list_check(msg.velocity) == True:
self.last_hand_vel_cmd = msg.velocity
if self.last_hand_eff_cmd == None or self.list_check(msg.effort) == True:
self.last_hand_eff_cmd = msg.effort
def list_check(self,pose):
if isinstance(pose, list) == False:
return False
if len(self.last_hand_post_cmd) != len(pose):
return False
return any(abs(self.last_hand_post_cmd - pose) >= 3 for self.last_hand_post_cmd, pose in zip(self.last_hand_post_cmd, pose))
def joint_state_msg(self, pose,vel=[]):
joint_state = JointState()
joint_state.header = Header()
joint_state.header.stamp = self.get_clock().now().to_msg()
joint_state.name = self.api.get_finger_order()
joint_state.position = [float(x) for x in pose]
if len(vel) > 1:
joint_state.velocity = [float(x) for x in vel]
else:
joint_state.velocity = [0.0] * len(pose)
joint_state.effort = [0.0] * len(pose)
return joint_state
def run(self):
# 优先获取手指状态并且发布
self.last_hand_state = self.api.get_state()
self.last_hand_vel = self.api.get_joint_speed()
# 发布手状态
msg_state = self.joint_state_msg(self.last_hand_state, self.last_hand_vel)
self.hand_state_pub.publish(msg_state)
# 执行手控制指令
if self.last_hand_post_cmd != None:
self.api.finger_move(pose=self.last_hand_post_cmd)
time.sleep(0.003)
self.last_hand_post_cmd = None
if self.last_hand_vel_cmd != None:
vel = list(self.last_hand_vel_cmd)
if all(x == 0 for x in vel):
pass
else:
if (str(self.hand_joint).upper() == "O6" or str(self.hand_joint).upper() == "L6" or str(self.hand_joint).upper() == "L6P") and len(vel) == 6:
speed = vel
self.api.set_joint_speed(speed=speed)
elif self.hand_joint == "L7" and len(vel) == 7:
speed = vel
self.api.set_joint_speed(speed=speed)
elif self.hand_joint == "L10" and len(vel) == 10:
speed = [vel[0],vel[2],vel[3],vel[4],vel[5]]
self.api.set_joint_speed(speed=speed)
elif self.hand_joint == "L20" and len(vel) == 20:
speed = [vel[10],vel[1],vel[2],vel[3],vel[4]]
self.api.set_joint_speed(speed=speed)
elif self.hand_joint == "L21" and len(vel) == 25:
speed = vel
self.api.set_joint_speed(speed=speed)
elif self.hand_joint == "L25" and len(vel) == 25:
speed = vel
self.api.set_joint_speed(speed=speed)
self.last_hand_vel_cmd = None
time.sleep(0.005)
# 获取压感数据
if self.is_touch == True:
if self.count == 3:
self.matrix_dic["thumb_matrix"] = self.api.get_thumb_matrix_touch(sleep_time=0.006).tolist()
if self.count == 4:
self.matrix_dic["index_matrix"] = self.api.get_index_matrix_touch(sleep_time=0.006).tolist()
if self.count == 5:
self.matrix_dic["middle_matrix"] = self.api.get_middle_matrix_touch(sleep_time=0.006).tolist()
if self.count == 6:
self.matrix_dic["ring_matrix"] = self.api.get_ring_matrix_touch(sleep_time=0.006).tolist()
if self.count == 7:
self.matrix_dic["little_matrix"] = self.api.get_little_matrix_touch(sleep_time=0.006).tolist()
# 发布矩阵压感数据JSON格式
self.pub_matrix_dic()
# 发布矩阵压感合值浮点数组
self.pub_matrix_mass(dic=self.matrix_dic)
# 发布矩阵压感点云格式
self.pub_matrix_point_cloud()
self.count += 1
if self.count == 8:
self.count = 0
time.sleep(0.006)
def pub_matrix_dic(self):
"""发布矩阵数据JSON格式"""
msg = String()
# 获取当前的 ROS 时间
current_time = self.stamp_clock.now()
# 提取 secs 和 nsecs
t_secs = current_time.to_msg().sec
t_nsecs = current_time.to_msg().nanosec
self.matrix_dic["stamp"]["secs"] = t_secs
self.matrix_dic["stamp"]["nsecs"] = t_nsecs
msg.data = json.dumps(self.matrix_dic)
self.matrix_touch_pub.publish(msg)
def pub_matrix_mass(self, dic):
"""发布矩阵数据合值,顺序为 thumb, index, middle, ring, little,单位 g。"""
msg = Float32MultiArray()
msg.data = [
float(sum(sum(row) for row in dic["thumb_matrix"])),
float(sum(sum(row) for row in dic["index_matrix"])),
float(sum(sum(row) for row in dic["middle_matrix"])),
float(sum(sum(row) for row in dic["ring_matrix"])),
float(sum(sum(row) for row in dic["little_matrix"])),
]
self.matrix_touch_mass_pub.publish(msg)
def pub_matrix_point_cloud(self):
tmp_dic = self.matrix_dic.copy()
del tmp_dic['stamp'] # 去掉时间戳字段
all_matrices = list(tmp_dic.values()) # 5 帧,每帧 6×12=72 个数 or 5 帧,每帧 4×10=40 个数 列x行
# 摊平到一维
flat_list = [v for frame in all_matrices for v in frame]
flat = np.concatenate([np.asarray(np.clip(c, 0, 255), dtype=np.uint8) for c in flat_list])
fields = [PointField(name='val', offset=0, datatype=PointField.UINT8, count=1)]
pc = PointCloud2()
pc.header.stamp = self.get_clock().now().to_msg()
pc.header.frame_id = '' # 可改成你需要的坐标系
pc.height = 1
pc.width = flat.size # 360
pc.fields = fields
pc.is_bigendian = False
pc.point_step = 1 # 1 个 float32
pc.row_step = pc.point_step * pc.width
pc.data = flat.tobytes() # 1440 字节
self.matrix_touch_pub_pc.publish(pc)
def close_can(self):
self.api.open_can.close_can(can=self.can)
sys.exit(0)
def main(args=None):
'''
本节点用于收集手指状态和压感数据。
'/l20_{self.hand_type}_hand_control_cmd' 话题类型为 sensor_msgs/msg/JointState 控制话题,限制 30Hz
/l20_{self.hand_type}_hand_state 话题类型为 sensor_msgs/msg/JointState 40Hz
'/l20_{self.hand_type}_hand_matrix_touch' 话题类型为 std_msgs/msg/String 40Hz
启动命令:
ros2 run linker_hand_ros2_sdk linker_hand_advanced_l7 --hand_type left --can can0 --is_touch true
'''
try:
rclpy.init(args=args)
parser = argparse.ArgumentParser()
parser.add_argument('--hand_type', required=True)
parser.add_argument('--can', required=True)
parser.add_argument('--is_touch', choices=['true','false'], required=True)
args = parser.parse_args()
node = LinkerHandAdvancedL7(name="linker_hand_collect_l7",hand_type=args.hand_type,can=args.can,is_touch=args.is_touch)
embedded_version = node.embedded_version
rclpy.spin(node) # 主循环,监听 ROS 回调
except KeyboardInterrupt:
print("收到 Ctrl+C,准备退出...")
finally:
# node.close_can() # 关闭 CAN 或其他硬件资源
# node.destroy_node() # 销毁 ROS 节点
# rclpy.shutdown() # 关闭 ROS
print("程序已退出。")
@@ -0,0 +1,245 @@
#!/usr/bin/env python3
# -*- coding: utf-8 -*-
'''
编译: colcon build --symlink-install
启动命令:ros2 run linker_hand_ros2_sdk linker_hand_sdk
'''
from re import A
import rclpy,sys # ROS2 Python接口库
import time
import argparse
import numpy as np
from rclpy.node import Node # ROS2 节点类
from rclpy.clock import Clock
from std_msgs.msg import String, Header, Float32MultiArray
from sensor_msgs.msg import JointState, PointCloud2, PointField
import time, json, threading
from linker_hand_ros2_sdk.LinkerHand.linker_hand_api import LinkerHandApi
from linker_hand_ros2_sdk.LinkerHand.utils.color_msg import ColorMsg
from linker_hand_ros2_sdk.LinkerHand.utils.open_can import OpenCan
class LinkerHandAdvancedO6(Node):
def __init__(self, name, hand_type, can, is_touch):
super().__init__(name)
self.hand_type = hand_type
self.hand_joint = "O6"
if is_touch == "true":
self.is_touch = True
else:
self.is_touch = False
self.can = can
self.modbus = "None"
time.sleep(0.1)
self._check_linker_hand_type()
self.last_hand_post_cmd = None # 最新手指位置命令
self.last_hand_vel_cmd = None # 最新手指速度命令
self.last_hand_eff_cmd = None # 最新手指力矩命令
self.matrix_dic = {
"stamp":{
"sec": 0,
"nanosec": 0,
},
"thumb_matrix":[[-1] * 6 for _ in range(12)],
"index_matrix":[[-1] * 6 for _ in range(12)],
"middle_matrix":[[-1] * 6 for _ in range(12)],
"ring_matrix":[[-1] * 6 for _ in range(12)],
"little_matrix":[[-1] * 6 for _ in range(12)]
}
# 压感矩阵合值,单位g 克
self.matrix_mass_dic = {
"stamp":{
"secs": 0,
"nsecs": 0,
},
"thumb_mass":[-1],
"index_mass":[-1],
"middle_mass":[-1],
"ring_mass":[-1],
"little_mass":[-1]
}
self.hz = 1.0/60.0
# ros时间获取
self.stamp_clock = Clock()
self._init_hand()
time.sleep(2)
self.timer = self.create_timer(self.hz, self.run) # 100 Hz
def _check_linker_hand_type(self):
if self.modbus != "None":
ColorMsg(msg=f"Modbus暂不支持", color="red")
sys.exit(0)
if self.hand_joint.upper() != "O6":
ColorMsg(msg=f"O6以外其他Linker Hand暂不支持", color="red")
sys.exit(0)
def _init_hand(self):
self.api = LinkerHandApi(hand_type=self.hand_type, hand_joint=self.hand_joint,modbus=self.modbus,can=self.can)
time.sleep(0.1)
self.touch_type = self.api.get_touch_type()
self.hand_cmd_sub = self.create_subscription(JointState, f'/l20_{self.hand_type}_hand_control_cmd', self.hand_control_cb,10)
self.hand_state_pub = self.create_publisher(JointState, f'/l20_{self.hand_type}_hand_state',10)
if self.is_touch == True:
if self.touch_type > 1:
ColorMsg(msg=f"{self.hand_type} {self.hand_joint} Equipped with matrix pressure sensing", color='green')
self.matrix_touch_pub = self.create_publisher(String, f'/l20_{self.hand_type}_hand_matrix_touch', 10)
self.matrix_touch_pub_pc = self.create_publisher(PointCloud2, f'/l20_{self.hand_type}_hand_matrix_touch_pc', 10)
self.matrix_touch_mass_pub = self.create_publisher(Float32MultiArray, f'/l20_{self.hand_type}_hand_matrix_touch_mass', 10)
elif self.touch_type != -1:
ColorMsg(msg=f"{self.hand_type} {self.hand_joint} Equipped with pressure sensor", color="green")
self.touch_pub = self.create_publisher(Float32MultiArray, f'/l20_{self.hand_type}_hand_force', 10)
else:
ColorMsg(msg=f"{self.hand_type} {self.hand_joint} Not equipped with any pressure sensors", color="red")
self.is_touch = False
self.embedded_version = self.api.get_embedded_version()
if self.hand_joint.upper() == "O6" or self.hand_joint.upper() == "L6":
pose = [200, 255, 255, 255, 255, 180]
torque = [255, 255, 255, 255, 255, 255]
# O6 最大速度阈值
speed = [255, 255, 255, 255, 255, 255]
self.api.set_speed(speed=speed)
time.sleep(0.1)
self.api.set_torque(torque=torque)
time.sleep(0.1)
self.api.finger_move(pose=pose)
time.sleep(0.1)
def hand_control_cb(self, msg):
if self.last_hand_post_cmd == None or self.list_check(msg.position) == True:
self.last_hand_post_cmd = msg.position
if self.last_hand_vel_cmd == None or self.list_check(msg.velocity) == True:
self.last_hand_vel_cmd = msg.velocity
if self.last_hand_eff_cmd == None or self.list_check(msg.effort) == True:
self.last_hand_eff_cmd = msg.effort
def list_check(self,pose):
if isinstance(pose, list) == False:
return False
if len(self.last_hand_post_cmd) != len(pose):
return False
return any(abs(self.last_hand_post_cmd - pose) >= 3 for self.last_hand_post_cmd, pose in zip(self.last_hand_post_cmd, pose))
def joint_state_msg(self, pose,vel=[]):
joint_state = JointState()
joint_state.header = Header()
joint_state.header.stamp = self.get_clock().now().to_msg()
joint_state.name = self.api.get_finger_order()
joint_state.position = [float(x) for x in pose]
if len(vel) > 1:
joint_state.velocity = [float(x) for x in vel]
else:
joint_state.velocity = [0.0] * len(pose)
joint_state.effort = [0.0] * len(pose)
return joint_state
def run(self):
# 执行手控制指令
if self.last_hand_post_cmd != None:
self.api.finger_move(pose=self.last_hand_post_cmd)
self.last_hand_post_cmd = None
if self.last_hand_vel_cmd != None:
vel = list(self.last_hand_vel_cmd)
if all(x == 0 for x in vel):
pass
else:
speed = vel
self.api.set_joint_speed(speed=speed)
self.last_hand_vel_cmd = None
# 优先获取手指状态并且发布
self.last_hand_state = self.api.get_state()
self.last_hand_vel = self.api.get_joint_speed()
# 发布手状态
msg_state = self.joint_state_msg(self.last_hand_state, self.last_hand_vel)
self.hand_state_pub.publish(msg_state)
if self.is_touch == True:
# 获取压感数据
self.matrix_dic["thumb_matrix"] = self.api.get_thumb_matrix_touch(sleep_time=0.002).tolist()
self.matrix_dic["index_matrix"] = self.api.get_index_matrix_touch(sleep_time=0.002).tolist()
self.matrix_dic["middle_matrix"] = self.api.get_middle_matrix_touch(sleep_time=0.002).tolist()
self.matrix_dic["ring_matrix"] = self.api.get_ring_matrix_touch(sleep_time=0.002).tolist()
self.matrix_dic["little_matrix"] = self.api.get_little_matrix_touch(sleep_time=0.002).tolist()
# 发布矩阵压感数据JSON格式
self.pub_matrix_dic()
# 发布矩阵压感合值浮点数组
self.pub_matrix_mass(dic=self.matrix_dic)
# 发布矩阵压感点云格式
self.pub_matrix_point_cloud()
def pub_matrix_dic(self):
"""发布矩阵数据JSON格式"""
msg = String()
# 获取当前的 ROS 时间
current_time = self.stamp_clock.now()
# 提取 secs 和 nsecs
t_secs = current_time.to_msg().sec
t_nsecs = current_time.to_msg().nanosec
self.matrix_dic["stamp"]["secs"] = t_secs
self.matrix_dic["stamp"]["nsecs"] = t_nsecs
msg.data = json.dumps(self.matrix_dic)
self.matrix_touch_pub.publish(msg)
def pub_matrix_mass(self, dic):
"""发布矩阵数据合值,顺序为 thumb, index, middle, ring, little,单位 g。"""
msg = Float32MultiArray()
msg.data = [
float(sum(sum(row) for row in dic["thumb_matrix"])),
float(sum(sum(row) for row in dic["index_matrix"])),
float(sum(sum(row) for row in dic["middle_matrix"])),
float(sum(sum(row) for row in dic["ring_matrix"])),
float(sum(sum(row) for row in dic["little_matrix"])),
]
self.matrix_touch_mass_pub.publish(msg)
def pub_matrix_point_cloud(self):
tmp_dic = self.matrix_dic.copy()
del tmp_dic['stamp'] # 去掉时间戳字段
all_matrices = list(tmp_dic.values()) # 5 帧,每帧 6×12=72 个数 or 5 帧,每帧 4×10=40 个数 列x行
# 摊平到一维
flat_list = [v for frame in all_matrices for v in frame]
flat = np.concatenate([np.asarray(np.clip(c, 0, 255), dtype=np.uint8) for c in flat_list])
fields = [PointField(name='val', offset=0, datatype=PointField.UINT8, count=1)]
pc = PointCloud2()
pc.header.stamp = self.get_clock().now().to_msg()
pc.header.frame_id = '' # 可改成你需要的坐标系
pc.height = 1
pc.width = flat.size # 360
pc.fields = fields
pc.is_bigendian = False
pc.point_step = 1 # 1 个 float32
pc.row_step = pc.point_step * pc.width
pc.data = flat.tobytes() # 1440 字节
self.matrix_touch_pub_pc.publish(pc)
def close_can(self):
self.api.open_can.close_can(can=self.can)
sys.exit(0)
def main(args=None):
'''
本节点用于收集手指状态和压感数据。
'/l20_{self.hand_type}_hand_control_cmd' 话题类型为 sensor_msgs/msg/JointState 控制话题,限制 30Hz
/l20_{self.hand_type}_hand_state 话题类型为 sensor_msgs/msg/JointState 50Hz
'/l20_{self.hand_type}_hand_matrix_touch' 话题类型为 std_msgs/msg/String 50Hz
启动命令:
ros2 run linker_hand_ros2_sdk linker_hand_advanced_o6 --hand_type right --can can0 --is_touch true
'''
try:
rclpy.init(args=args)
parser = argparse.ArgumentParser()
parser.add_argument('--hand_type', required=True)
parser.add_argument('--can', required=True)
parser.add_argument('--is_touch', choices=['true','false'], required=True)
args = parser.parse_args()
node = LinkerHandAdvancedO6(name="linker_hand_advanced_o6",hand_type=args.hand_type,can=args.can,is_touch=args.is_touch)
embedded_version = node.embedded_version
rclpy.spin(node) # 主循环,监听 ROS 回调
except KeyboardInterrupt:
print("收到 Ctrl+C,准备退出...")
finally:
# node.close_can() # 关闭 CAN 或其他硬件资源
# node.destroy_node() # 销毁 ROS 节点
# rclpy.shutdown() # 关闭 ROS
print("程序已退出。")
@@ -0,0 +1,260 @@
#!/usr/bin/env python3
# -*- coding: utf-8 -*-
from re import A
import rclpy,sys # ROS2 Python接口库
import time
import argparse
import numpy as np
from rclpy.node import Node # ROS2 节点类
from rclpy.clock import Clock
from std_msgs.msg import String, Header, Float32MultiArray
from sensor_msgs.msg import JointState, PointCloud2, PointField
import time, json, threading
from linker_hand_ros2_sdk.LinkerHand.linker_hand_api import LinkerHandApi
from linker_hand_ros2_sdk.LinkerHand.utils.color_msg import ColorMsg
from linker_hand_ros2_sdk.LinkerHand.utils.open_can import OpenCan
# Linker Hand 型号
HAND_JOINT = "G20"
# 默认手指关节位置
DEFAULT_POSITION = [255, 255, 255, 255, 255, 255, 193, 148, 105, 42, 245, 255, 255, 255, 255, 255, 255, 255, 255, 255]
# 默认手指关节速度
DEFAULT_SPEED=[255, 255, 255, 255, 255]
# 默认手指关节力矩
DEFAULT_TORQUE = [255, 255, 255, 255, 255]
# 压感传感器延迟时间
TOUCH_SLEEP_TIME = 0.003
class LinkerHandAdvancedG20(Node):
def __init__(self, name, hand_type, can, is_touch):
super().__init__(name)
self.hand_type = hand_type
self.hand_joint = HAND_JOINT
if is_touch == "true":
self.is_touch = True
else:
self.is_touch = False
self.can = can
self.modbus = "None"
time.sleep(0.1)
self._check_linker_hand_type()
self.last_hand_post_cmd = None # 最新手指位置命令
self.last_hand_vel_cmd = None # 最新手指速度命令
self.last_hand_eff_cmd = None # 最新手指力矩命令
self.matrix_dic = {
"stamp":{
"sec": 0,
"nanosec": 0,
},
"thumb_matrix":[[-1] * 6 for _ in range(12)],
"index_matrix":[[-1] * 6 for _ in range(12)],
"middle_matrix":[[-1] * 6 for _ in range(12)],
"ring_matrix":[[-1] * 6 for _ in range(12)],
"little_matrix":[[-1] * 6 for _ in range(12)]
}
# 压感矩阵合值,单位g 克
self.matrix_mass_dic = {
"stamp":{
"secs": 0,
"nsecs": 0,
},
"thumb_mass":[-1],
"index_mass":[-1],
"middle_mass":[-1],
"ring_mass":[-1],
"little_mass":[-1]
}
self.hz = 1.0/60.0
# ros时间获取
self.stamp_clock = Clock()
self._init_hand()
time.sleep(2)
self.count = 0
self.timer = self.create_timer(self.hz, self.run)
def _check_linker_hand_type(self):
if self.modbus != "None":
ColorMsg(msg=f"Modbus暂不支持", color="red")
sys.exit(0)
if self.hand_joint.upper() != "G20":
ColorMsg(msg=f"Linker Hand hand_joint参数错误", color="red")
sys.exit(0)
def _init_hand(self):
self.api = LinkerHandApi(hand_type=self.hand_type, hand_joint=self.hand_joint,modbus=self.modbus,can=self.can)
time.sleep(0.1)
self.touch_type = self.api.get_touch_type()
self.hand_cmd_sub = self.create_subscription(JointState, f'/l20_{self.hand_type}_hand_control_cmd', self.hand_control_cb,10)
self.hand_state_pub = self.create_publisher(JointState, f'/l20_{self.hand_type}_hand_state',10)
if self.is_touch == True:
if self.touch_type > 1:
ColorMsg(msg=f"{self.hand_type} {self.hand_joint} Equipped with matrix pressure sensing", color='green')
self.matrix_touch_pub = self.create_publisher(String, f'/l20_{self.hand_type}_hand_matrix_touch', 10)
#self.matrix_touch_pub_pc = self.create_publisher(PointCloud2, f'/l20_{self.hand_type}_hand_matrix_touch_pc', 10)
self.matrix_touch_mass_pub = self.create_publisher(Float32MultiArray, f'/l20_{self.hand_type}_hand_matrix_touch_mass', 10)
elif self.touch_type != -1:
ColorMsg(msg=f"{self.hand_type} {self.hand_joint} Equipped with pressure sensor", color="green")
self.touch_pub = self.create_publisher(Float32MultiArray, f'/l20_{self.hand_type}_hand_force', 10)
else:
ColorMsg(msg=f"{self.hand_type} {self.hand_joint} Not equipped with any pressure sensors", color="red")
self.is_touch = False
self.embedded_version = self.api.get_embedded_version()
self.api.set_speed(speed=DEFAULT_SPEED)
time.sleep(0.1)
self.api.set_torque(torque=DEFAULT_TORQUE)
time.sleep(0.1)
self.api.finger_move(pose=DEFAULT_POSITION)
time.sleep(0.1)
self.palm_touch = self.api.is_palm_touch
if self.palm_touch == 5:
self.touch_sleep_time = 0.03
ColorMsg(msg=f"{self.hand_type} {self.hand_joint} 全掌压感版", color="green")
else:
self.touch_sleep_time = 0.003
def hand_control_cb(self, msg):
if self.last_hand_post_cmd == None or self.list_check(msg.position) == True:
self.last_hand_post_cmd = msg.position
if self.last_hand_vel_cmd == None or self.list_check(msg.velocity) == True:
self.last_hand_vel_cmd = msg.velocity
if self.last_hand_eff_cmd == None or self.list_check(msg.effort) == True:
self.last_hand_eff_cmd = msg.effort
def list_check(self,pose):
if isinstance(pose, list) == False:
return False
if len(self.last_hand_post_cmd) != len(pose):
return False
return any(abs(self.last_hand_post_cmd - pose) >= 3 for self.last_hand_post_cmd, pose in zip(self.last_hand_post_cmd, pose))
def joint_state_msg(self, pose,vel=[]):
joint_state = JointState()
joint_state.header = Header()
joint_state.header.stamp = self.get_clock().now().to_msg()
joint_state.name = self.api.get_finger_order()
joint_state.position = [float(x) for x in pose]
if len(vel) > 1:
joint_state.velocity = [float(x) for x in vel]
else:
joint_state.velocity = [0.0] * len(pose)
joint_state.effort = [0.0] * len(pose)
return joint_state
def run(self):
# 执行手控制指令
if self.last_hand_post_cmd != None:
self.api.finger_move(pose=self.last_hand_post_cmd)
self.last_hand_post_cmd = None
# 优先获取手指状态并且发布
self.last_hand_state = self.api.get_state()
self.last_hand_vel = [0.0] * len(self.last_hand_state)
# 发布手状态
msg_state = self.joint_state_msg(self.last_hand_state, self.last_hand_vel)
self.hand_state_pub.publish(msg_state)
if self.is_touch == True:
# 获取压感数据
if self.count == 2:
self.matrix_dic["thumb_matrix"] = self.api.get_thumb_matrix_touch(sleep_time=self.touch_sleep_time).tolist()
if self.count == 4:
self.matrix_dic["index_matrix"] = self.api.get_index_matrix_touch(sleep_time=self.touch_sleep_time).tolist()
if self.count == 6:
self.matrix_dic["middle_matrix"] = self.api.get_middle_matrix_touch(sleep_time=self.touch_sleep_time).tolist()
if self.count == 8:
self.matrix_dic["ring_matrix"] = self.api.get_ring_matrix_touch(sleep_time=self.touch_sleep_time).tolist()
if self.count == 10:
self.matrix_dic["little_matrix"] = self.api.get_little_matrix_touch(sleep_time=self.touch_sleep_time).tolist()
if self.count == 14 and self.palm_touch == 5:
self.matrix_dic["palm_matrix"] = self.api.get_palm_matrix_touch(sleep_time=self.touch_sleep_time).tolist()
# 发布矩阵压感数据JSON格式
self.pub_matrix_dic()
# 发布矩阵压感合值浮点数组
self.pub_matrix_mass(dic=self.matrix_dic)
# 发布矩阵压感点云格式
#self.pub_matrix_point_cloud()
self.count += 1
if self.count == 15:
self.count = 0
def pub_matrix_dic(self):
"""发布矩阵数据JSON格式"""
msg = String()
# 获取当前的 ROS 时间
current_time = self.stamp_clock.now()
# 提取 secs 和 nsecs
t_secs = current_time.to_msg().sec
t_nsecs = current_time.to_msg().nanosec
self.matrix_dic["stamp"]["secs"] = t_secs
self.matrix_dic["stamp"]["nsecs"] = t_nsecs
msg.data = json.dumps(self.matrix_dic)
self.matrix_touch_pub.publish(msg)
def pub_matrix_mass(self, dic):
"""发布矩阵数据合值,顺序为 thumb, index, middle, ring, little,单位 g。"""
msg = Float32MultiArray()
msg.data = [
float(sum(self.api.hand.thumb_matrix_palm_mass)),
float(sum(self.api.hand.index_matrix_palm_mass)),
float(sum(self.api.hand.middle_matrix_palm_mass)),
float(sum(self.api.hand.ring_matrix_palm_mass)),
float(sum(self.api.hand.little_matrix_palm_mass)),
]
self.matrix_touch_mass_pub.publish(msg)
# def pub_matrix_point_cloud(self):
# tmp_dic = self.matrix_dic.copy()
# del tmp_dic['stamp'] # 去掉时间戳字段
# all_matrices = list(tmp_dic.values()) # 5 帧,每帧 6×12=72 个数 or 5 帧,每帧 4×10=40 个数 列x行
# # 摊平到一维
# flat_list = [v for frame in all_matrices for v in frame]
# flat = np.concatenate([np.asarray(np.clip(c, 0, 255), dtype=np.uint8) for c in flat_list])
# fields = [PointField(name='val', offset=0, datatype=PointField.UINT8, count=1)]
# pc = PointCloud2()
# pc.header.stamp = self.get_clock().now().to_msg()
# pc.header.frame_id = '' # 可改成你需要的坐标系
# pc.height = 1
# pc.width = flat.size # 360
# pc.fields = fields
# pc.is_bigendian = False
# pc.point_step = 1 # 1 个 float32
# pc.row_step = pc.point_step * pc.width
# pc.data = flat.tobytes() # 1440 字节
# self.matrix_touch_pub_pc.publish(pc)
def close_can(self):
self.api.open_can.close_can(can=self.can)
sys.exit(0)
def main(args=None):
'''
本节点用于收集手指状态和压感数据。
'/l20_{self.hand_type}_hand_control_cmd' 话题类型为 sensor_msgs/msg/JointState 控制话题,限制 30Hz
/l20_{self.hand_type}_hand_state 话题类型为 sensor_msgs/msg/JointState 30Hz
'/l20_{self.hand_type}_hand_matrix_touch' 话题类型为 std_msgs/msg/String 30Hz
启动命令:
ros2 run linker_hand_ros2_sdk linker_hand_g20_palm_touch --hand_type left --can can0 --is_touch true
'''
try:
rclpy.init(args=args)
parser = argparse.ArgumentParser()
parser.add_argument('--hand_type', required=True)
parser.add_argument('--can', required=True)
parser.add_argument('--is_touch', choices=['true','false'], required=True)
args = parser.parse_args()
node = LinkerHandAdvancedG20(name="linker_hand_g20_palm_touch",hand_type=args.hand_type,can=args.can,is_touch=args.is_touch)
embedded_version = node.embedded_version
rclpy.spin(node) # 主循环,监听 ROS 回调
except KeyboardInterrupt:
print("收到 Ctrl+C,准备退出...")
finally:
node.close_can() # 关闭 CAN 或其他硬件资源
# node.destroy_node() # 销毁 ROS 节点
# rclpy.shutdown() # 关闭 ROS
print("程序已退出。")
@@ -0,0 +1,331 @@
#!/usr/bin/env python3
# -*- coding: utf-8 -*-
"""Record O6 joint positions and plot angle/derived-velocity curves.
The O6 ``0x05`` value exposed by the SDK is a configured speed, not a measured
joint velocity. This recorder therefore always derives velocity from the
position samples and their monotonic timestamps.
"""
import argparse
import csv
from datetime import datetime
import json
import math
from pathlib import Path
import sys
import time
import numpy as np
import rclpy
from rclpy.node import Node
from rclpy.utilities import remove_ros_args
from sensor_msgs.msg import JointState
O6_JOINT_NAMES = (
"thumb_cmc_pitch",
"thumb_cmc_yaw",
"index_mcp_pitch",
"middle_mcp_pitch",
"ring_mcp_pitch",
"pinky_mcp_pitch",
)
# Nominal SDK ranges. A hand-specific lookup JSON should be used for formal
# measurements because individual hands can differ from these values.
O6_NOMINAL_MAX_DEG = dict(
zip(O6_JOINT_NAMES, np.rad2deg([0.58, 1.36, 1.6, 1.6, 1.6, 1.6]))
)
class AngleMapper:
"""Convert O6 uint8 positions to degrees using lookup tables or nominal ranges."""
def __init__(self, mapping_json=None):
self.tables = {}
self.source = "SDK nominal range"
if mapping_json:
self._load(Path(mapping_json).expanduser())
def _load(self, path):
with path.open("r", encoding="utf-8") as stream:
data = json.load(stream)
joints = data.get("joints", data)
if not isinstance(joints, dict):
raise ValueError("mapping JSON must contain an object named 'joints'")
for joint_name, values in joints.items():
if not isinstance(values, dict):
continue
joint_u8 = values.get("joint_u8")
joint_real_deg = values.get("joint_real_deg")
if joint_u8 is None or joint_real_deg is None:
continue
if len(joint_u8) != len(joint_real_deg) or len(joint_u8) < 2:
raise ValueError(
f"{joint_name}: joint_u8 and joint_real_deg need equal lengths >= 2"
)
x = np.asarray(joint_u8, dtype=float)
y = np.asarray(joint_real_deg, dtype=float)
if not np.all(np.isfinite(x)) or not np.all(np.isfinite(y)):
raise ValueError(f"{joint_name}: mapping contains a non-finite value")
order = np.argsort(x)
x = x[order]
y = y[order]
if np.any(np.diff(x) <= 0):
raise ValueError(f"{joint_name}: joint_u8 values must be unique")
self.tables[joint_name] = (x, y)
if not self.tables:
raise ValueError(
"mapping JSON has no joint with joint_u8 and joint_real_deg arrays"
)
self.source = str(path)
def to_degrees(self, joint_name, position_u8):
if joint_name in self.tables:
x, y = self.tables[joint_name]
return float(np.interp(position_u8, x, y))
if joint_name not in O6_NOMINAL_MAX_DEG:
raise KeyError(f"no O6 nominal range or lookup table for {joint_name}")
position_u8 = float(np.clip(position_u8, 0.0, 255.0))
return (255.0 - position_u8) * O6_NOMINAL_MAX_DEG[joint_name] / 255.0
def derive_velocity(time_s, angle_deg, cutoff_hz=5.0):
"""Differentiate angle samples and apply a first-order low-pass filter."""
time_s = np.asarray(time_s, dtype=float)
angle_deg = np.asarray(angle_deg, dtype=float)
if len(time_s) != len(angle_deg):
raise ValueError("time and angle arrays must have the same length")
if len(time_s) < 2:
return np.zeros_like(angle_deg)
if np.any(np.diff(time_s) <= 0):
raise ValueError("timestamps must be strictly increasing")
velocity = np.gradient(angle_deg, time_s)
if cutoff_hz <= 0.0:
return velocity
filtered = np.empty_like(velocity)
filtered[0] = velocity[0]
rc = 1.0 / (2.0 * math.pi * cutoff_hz)
for index in range(1, len(velocity)):
dt = time_s[index] - time_s[index - 1]
alpha = dt / (rc + dt)
filtered[index] = filtered[index - 1] + alpha * (
velocity[index] - filtered[index - 1]
)
return filtered
class O6JointCurveRecorder(Node):
def __init__(
self,
hand_type,
duration,
output_dir,
joint_name,
mapping_json,
filter_hz,
):
super().__init__("o6_joint_curve")
self.hand_type = hand_type
self.duration = duration
self.output_dir = Path(output_dir).expanduser()
self.joint_name = joint_name
self.filter_hz = filter_hz
self.mapper = AngleMapper(mapping_json)
self.samples = []
self.start_time = None
self.saved_paths = None
self.finished = False
topic = f"/l20_{hand_type}_hand_state"
self.subscription = self.create_subscription(
JointState, topic, self._state_callback, 100
)
self.stop_timer = self.create_timer(0.05, self._check_duration)
self.get_logger().info(
f"Recording {topic}; duration={duration:.3f}s; angle map={self.mapper.source}"
)
def _state_callback(self, msg):
if self.finished or not msg.position:
return
names = tuple(msg.name) if len(msg.name) == len(msg.position) else O6_JOINT_NAMES
if len(msg.position) != len(names):
self.get_logger().warning(
f"Ignoring JointState with {len(msg.position)} positions and "
f"{len(msg.name)} names"
)
return
now = time.perf_counter()
if self.start_time is None:
self.start_time = now
relative_time = now - self.start_time
for name, position in zip(names, msg.position):
if self.joint_name != "all" and name != self.joint_name:
continue
try:
angle_deg = self.mapper.to_degrees(name, position)
except KeyError as error:
self.get_logger().warning(str(error))
continue
self.samples.append((relative_time, name, float(position), angle_deg))
def _check_duration(self):
if self.finished or self.start_time is None or self.duration <= 0.0:
return
if time.perf_counter() - self.start_time >= self.duration:
self.finish()
rclpy.shutdown()
def finish(self):
if self.finished:
return self.saved_paths
self.finished = True
if not self.samples:
self.get_logger().warning("No joint-state sample received; no files were written")
return None
self.saved_paths = export_curves(
samples=self.samples,
output_dir=self.output_dir,
hand_type=self.hand_type,
mapping_source=self.mapper.source,
cutoff_hz=self.filter_hz,
)
csv_path, plot_path = self.saved_paths
self.get_logger().info(f"Saved samples: {csv_path}")
self.get_logger().info(f"Saved curves: {plot_path}")
return self.saved_paths
def export_curves(samples, output_dir, hand_type, mapping_source, cutoff_hz):
"""Export long-form CSV and a two-panel PNG for all recorded joints."""
import matplotlib
matplotlib.use("Agg")
import matplotlib.pyplot as plt
output_dir = Path(output_dir).expanduser()
output_dir.mkdir(parents=True, exist_ok=True)
stem = f"o6_{hand_type}_{datetime.now().strftime('%Y%m%d_%H%M%S')}"
csv_path = output_dir / f"{stem}.csv"
plot_path = output_dir / f"{stem}.png"
joint_samples = {}
for sample in samples:
joint_samples.setdefault(sample[1], []).append(sample)
processed = {}
for joint_name, values in joint_samples.items():
time_s = np.asarray([value[0] for value in values], dtype=float)
position_u8 = np.asarray([value[2] for value in values], dtype=float)
angle_deg = np.asarray([value[3] for value in values], dtype=float)
velocity_deg_s = derive_velocity(time_s, angle_deg, cutoff_hz)
processed[joint_name] = (time_s, position_u8, angle_deg, velocity_deg_s)
with csv_path.open("w", encoding="utf-8", newline="") as stream:
writer = csv.writer(stream)
writer.writerow(
["t_s", "joint_name", "position_u8", "angle_deg", "velocity_deg_s"]
)
for joint_name, arrays in processed.items():
for row in zip(*arrays):
writer.writerow(
[
f"{row[0]:.9f}",
joint_name,
f"{row[1]:.6f}",
f"{row[2]:.6f}",
f"{row[3]:.6f}",
]
)
figure, axes = plt.subplots(2, 1, sharex=True, figsize=(12, 8))
for joint_name, (time_s, _position_u8, angle_deg, velocity_deg_s) in processed.items():
axes[0].plot(time_s, angle_deg, label=joint_name)
axes[1].plot(time_s, velocity_deg_s, label=joint_name)
axes[0].set_ylabel("Angle (deg)")
axes[0].set_title(f"O6 {hand_type} joint curves\nangle map: {mapping_source}")
axes[1].set_ylabel("Velocity (deg/s)")
axes[1].set_xlabel("Time (s)")
axes[1].set_title(f"Derived velocity, first-order low-pass {cutoff_hz:g} Hz")
for axis in axes:
axis.grid(True, alpha=0.3)
axis.legend(loc="best", fontsize="small")
figure.tight_layout()
figure.savefig(plot_path, dpi=160)
plt.close(figure)
return csv_path, plot_path
def _parse_args(argv):
parser = argparse.ArgumentParser(
description="Record O6 angle and angle-derived velocity curves"
)
parser.add_argument("--hand-type", choices=("left", "right"), default="right")
parser.add_argument(
"--duration",
type=float,
default=10.0,
help="recording seconds; <= 0 records until Ctrl+C (default: 10)",
)
parser.add_argument(
"--output-dir", default="logs/O6/curves", help="CSV/PNG output directory"
)
parser.add_argument(
"--joint",
default="all",
choices=("all",) + O6_JOINT_NAMES,
help="plot one joint or all six (default: all)",
)
parser.add_argument(
"--mapping-json",
help="optional hand_<SN>.json containing joints.<name>.joint_u8 and joint_real_deg",
)
parser.add_argument(
"--filter-hz",
type=float,
default=5.0,
help="velocity low-pass cutoff; <= 0 disables filtering (default: 5)",
)
parsed = parser.parse_args(remove_ros_args(args=argv)[1:])
if parsed.duration == 0.0:
parsed.duration = -1.0
return parsed
def main(args=None):
argv = sys.argv if args is None else [sys.argv[0], *args]
parsed = _parse_args(argv)
rclpy.init(args=args)
node = O6JointCurveRecorder(
hand_type=parsed.hand_type,
duration=parsed.duration,
output_dir=parsed.output_dir,
joint_name=parsed.joint,
mapping_json=parsed.mapping_json,
filter_hz=parsed.filter_hz,
)
try:
rclpy.spin(node)
except KeyboardInterrupt:
node.get_logger().info("Stopping on Ctrl+C")
finally:
node.finish()
node.destroy_node()
if rclpy.ok():
rclpy.shutdown()
if __name__ == "__main__":
main()
+24
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@@ -0,0 +1,24 @@
<?xml version="1.0"?>
<?xml-model href="http://download.ros.org/schema/package_format3.xsd" schematypens="http://www.w3.org/2001/XMLSchema"?>
<package format="3">
<name>linker_hand_ros2_sdk</name>
<version>0.0.0</version>
<description>TODO: Package description</description>
<maintainer email="linker-robot@todo.todo">linker-robot</maintainer>
<license>TODO: License declaration</license>
<test_depend>ament_copyright</test_depend>
<test_depend>ament_flake8</test_depend>
<test_depend>ament_pep257</test_depend>
<test_depend>python3-pytest</test_depend>
<exec_depend>rclpy</exec_depend>
<exec_depend>launch</exec_depend>
<exec_depend>sensor_msgs</exec_depend>
<exec_depend>python3-numpy</exec_depend>
<exec_depend>python3-matplotlib</exec_depend>
<export>
<build_type>ament_python</build_type>
</export>
</package>
+3
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@@ -0,0 +1,3 @@
[build-system]
requires = ["setuptools>=61.0"]
build-backend = "setuptools.build_meta"
+4
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@@ -0,0 +1,4 @@
[develop]
script_dir=$base/lib/linker_hand_ros2_sdk
[install]
install_scripts=$base/lib/linker_hand_ros2_sdk
+55
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@@ -0,0 +1,55 @@
#!/usr/bin/env python3
# -*- coding: utf-8 -*-
import os
from glob import glob
from setuptools import find_packages, setup
package_name = 'linker_hand_ros2_sdk'
this_dir = os.path.abspath(os.path.dirname(__file__))
custom_dir = os.path.join(this_dir, package_name, "LinkerHand")
data_files = [
('share/ament_index/resource_index/packages',
['resource/' + package_name]),
('share/' + package_name, ['package.xml']),
(os.path.join('share', package_name, 'launch'), glob('launch/*.launch.py')),
]
# for root, dirs, files in os.walk(custom_dir):
# if files:
# relative_path = os.path.relpath(root, os.path.join(this_dir, package_name))
# target_path = os.path.join('share', package_name, relative_path)
# # 修复这里:路径必须是相对路径
# files_full_path = [os.path.relpath(os.path.join(root, f), start=os.getcwd()) for f in files]
# data_files.append((target_path, files_full_path))
setup(
name=package_name,
version='0.0.0',
packages=find_packages(include=[package_name, f"{package_name}.*"]),
package_data={
package_name: ['LinkerHand/config/*.yaml'],
},
include_package_data=True,
data_files=data_files,
install_requires=['setuptools'],
zip_safe=False,
maintainer='linker-robot',
maintainer_email='linker-robot@todo.todo',
description='ROS2 SDK for Linker Hand',
license='TODO: License declaration',
entry_points={
'console_scripts': [
'linker_hand_sdk = linker_hand_ros2_sdk.linker_hand:main',
'linker_hand_advanced_o6 = linker_hand_ros2_sdk.linker_hand_advanced_o6:main',
'o6_joint_curve = linker_hand_ros2_sdk.o6_joint_curve:main',
'linker_hand_advanced_l6 = linker_hand_ros2_sdk.linker_hand_advanced_l6:main',
'linker_hand_advanced_l7 = linker_hand_ros2_sdk.linker_hand_advanced_l7:main',
'linker_hand_advanced_l10 = linker_hand_ros2_sdk.linker_hand_advanced_l10:main',
'linker_hand_advanced_g20 = linker_hand_ros2_sdk.linker_hand_advanced_g20:main',
'linker_hand_g20_palm_touch = linker_hand_ros2_sdk.linker_hand_g20_palm_touch:main',
],
},
)
@@ -0,0 +1,25 @@
# Copyright 2015 Open Source Robotics Foundation, Inc.
#
# Licensed under the Apache License, Version 2.0 (the "License");
# you may not use this file except in compliance with the License.
# You may obtain a copy of the License at
#
# http://www.apache.org/licenses/LICENSE-2.0
#
# Unless required by applicable law or agreed to in writing, software
# distributed under the License is distributed on an "AS IS" BASIS,
# WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
# See the License for the specific language governing permissions and
# limitations under the License.
from ament_copyright.main import main
import pytest
# Remove the `skip` decorator once the source file(s) have a copyright header
@pytest.mark.skip(reason='No copyright header has been placed in the generated source file.')
@pytest.mark.copyright
@pytest.mark.linter
def test_copyright():
rc = main(argv=['.', 'test'])
assert rc == 0, 'Found errors'
@@ -0,0 +1,25 @@
# Copyright 2017 Open Source Robotics Foundation, Inc.
#
# Licensed under the Apache License, Version 2.0 (the "License");
# you may not use this file except in compliance with the License.
# You may obtain a copy of the License at
#
# http://www.apache.org/licenses/LICENSE-2.0
#
# Unless required by applicable law or agreed to in writing, software
# distributed under the License is distributed on an "AS IS" BASIS,
# WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
# See the License for the specific language governing permissions and
# limitations under the License.
from ament_flake8.main import main_with_errors
import pytest
@pytest.mark.flake8
@pytest.mark.linter
def test_flake8():
rc, errors = main_with_errors(argv=[])
assert rc == 0, \
'Found %d code style errors / warnings:\n' % len(errors) + \
'\n'.join(errors)
@@ -0,0 +1,23 @@
# Copyright 2015 Open Source Robotics Foundation, Inc.
#
# Licensed under the Apache License, Version 2.0 (the "License");
# you may not use this file except in compliance with the License.
# You may obtain a copy of the License at
#
# http://www.apache.org/licenses/LICENSE-2.0
#
# Unless required by applicable law or agreed to in writing, software
# distributed under the License is distributed on an "AS IS" BASIS,
# WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
# See the License for the specific language governing permissions and
# limitations under the License.
from ament_pep257.main import main
import pytest
@pytest.mark.linter
@pytest.mark.pep257
def test_pep257():
rc = main(argv=['.', 'test'])
assert rc == 0, 'Found code style errors / warnings'
@@ -0,0 +1,36 @@
from rclpy.qos import HistoryPolicy
from linker_hand_ros2_sdk.linker_hand import (
COMMAND_QOS,
LinkerHand,
command_changed,
state_poll_due,
)
def test_empty_topic_prefix_preserves_legacy_topics():
assert LinkerHand.normalize_topic_prefix("") == ""
assert LinkerHand.normalize_topic_prefix("/") == ""
def test_topic_prefix_is_absolute_and_has_no_trailing_slash():
assert LinkerHand.normalize_topic_prefix("o6") == "/o6"
assert LinkerHand.normalize_topic_prefix("/g20/") == "/g20"
def test_command_qos_keeps_only_the_latest_sample():
assert COMMAND_QOS.history == HistoryPolicy.KEEP_LAST
assert COMMAND_QOS.depth == 1
def test_identical_commands_are_not_reapplied():
assert command_changed(None, [60, 60])
assert not command_changed([60, 60], [60, 60])
assert command_changed([60, 60], [60, 61])
assert not command_changed([60, 60], [])
def test_state_polling_is_throttled_without_missing_deadline():
assert state_poll_due(None, 10.0, 0.1)
assert not state_poll_due(10.0, 10.09, 0.1)
assert state_poll_due(10.0, 10.1, 0.1)
+72
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@@ -0,0 +1,72 @@
cmake_minimum_required(VERSION 3.5)
project(lbot_arm_interfaces)
# Default to C99
if(NOT CMAKE_C_STANDARD)
set(CMAKE_C_STANDARD 99)
endif()
# Default to C++14
if(NOT CMAKE_CXX_STANDARD)
set(CMAKE_CXX_STANDARD 14)
endif()
if(CMAKE_COMPILER_IS_GNUCXX OR CMAKE_CXX_COMPILER_ID MATCHES "Clang")
add_compile_options(-Wall -Wextra -Wpedantic)
endif()
# find dependencies
find_package(ament_cmake REQUIRED)
find_package(geometry_msgs REQUIRED)
find_package(std_msgs REQUIRED)
find_package(sensor_msgs REQUIRED)
find_package(rosidl_default_generators REQUIRED)
rosidl_generate_interfaces(${PROJECT_NAME}
# srv
"srv/MoveJ.srv"
"srv/MoveL.srv"
"srv/MoveC.srv"
"srv/MoveJP.srv"
"srv/InverseKinematics.srv"
"srv/ForwardKinematics.srv"
"srv/SetFrame.srv"
"srv/SetString.srv"
"srv/GetFrame.srv"
"srv/GetCurrentFrame.srv"
"srv/ChangeFrame.srv"
"srv/DeleteFrame.srv"
"srv/GetAllFrames.srv"
"srv/SetZero.srv"
"srv/SetEmergency.srv"
"srv/SetEnable.srv"
# msg
"msg/ArmState.msg"
"msg/LbotPose.msg"
"msg/LbotFrame.msg"
"msg/FollowJoint.msg"
"msg/SystemError.msg"
DEPENDENCIES std_msgs geometry_msgs sensor_msgs
)
ament_export_dependencies(rosidl_default_runtime)
# uncomment the following section in order to fill in
# further dependencies manually.
# find_package(<dependency> REQUIRED)
if(BUILD_TESTING)
find_package(ament_lint_auto REQUIRED)
# the following line skips the linter which checks for copyrights
# uncomment the line when a copyright and license is not present in all source files
#set(ament_cmake_copyright_FOUND TRUE)
# the following line skips cpplint (only works in a git repo)
# uncomment the line when this package is not in a git repo
#set(ament_cmake_cpplint_FOUND TRUE)
ament_lint_auto_find_test_dependencies()
endif()
ament_package()
+3
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@@ -0,0 +1,3 @@
float32[] joints
geometry_msgs/Vector3 euler
geometry_msgs/Pose pose
+2
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@@ -0,0 +1,2 @@
float32[] joints
bool follow
@@ -0,0 +1,3 @@
string name
geometry_msgs/Vector3 euler
geometry_msgs/Vector3 position
+2
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@@ -0,0 +1,2 @@
geometry_msgs/Vector3 euler
geometry_msgs/Vector3 position
@@ -0,0 +1,4 @@
std_msgs/Header header
int32 error_code
string error_msg
bool connected
+25
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@@ -0,0 +1,25 @@
<?xml version="1.0"?>
<?xml-model href="http://download.ros.org/schema/package_format3.xsd" schematypens="http://www.w3.org/2001/XMLSchema"?>
<package format="3">
<name>lbot_arm_interfaces</name>
<version>0.0.0</version>
<description>TODO: Package description</description>
<maintainer email="mengfanjiwork@163.com">Ross</maintainer>
<license>TODO: License declaration</license>
<buildtool_depend>ament_cmake</buildtool_depend>
<build_depend>rosidl_default_generators</build_depend>
<exec_depend>rosidl_default_runtime</exec_depend>
<member_of_group>rosidl_interface_packages</member_of_group>
<test_depend>ament_lint_auto</test_depend>
<test_depend>ament_lint_common</test_depend>
<export>
<build_type>ament_cmake</build_type>
</export>
<depend>std_msgs</depend>
<depend>geometry_msgs</depend>
<depend>sensor_msgs</depend>
</package>
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string name
---
bool success
@@ -0,0 +1,3 @@
string name
---
bool success
@@ -0,0 +1,7 @@
float32[] joints
---
geometry_msgs/Vector3 position
geometry_msgs/Vector3 euler
bool success
@@ -0,0 +1,4 @@
---
string[] names
bool success
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---
string name
lbot_arm_interfaces/LbotFrame frame
bool success
@@ -0,0 +1,4 @@
string name
---
lbot_arm_interfaces/LbotFrame frame
bool success
@@ -0,0 +1,6 @@
float32[] joints # 此关节角度不设置会默认从机械臂读取当前角度,如果设置则基于此值为初始角度进行逆解
geometry_msgs/Vector3 position
geometry_msgs/Vector3 euler
---
float32[] joints
bool success
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geometry_msgs/Vector3 position
geometry_msgs/Vector3 euler
float32 speed
float32 acce
bool block
---
bool success
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float32[] joints
float32 speed
float32 acce
bool block
---
bool success
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geometry_msgs/Vector3 position
geometry_msgs/Vector3 euler
float32 speed
float32 acce
bool block
---
bool success
+9
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geometry_msgs/Vector3 position
geometry_msgs/Vector3 euler
float32 speed
float32 acce
bool block
---
bool success
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bool emergency
---
bool success
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bool enable
---
bool success
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lbot_arm_interfaces/LbotFrame frame
---
bool success
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string name
---
bool success
@@ -0,0 +1,3 @@
---
bool success
@@ -0,0 +1,64 @@
cmake_minimum_required(VERSION 3.8)
project(lbot_driver)
set(CMAKE_CXX_STANDARD 14)
set(CMAKE_CXX_STANDARD_REQUIRED ON)
add_compile_options(-Wall -Wextra -Wpedantic)
# ROS2 dependencies
find_package(ament_cmake REQUIRED)
find_package(rclcpp REQUIRED)
find_package(std_msgs REQUIRED)
find_package(std_srvs REQUIRED)
find_package(sensor_msgs REQUIRED)
find_package(geometry_msgs REQUIRED)
find_package(tf2 REQUIRED)
find_package(tf2_geometry_msgs REQUIRED)
find_package(lbot_arm_interfaces REQUIRED)
# include directories
include_directories(
${PROJECT_SOURCE_DIR}/include
${PROJECT_SOURCE_DIR}/include/${PROJECT_NAME}
)
# library directory
link_directories(${PROJECT_SOURCE_DIR}/lib)
# executable
add_executable(lbot_driver src/lbot_driver.cpp)
# link the API library (name only! no lib prefix, no .so suffix)
target_link_libraries(lbot_driver
lbot_api_cpp
)
# ros deps
ament_target_dependencies(lbot_driver
rclcpp
std_msgs
std_srvs
sensor_msgs
geometry_msgs
tf2
tf2_geometry_msgs
lbot_arm_interfaces
)
# install binary
install(TARGETS lbot_driver
DESTINATION lib/${PROJECT_NAME}
)
# install launch & config
install(DIRECTORY launch config
DESTINATION share/${PROJECT_NAME}
)
# install .so libraries
install(DIRECTORY lib/
DESTINATION lib
)
ament_package()
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lbot_driver:
ros__parameters:
#robot param
arm_ip: "192.168.10.21" #设置TCP连接时的IP
@@ -0,0 +1,485 @@
/**
* @file lbot_api.h
* @brief LBot机器人控制API接口
* @date 2026.1.19
* @copyright 灵心巧手科技有限公司
*/
#ifndef LBOT_API_H
#define LBOT_API_H
#ifdef __cplusplus
extern "C" {
#endif
// 跨平台导出宏
#ifdef _WIN32
#ifdef LBOT_API_EXPORTS
#define LBOT_API __declspec(dllexport)
#else
#define LBOT_API __declspec(dllimport)
#endif
#else
#define LBOT_API __attribute__((visibility("default")))
#endif
#include "lbot_types.h"
#include "lbot_version.h"
// ==============================================
// API初始化和清理函数
// ==============================================
/**
* @brief 初始化LBot API连接
* @param tcp_host TCP服务器地址格式:"192.168.10.21"
* @return lbot_handle_t 连接句柄,连接成功句柄ID>0,失败返回NULL
*/
LBOT_API lbot_handle_t *lbot_init(const char* tcp_host);
/**
* @brief 断开指定连接
* @param handle 机械臂句柄
* @return true 断开成功,false 断开失败
*/
LBOT_API bool lbot_disconnect(lbot_handle_t *handle);
/**
* @brief 清理API资源,断开连接
*/
LBOT_API void lbot_cleanup();
/**
* @brief 获取API版本信息
* @return 版本字符串
*/
LBOT_API const char* lbot_get_api_version();
// ==============================================
// 系统信息获取函数
// ==============================================
/**
* @brief 获取控制器信息
* @param handle 机械臂句柄
* @param robot_model 返回的机器人型号字符串(需要调用者释放)
* @param controller_version 返回的控制器版本字符串(需要调用者释放)
* @return true 获取成功,false 获取失败
*/
LBOT_API bool lbot_get_controller_info(lbot_handle_t *handle, char** robot_model, char** controller_version);
// ==============================================
// 状态监控和管理函数
// ==============================================
/**
* @brief 启动状态监控
* @param state_cb 状态回调函数,当机器人状态更新时调用
* @param error_cb 错误回调函数,当发生错误时调用
* @return true 启动成功,false 启动失败
*/
LBOT_API bool lbot_start_state_monitor(lbot_state_callback_t state_cb, lbot_error_callback_t error_cb);
/**
* @brief 停止状态监控
*/
LBOT_API void lbot_stop_state_monitor();
/**
* @brief 获取当前机器人完整状态,此接口需要在启动状态监控后才能调用
* @param handle 机械臂句柄
* @param state 返回的机器人状态结构体指针
* @return true 获取成功,false 获取失败
*/
LBOT_API bool lbot_get_current_state(lbot_handle_t *handle, lbot_full_state_t* state);
// ==============================================
// 运动控制函数
// ==============================================
/**
* @brief 关节空间运动
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param joints 7个关节的目标角度(弧度)
* @param speed 运动速度(0.0~20.0)单位是rad/s, 建议从(0.0~2.0)开始使用后续如有需要逐步提高
* @param accel 加速度(0.0~20.0) 单位是rad/s^2, 建议从(0.0~2.0)开始使用后续如有需要逐步提高
* @param block 是否阻塞执行:true 等待运动完成,false 立即返回
* @return true 指令发送成功,false 发送失败
*/
LBOT_API bool lbot_move_joint(lbot_handle_t *handle, lbot_arm_t arm, const double joints[7], double speed, double accel, bool block);
/**
* @brief 笛卡尔空间姿态运动(关节插值)
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param position 目标位置(x, y, z,单位:米)
* @param euler 机械臂末端目标欧拉角(roll, pitch, yaw,单位:弧度)
* @param speed 机械臂末端运动速度(0.0~20.0)单位m/s, 建议从(0.0~2.0)开始使用后续如有需要逐步提高
* @param accel 机械臂末端加速度(0.0~20.0)单位m/s^2, 建议从(0.0~2.0)开始使用后续如有需要逐步提高
* @param block 是否阻塞执行:true 等待运动完成,false 立即返回
* @return true 指令发送成功,false 发送失败
*/
LBOT_API bool lbot_move_pose(lbot_handle_t *handle, lbot_arm_t arm, const lbot_position_t* position, const lbot_euler_t* euler,
double speed, double accel, bool block);
/**
* @brief 笛卡尔空间直线运动(直线插值)
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param position 目标位置(x, y, z,单位:米)
* @param euler 目标欧拉角(roll, pitch, yaw,单位:弧度)
* @param speed 关节运动速度(0.0~20.0)单位是rad/s, 建议从(0.0~2.0)开始使用后续如有需要逐步提高
* @param accel 关节运动加速度(0.0~20.0) 单位是rad/s^2, 建议从(0.0~2.0)开始使用后续如有需要逐步提高
* @param block 是否阻塞执行:true 等待运动完成,false 立即返回
* @return true 指令发送成功,false 发送失败
*/
LBOT_API bool lbot_move_linear(lbot_handle_t *handle, lbot_arm_t arm, const lbot_position_t* position, const lbot_euler_t* euler,
double speed, double accel, bool block);
// ==============================================
// 关节跟随函数(用于遥操作)
// ==============================================
/**
* @brief 关节跟随控制
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param joints 7个关节的目标角度(弧度)
* @return true 指令发送成功,false 发送失败
*/
LBOT_API bool lbot_joint_follow(lbot_handle_t *handle, lbot_arm_t arm, const double joints[7]);
/**
* @brief 笛卡尔空间姿态跟随运动
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param pos 目标位置(x, y, z,单位:米)
* @param eul 目标欧拉角(roll, pitch, yaw,单位:弧度)
* @return true 指令发送成功,false 发送失败
*/
LBOT_API bool lbot_pose_follow(lbot_handle_t *handle, lbot_arm_t arm, lbot_position_t pos, lbot_euler_t eul);
// ==============================================
// l6 手控制接口
// ==============================================
/**
* @brief 设置L6手的位置控制
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param position 6个手指的目标位置(0~255)
* @return true 指令发送成功,false 发送失败
*/
LBOT_API bool lbot_l6_set_position(lbot_handle_t *handle, lbot_arm_t arm, const uint8_t position[6]);
/**
* @brief 设置L6手的速度控制
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param velocity 6个手指的目标速度(0~255)
* @return true 指令发送成功,false 发送失败
*/
LBOT_API bool lbot_l6_set_velocity(lbot_handle_t *handle, lbot_arm_t arm, const uint8_t velocity[6]);
/**
* @brief 设置L6手的力矩控制
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param torque 6个手指的目标力矩(0~255)
* @return true 指令发送成功,false 发送失败
*/
LBOT_API bool lbot_l6_set_effort(lbot_handle_t *handle, lbot_arm_t arm, const uint8_t torque[6]);
// ==============================================
// l10 手控制接口(10个自由度)
// ==============================================
/**
* @brief 设置L10手的位置控制
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param position 10个手指的目标位置(0~255)
* @return true 指令发送成功,false 发送失败
*/
LBOT_API bool lbot_l10_set_position(lbot_handle_t *handle, lbot_arm_t arm, const uint8_t position[10]);
/**
* @brief 设置L10手的速度控制
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param velocity 10个手指的目标速度(0~255)
* @return true 指令发送成功,false 发送失败
*/
LBOT_API bool lbot_l10_set_velocity(lbot_handle_t *handle, lbot_arm_t arm, const uint8_t velocity[10]);
/**
* @brief 设置L10手的力矩控制
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param torque 10个手指的目标力矩(0~255)
* @return true 指令发送成功,false 发送失败
*/
LBOT_API bool lbot_l10_set_effort(lbot_handle_t *handle, lbot_arm_t arm, const uint8_t torque[10]);
// ==============================================
// r20 手控制接口
// ==============================================
/**
* @brief 设置R20手各手指位置控制
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param cmd 目标位置命令
* @return true 指令发送成功,false 发送失败
*/
LBOT_API bool lbot_l20_set_series_position(lbot_handle_t *handle, lbot_arm_t arm, const lbot_l20_series_cmd_t* cmd);
/**
* @brief 设置R20手所有自由度位置控制
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param cmd 目标位置命令, 16个自由度的目标位置(度),分别为:拇指指根(0~120)、
* 拇指指尖(0~150)、拇指侧摆(0~180)、拇指旋转(0~130)、食指侧摆(-30~30)、
* 食指指根(0~180)、食指指尖(0~180)、中指侧摆(-30~30)、中指指根(0~180)、
* 中指指尖(0~180)、无名指侧摆(-20~20)、无名指指根(0~180)、无名指指尖(0~180)、
* 小指侧摆(-20~20)、小指指根(0~180)、小指指尖(0~180)
* @return true 指令发送成功,false 发送失败
*/
LBOT_API bool lbot_l20_set_all_position(lbot_handle_t *handle, lbot_arm_t arm, const int cmd[16]);
// ==============================================
// 运动学计算函数
// ==============================================
/**
* @brief 正运动学计算
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param joints 7个关节角度(弧度)
* @param position 返回的末端位置(x, y, z,单位:米)
* @param euler 返回的末端欧拉角(roll, pitch, yaw,单位:弧度)
* @return true 计算成功,false 计算失败
*/
LBOT_API bool lbot_forward_kinematics(lbot_handle_t *handle, lbot_arm_t arm, const double joints[7],
lbot_position_t* position, lbot_euler_t* euler);
/**
* @brief 逆运动学计算
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param initial_joints 初始关节角度(弧度),用于求解器迭代
* @param position 目标位置(x, y, z,单位:米)
* @param euler 目标欧拉角(roll, pitch, yaw,单位:弧度)
* @param result_joints 返回的7个关节角度解(弧度)
* @return true 求解成功,false 求解失败
*/
LBOT_API bool lbot_inverse_kinematics(lbot_handle_t *handle, lbot_arm_t arm, const double initial_joints[7],
const lbot_position_t* position, const lbot_euler_t* euler,
double result_joints[7]);
// ==============================================
// 工具坐标系管理函数
// ==============================================
/**
* @brief 设置工具坐标系
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param name 工具坐标系名称(最大32字符)
* @param position 工具坐标系相对于法兰盘的位置偏移(x, y, z,单位:米)
* @param euler 工具坐标系相对于法兰盘的欧拉角偏移(roll, pitch, yaw,单位:弧度)
* @return true 设置成功,false 设置失败
*/
LBOT_API bool lbot_set_tool_frame(lbot_handle_t *handle, lbot_arm_t arm, const char* name,
const lbot_position_t* position, const lbot_euler_t* euler);
/**
* @brief 获取工具坐标系参数
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param name 工具坐标系名称
* @param position 返回的工具坐标系位置偏移
* @param euler 返回的工具坐标系欧拉角偏移
* @return true 获取成功,false 获取失败
*/
LBOT_API bool lbot_get_tool_frame(lbot_handle_t *handle, lbot_arm_t arm, const char* name,
lbot_position_t* position, lbot_euler_t* euler);
/**
* @brief 获取当前使用的工具坐标系
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param name 返回的当前工具坐标系名称(需要调用者释放)
* @param position 返回的当前工具坐标系位置偏移
* @param euler 返回的当前工具坐标系欧拉角偏移
* @return true 获取成功,false 获取失败
*/
LBOT_API bool lbot_get_current_tool_frame(lbot_handle_t *handle, lbot_arm_t arm,
char** name,
lbot_position_t* position,
lbot_euler_t* euler);
/**
* @brief 切换当前工具坐标系
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param name 要切换到的工具坐标系名称
* @return true 切换成功,false 切换失败
*/
LBOT_API bool lbot_change_tool_frame(lbot_handle_t *handle, lbot_arm_t arm, const char* name);
/**
* @brief 删除工具坐标系
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param name 要删除的工具坐标系名称
* @return true 删除成功,false 删除失败
*/
LBOT_API bool lbot_delete_tool_frame(lbot_handle_t *handle, lbot_arm_t arm, const char* name);
/**
* @brief 获取所有工具坐标系名称
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param names 返回的工具坐标系名称数组(需要调用lbot_free_string_array释放)
* @param count 返回的工具坐标系数量
* @return true 获取成功,false 获取失败
*/
LBOT_API bool lbot_get_all_tool_frames(lbot_handle_t *handle, lbot_arm_t arm, char*** names, int* count);
// ==============================================
// 工作坐标系管理函数
// ==============================================
/**
* @brief 设置工作坐标系
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param name 工作坐标系名称(最大32字符)
* @param position 工作坐标系相对于基坐标系的位置偏移(x, y, z,单位:米)
* @param euler 工作坐标系相对于基坐标系的欧拉角偏移(roll, pitch, yaw,单位:弧度)
* @return true 设置成功,false 设置失败
*/
LBOT_API bool lbot_set_work_frame(lbot_handle_t *handle, lbot_arm_t arm, const char* name,
const lbot_position_t* position, const lbot_euler_t* euler);
/**
* @brief 获取工作坐标系参数
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param name 工作坐标系名称
* @param position 返回的工作坐标系位置偏移
* @param euler 返回的工作坐标系欧拉角偏移
* @return true 获取成功,false 获取失败
*/
LBOT_API bool lbot_get_work_frame(lbot_handle_t *handle, lbot_arm_t arm, const char* name,
lbot_position_t* position, lbot_euler_t* euler);
/**
* @brief 切换当前工作坐标系
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param name 要切换到的工作坐标系名称
* @return true 切换成功,false 切换失败
*/
LBOT_API bool lbot_change_work_frame(lbot_handle_t *handle, lbot_arm_t arm, const char* name);
/**
* @brief 删除工作坐标系
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param name 要删除的工作坐标系名称
* @return true 删除成功,false 删除失败
*/
LBOT_API bool lbot_delete_work_frame(lbot_handle_t *handle, lbot_arm_t arm, const char* name);
/**
* @brief 获取所有工作坐标系名称
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param names 返回的工作坐标系名称数组(需要调用lbot_free_string_array释放)
* @param count 返回的工作坐标系数量
* @return true 获取成功,false 获取失败
*/
LBOT_API bool lbot_get_all_work_frames(lbot_handle_t *handle, lbot_arm_t arm, char*** names, int* count);
// ==============================================
// 系统功能函数
// ==============================================
/**
* @brief 重新标定电机零位,设置当前位置为零位
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @return true 设置成功,false 设置失败
*/
LBOT_API bool lbot_set_zero(lbot_handle_t *handle, lbot_arm_t arm);
/**
* @brief 使能/掉使能机械臂
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param enable true 使能,false 掉使能
* @return true 指令发送成功,false 发送失败
*/
LBOT_API bool lbot_enable_arm(lbot_handle_t *handle, lbot_arm_t arm, bool enable);
/**
* @brief 紧急停止/恢复机械臂运行
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param enable true 紧急停止,false 恢复运行
* @return true 指令发送成功,false 发送失败
*/
LBOT_API bool lbot_emergency_stop(lbot_handle_t *handle, lbot_arm_t arm, bool enable);
/**
* @brief 清除所有错误
* @param handle 机械臂句柄
* @return true 清除成功,false 清除失败
*/
LBOT_API bool lbot_clear_errors(lbot_handle_t *handle);
/**
* @brief 设置机械臂关节限位
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param upper_joint_limit 最大关节限位参数
* @param lower_joint_limit 最小关节限位参数
* @return true 设置成功,false 设置失败
*/
LBOT_API bool lbot_set_joint_limit(lbot_handle_t *handle, lbot_arm_t arm, const double upper_joint_limit[7], const double lower_joint_limit[7]);
/**
* @brief 获取机械臂关节限位参数
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param upper_joint_limit 返回的最大关节限位参数
* @param lower_joint_limit 返回的最小关节限位参数
* @return true 获取成功,false 获取失败
*/
LBOT_API bool lbot_get_joint_limit(lbot_handle_t *handle, lbot_arm_t arm, double upper_joint_limit[7], double lower_joint_limit[7]);
/**
* @brief 恢复默认关节限位参数
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param upper_joint_limit 返回的默认最大关节限位参数
* @param lower_joint_limit 返回的默认最小关节限位参数
* @return true 恢复成功,false 恢复失败
*/
LBOT_API bool lbot_get_default_joint_limit(lbot_handle_t *handle, lbot_arm_t arm, double upper_joint_limit[7], double lower_joint_limit[7]);
// ==============================================
// 内存管理辅助函数
// ==============================================
/**
* @brief 释放字符串数组内存
* @param array 要释放的字符串数组
* @param count 数组元素数量
*/
LBOT_API void lbot_free_string_array(char** array, int count);
// ==============================================
// 工具函数
// ==============================================
/**
* @brief 获取最后一次错误信息
* @return 错误信息字符串指针
*/
LBOT_API const char* lbot_get_last_error(lbot_handle_t *handle);
/**
* @brief 设置日志级别
* @param level 日志级别:0-ERROR, 1-WARN, 2-INFO, 3-DEBUG
*/
LBOT_API void lbot_set_log_level(int level);
#ifdef __cplusplus
}
#endif
#endif // LBOT_API_H
@@ -0,0 +1,660 @@
/**
* @file lbot_api_cpp.h
* @brief 灵心巧手机械臂控制API C++封装头文件
* @date 2026.1.19
* @copyright 灵心巧手科技有限公司
*/
#ifndef LBOT_API_CPP_H
#define LBOT_API_CPP_H
#include "lbot_api.h"
#include <string>
#include <vector>
#include <functional>
/**
* @brief 灵心巧手机械臂控制API C++封装类
* @details 提供C++友好的接口封装,使用std::string和std::vector简化内存管理
*/
namespace lbot {
class LbotApi {
public:
// ==============================================
// 构造函数和析构函数
// ==============================================
/**
* @brief 构造函数
*/
LbotApi();
/**
* @brief 析构函数,自动清理资源
*/
~LbotApi();
// ==============================================
// API初始化和清理函数
// ==============================================
/**
* @brief 初始化LBot API连接
* @param tcp_host TCP服务器地址格式:"192.168.10.21"
* @return lbot_handle_t 连接句柄,连接成功句柄ID>0,失败返回NULL
*/
LBOT_API lbot_handle_t *lbot_init(const char* tcp_host);
/**
* @brief 断开指定连接
* @param handle 机械臂句柄
* @return true 断开成功,false 断开失败
*/
LBOT_API bool lbot_disconnect(lbot_handle_t *handle);
/**
* @brief 清理API资源,断开连接
*/
LBOT_API void lbot_cleanup();
/**
* @brief 获取API版本信息
* @return 版本字符串
*/
LBOT_API std::string lbot_get_api_version();
// ==============================================
// 系统信息获取函数
// ==============================================
/**
* @brief 获取控制器信息
* @param handle 机械臂句柄
* @param robot_model 返回的机器人型号字符串
* @param controller_version 返回的控制器版本字符串
* @return true 获取成功,false 获取失败
*/
LBOT_API bool lbot_get_controller_info(lbot_handle_t *handle, std::string& robot_model, std::string& controller_version);
// ==============================================
// 状态监控和管理函数
// ==============================================
/**
* @brief 启动状态监控
* @param state_cb 状态回调函数,当机器人状态更新时调用
* @param error_cb 错误回调函数,当发生错误时调用
* @return true 启动成功,false 启动失败
*/
LBOT_API bool lbot_start_state_monitor(lbot_state_callback_t state_cb, lbot_error_callback_t error_cb);
/**
* @brief 停止状态监控
*/
LBOT_API void lbot_stop_state_monitor();
/**
* @brief 获取当前机器人完整状态,此接口需要在启动状态监控后才能调用
* @param handle 机械臂句柄
* @param state 返回的机器人状态结构体指针
* @return true 获取成功,false 获取失败
*/
LBOT_API bool lbot_get_current_state(lbot_handle_t *handle, lbot_full_state_t* state);
// ==============================================
// 运动控制函数
// ==============================================
/**
* @brief 关节空间运动
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param joints 7个关节的目标角度(弧度)
* @param speed 运动速度(0.0~20.0)单位是rad/s, 建议从(0.0~2.0)开始使用后续如有需要逐步提高
* @param accel 加速度(0.0~20.0)单位是rad/s^2, 建议从(0.0~2.0)开始使用后续如有需要逐步提高
* @param block 是否阻塞执行:true 等待运动完成,false 立即返回
* @return true 指令发送成功,false 发送失败
*/
LBOT_API bool lbot_move_joint(lbot_handle_t *handle, lbot_arm_t arm, const double joints[7], double speed, double accel, bool block);
/**
* @brief 关节空间运动(使用vector)
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param joints 7个关节的目标角度(弧度)向量
* @param speed 运动速度(0.0~20.0)单位是rad/s, 建议从(0.0~2.0)开始使用后续如有需要逐步提高
* @param accel 加速度(0.0~20.0)单位是rad/s^2, 建议从(0.0~2.0)开始使用后续如有需要逐步提高
* @param block 是否阻塞执行:true 等待运动完成,false 立即返回
* @return true 指令发送成功,false 发送失败
*/
LBOT_API bool lbot_move_joint(lbot_handle_t *handle, lbot_arm_t arm, const std::vector<double>& joints, double speed, double accel, bool block);
/**
* @brief 笛卡尔空间姿态运动(关节插值)
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param position 目标位置(x, y, z,单位:米)
* @param euler 机械臂末端目标欧拉角(roll, pitch, yaw,单位:弧度)
* @param speed 机械臂末端运动速度(0.0~20.0)单位m/s, 建议从(0.0~2.0)开始使用后续如有需要逐步提高
* @param accel 机械臂末端加速度(0.0~20.0)单位m/s^2, 建议从(0.0~2.0)开始使用后续如有需要逐步提高
* @param block 是否阻塞执行:true 等待运动完成,false 立即返回
* @return true 指令发送成功,false 发送失败
*/
LBOT_API bool lbot_move_pose(lbot_handle_t *handle, lbot_arm_t arm, const lbot_position_t* position, const lbot_euler_t* euler,
double speed, double accel, bool block);
/**
* @brief 笛卡尔空间姿态运动(使用向量)
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param position 目标位置(x, y, z,单位:米)向量
* @param euler 机械臂末端目标欧拉角(roll, pitch, yaw,单位:弧度)向量
* @param speed 机械臂末端运动速度(0.0~20.0)单位m/s, 建议从(0.0~2.0)开始使用后续如有需要逐步提高
* @param accel 机械臂末端加速度(0.0~20.0)单位m/s^2, 建议从(0.0~2.0)开始使用后续如有需要逐步提高
* @param block 是否阻塞执行:true 等待运动完成,false 立即返回
* @return true 指令发送成功,false 发送失败
*/
LBOT_API bool lbot_move_pose(lbot_handle_t *handle, lbot_arm_t arm, const std::vector<double>& position, const std::vector<double>& euler,
double speed, double accel, bool block);
/**
* @brief 笛卡尔空间直线运动(直线插值)
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param position 目标位置(x, y, z,单位:米)
* @param euler 目标欧拉角(roll, pitch, yaw,单位:弧度)
* @param speed 关节运动速度(0.0~20.0)单位是rad/s, 建议从(0.0~2.0)开始使用后续如有需要逐步提高
* @param accel 关节运动加速度(0.0~20.0)单位是rad/s^2, 建议从(0.0~2.0)开始使用后续如有需要逐步提高
* @param block 是否阻塞执行:true 等待运动完成,false 立即返回
* @return true 指令发送成功,false 发送失败
*/
LBOT_API bool lbot_move_linear(lbot_handle_t *handle, lbot_arm_t arm, const lbot_position_t* position, const lbot_euler_t* euler,
double speed, double accel, bool block);
/**
* @brief 笛卡尔空间直线运动(使用向量)
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param position 目标位置(x, y, z,单位:米)向量
* @param euler 目标欧拉角(roll, pitch, yaw,单位:弧度)向量
* @param speed 关节运动速度(0.0~20.0)单位是rad/s, 建议从(0.0~2.0)开始使用后续如有需要逐步提高
* @param accel 关节运动加速度(0.0~20.0)单位是rad/s^2, 建议从(0.0~2.0)开始使用后续如有需要逐步提高
* @param block 是否阻塞执行:true 等待运动完成,false 立即返回
* @return true 指令发送成功,false 发送失败
*/
LBOT_API bool lbot_move_linear(lbot_handle_t *handle, lbot_arm_t arm, const std::vector<double>& position, const std::vector<double>& euler,
double speed, double accel, bool block);
// ==============================================
// 关节跟随函数(用于遥操作)
// ==============================================
/**
* @brief 关节跟随控制
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param joints 包含7个关节目标角度(弧度)的向量
* @return true 指令发送成功,false 发送失败
*/
LBOT_API bool lbot_joint_follow(lbot_handle_t *handle, lbot_arm_t arm, const std::vector<double>& joints);
// ==============================================
// 姿态跟随函数
// ==============================================
/**
* @brief 笛卡尔空间姿态跟随运动
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param pos 目标位置(x, y, z,单位:米)
* @param eul 目标欧拉角(roll, pitch, yaw,单位:弧度)
* @return true 指令发送成功,false 发送失败
*/
LBOT_API bool lbot_pose_follow(lbot_handle_t *handle, lbot_arm_t arm, lbot_position_t pos, lbot_euler_t eul);
// ==============================================
// L6手控制接口
// ==============================================
/**
* @brief 设置L6手的位置控制
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param position 6个手指的目标位置(0~255)向量
* @return true 指令发送成功,false 发送失败
*/
LBOT_API bool lbot_l6_set_position(lbot_handle_t *handle, lbot_arm_t arm, const std::vector<uint8_t>& position);
/**
* @brief 设置L6手的速度控制
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param velocity 6个手指的目标速度(0~255)向量
* @return true 指令发送成功,false 发送失败
*/
LBOT_API bool lbot_l6_set_velocity(lbot_handle_t *handle, lbot_arm_t arm, const std::vector<uint8_t>& velocity);
/**
* @brief 设置L6手的力矩控制
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param torque 6个手指的目标力矩(0~255)向量
* @return true 指令发送成功,false 发送失败
*/
LBOT_API bool lbot_l6_set_effort(lbot_handle_t *handle, lbot_arm_t arm, const std::vector<uint8_t>& torque);
// ==============================================
// L10手控制接口(10个自由度)
// ==============================================
/**
* @brief 设置L10手的位置控制
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param position 10个手指的目标位置(0~255)向量
* @return true 指令发送成功,false 发送失败
*/
LBOT_API bool lbot_l10_set_position(lbot_handle_t *handle, lbot_arm_t arm, const std::vector<uint8_t>& position);
/**
* @brief 设置L10手的速度控制
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param velocity 10个手指的目标速度(0~255)向量
* @return true 指令发送成功,false 发送失败
*/
LBOT_API bool lbot_l10_set_velocity(lbot_handle_t *handle, lbot_arm_t arm, const std::vector<uint8_t>& velocity);
/**
* @brief 设置L10手的力矩控制
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param torque 10个手指的目标力矩(0~255)向量
* @return true 指令发送成功,false 发送失败
*/
LBOT_API bool lbot_l10_set_effort(lbot_handle_t *handle, lbot_arm_t arm, const std::vector<uint8_t>& torque);
// ==============================================
// L20手控制接口(20个自由度)
// ==============================================
/**
* @brief 设置R20手的串联位置控制
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param cmd 目标位置命令,包含手指标识和6个电机位置
* @return true 指令发送成功,false 发送失败
*/
LBOT_API bool lbot_l20_set_series_position(lbot_handle_t *handle, lbot_arm_t arm, const lbot_l20_series_cmd_t* cmd);
/**
* @brief 设置R20手所有自由度位置控制
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param position 16个自由度的目标位置(度)向量
* @return true 指令发送成功,false 发送失败
*/
LBOT_API bool lbot_l20_set_all_position(lbot_handle_t *handle, lbot_arm_t arm, const std::vector<int>& position);
// ==============================================
// 运动学计算函数
// ==============================================
/**
* @brief 正运动学计算
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param joints 7个关节角度(弧度)
* @param position 返回的末端位置(x, y, z,单位:米)
* @param euler 返回的末端欧拉角(roll, pitch, yaw,单位:弧度)
* @return true 计算成功,false 计算失败
*/
LBOT_API bool lbot_forward_kinematics(lbot_handle_t *handle, lbot_arm_t arm, const double joints[7],
lbot_position_t* position, lbot_euler_t* euler);
/**
* @brief 正运动学计算(使用向量)
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param joints 7个关节角度(弧度)向量
* @param position 返回的末端位置(x, y, z,单位:米)向量
* @param euler 返回的末端欧拉角(roll, pitch, yaw,单位:弧度)向量
* @return true 计算成功,false 计算失败
*/
LBOT_API bool lbot_forward_kinematics(lbot_handle_t *handle, lbot_arm_t arm, const std::vector<double>& joints,
std::vector<double>& position, std::vector<double>& euler);
/**
* @brief 逆运动学计算
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param initial_joints 初始关节角度(弧度),用于求解器迭代
* @param position 目标位置(x, y, z,单位:米)
* @param euler 目标欧拉角(roll, pitch, yaw,单位:弧度)
* @param result_joints 返回的7个关节角度解(弧度)
* @return true 求解成功,false 求解失败
*/
LBOT_API bool lbot_inverse_kinematics(lbot_handle_t *handle, lbot_arm_t arm, const double initial_joints[7],
const lbot_position_t* position, const lbot_euler_t* euler,
double result_joints[7]);
/**
* @brief 逆运动学计算(使用向量)
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param initial_joints 初始关节角度(弧度)向量,用于求解器迭代
* @param position 目标位置(x, y, z,单位:米)向量
* @param euler 目标欧拉角(roll, pitch, yaw,单位:弧度)向量
* @param result_joints 返回的7个关节角度解(弧度)向量
* @return true 求解成功,false 求解失败
*/
LBOT_API bool lbot_inverse_kinematics(lbot_handle_t *handle, lbot_arm_t arm, const std::vector<double>& initial_joints,
const std::vector<double>& position, const std::vector<double>& euler,
std::vector<double>& result_joints);
// ==============================================
// 工具坐标系管理函数
// ==============================================
/**
* @brief 设置工具坐标系
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param name 工具坐标系名称(最大32字符)
* @param position 工具坐标系相对于法兰盘的位置偏移(x, y, z,单位:米)
* @param euler 工具坐标系相对于法兰盘的欧拉角偏移(roll, pitch, yaw,单位:弧度)
* @return true 设置成功,false 设置失败
*/
LBOT_API bool lbot_set_tool_frame(lbot_handle_t *handle, lbot_arm_t arm, const char* name,
const lbot_position_t* position, const lbot_euler_t* euler);
/**
* @brief 设置工具坐标系(使用向量)
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param name 工具坐标系名称(最大32字符)
* @param position 工具坐标系相对于法兰盘的位置偏移(x, y, z,单位:米)向量
* @param euler 工具坐标系相对于法兰盘的欧拉角偏移(roll, pitch, yaw,单位:弧度)向量
* @return true 设置成功,false 设置失败
*/
LBOT_API bool lbot_set_tool_frame(lbot_handle_t *handle, lbot_arm_t arm, const std::string& name,
const std::vector<double>& position, const std::vector<double>& euler);
/**
* @brief 获取工具坐标系参数
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param name 工具坐标系名称
* @param position 返回的工具坐标系位置偏移
* @param euler 返回的工具坐标系欧拉角偏移
* @return true 获取成功,false 获取失败
*/
LBOT_API bool lbot_get_tool_frame(lbot_handle_t *handle, lbot_arm_t arm, const char* name,
lbot_position_t* position, lbot_euler_t* euler);
/**
* @brief 获取工具坐标系参数(使用向量)
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param name 工具坐标系名称
* @param position 返回的工具坐标系位置偏移向量
* @param euler 返回的工具坐标系欧拉角偏移向量
* @return true 获取成功,false 获取失败
*/
LBOT_API bool lbot_get_tool_frame(lbot_handle_t *handle, lbot_arm_t arm, const std::string& name,
std::vector<double>& position, std::vector<double>& euler);
/**
* @brief 获取当前使用的工具坐标系
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param name 返回的当前工具坐标系名称
* @param position 返回的当前工具坐标系位置偏移
* @param euler 返回的当前工具坐标系欧拉角偏移
* @return true 获取成功,false 获取失败
*/
LBOT_API bool lbot_get_current_tool_frame(lbot_handle_t *handle, lbot_arm_t arm,
std::string& name,
lbot_position_t& position,
lbot_euler_t& euler);
/**
* @brief 获取当前使用的工具坐标系(使用向量)
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param name 返回的当前工具坐标系名称
* @param position 返回的当前工具坐标系位置偏移向量
* @param euler 返回的当前工具坐标系欧拉角偏移向量
* @return true 获取成功,false 获取失败
*/
LBOT_API bool lbot_get_current_tool_frame(lbot_handle_t *handle, lbot_arm_t arm, std::string& name,
std::vector<double>& position,
std::vector<double>& euler);
/**
* @brief 切换当前工具坐标系
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param name 要切换到的工具坐标系名称
* @return true 切换成功,false 切换失败
*/
LBOT_API bool lbot_change_tool_frame(lbot_handle_t *handle, lbot_arm_t arm, const char* name);
/**
* @brief 切换当前工具坐标系(使用string)
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param name 要切换到的工具坐标系名称
* @return true 切换成功,false 切换失败
*/
LBOT_API bool lbot_change_tool_frame(lbot_handle_t *handle, lbot_arm_t arm, const std::string& name);
/**
* @brief 删除工具坐标系
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param name 要删除的工具坐标系名称
* @return true 删除成功,false 删除失败
*/
LBOT_API bool lbot_delete_tool_frame(lbot_handle_t *handle, lbot_arm_t arm, const char* name);
/**
* @brief 删除工具坐标系(使用string)
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param name 要删除的工具坐标系名称
* @return true 删除成功,false 删除失败
*/
LBOT_API bool lbot_delete_tool_frame(lbot_handle_t *handle, lbot_arm_t arm, const std::string& name);
/**
* @brief 获取所有工具坐标系名称
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param names 返回的工具坐标系名称向量
* @return true 获取成功,false 获取失败
*/
LBOT_API bool lbot_get_all_tool_frames(lbot_handle_t *handle, lbot_arm_t arm, std::vector<std::string>& names);
// ==============================================
// 工作坐标系管理函数
// ==============================================
/**
* @brief 设置工作坐标系
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param name 工作坐标系名称(最大32字符)
* @param position 工作坐标系相对于基坐标系的位置偏移(x, y, z,单位:米)
* @param euler 工作坐标系相对于基坐标系的欧拉角偏移(roll, pitch, yaw,单位:弧度)
* @return true 设置成功,false 设置失败
*/
LBOT_API bool lbot_set_work_frame(lbot_handle_t *handle, lbot_arm_t arm, const char* name,
const lbot_position_t* position, const lbot_euler_t* euler);
/**
* @brief 设置工作坐标系(使用向量)
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param name 工作坐标系名称(最大32字符)
* @param position 工作坐标系相对于基坐标系的位置偏移(x, y, z,单位:米)向量
* @param euler 工作坐标系相对于基坐标系的欧拉角偏移(roll, pitch, yaw,单位:弧度)向量
* @return true 设置成功,false 设置失败
*/
LBOT_API bool lbot_set_work_frame(lbot_handle_t *handle, lbot_arm_t arm, const std::string& name,
const std::vector<double>& position, const std::vector<double>& euler);
/**
* @brief 获取工作坐标系参数
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param name 工作坐标系名称
* @param position 返回的工作坐标系位置偏移
* @param euler 返回的工作坐标系欧拉角偏移
* @return true 获取成功,false 获取失败
*/
LBOT_API bool lbot_get_work_frame(lbot_handle_t *handle, lbot_arm_t arm, const char* name,
lbot_position_t* position, lbot_euler_t* euler);
/**
* @brief 获取工作坐标系参数(使用向量)
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param name 工作坐标系名称
* @param position 返回的工作坐标系位置偏移向量
* @param euler 返回的工作坐标系欧拉角偏移向量
* @return true 获取成功,false 获取失败
*/
LBOT_API bool lbot_get_work_frame(lbot_handle_t *handle, lbot_arm_t arm, const std::string& name,
std::vector<double>& position, std::vector<double>& euler);
/**
* @brief 切换当前工作坐标系
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param name 要切换到的工作坐标系名称
* @return true 切换成功,false 切换失败
*/
LBOT_API bool lbot_change_work_frame(lbot_handle_t *handle, lbot_arm_t arm, const char* name);
/**
* @brief 切换当前工作坐标系(使用string)
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param name 要切换到的工作坐标系名称
* @return true 切换成功,false 切换失败
*/
LBOT_API bool lbot_change_work_frame(lbot_handle_t *handle, lbot_arm_t arm, const std::string& name);
/**
* @brief 删除工作坐标系
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param name 要删除的工作坐标系名称
* @return true 删除成功,false 删除失败
*/
LBOT_API bool lbot_delete_work_frame(lbot_handle_t *handle, lbot_arm_t arm, const char* name);
/**
* @brief 删除工作坐标系(使用string)
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param name 要删除的工作坐标系名称
* @return true 删除成功,false 删除失败
*/
LBOT_API bool lbot_delete_work_frame(lbot_handle_t *handle, lbot_arm_t arm, const std::string& name);
/**
* @brief 获取所有工作坐标系名称
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param names 返回的工作坐标系名称向量
* @return true 获取成功,false 获取失败
*/
LBOT_API bool lbot_get_all_work_frames(lbot_handle_t *handle, lbot_arm_t arm, std::vector<std::string>& names);
// ==============================================
// 系统功能函数
// ==============================================
/**
* @brief 重新标定电机零位,设置当前位置为零位
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @return true 设置成功,false 设置失败
*/
LBOT_API bool lbot_set_zero(lbot_handle_t *handle, lbot_arm_t arm);
/**
* @brief 使能/掉使能机械臂
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param enable true 使能,false 掉使能
* @return true 指令发送成功,false 发送失败
*/
LBOT_API bool lbot_enable_arm(lbot_handle_t *handle, lbot_arm_t arm, bool enable);
/**
* @brief 紧急停止/恢复
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param enable true 紧急停止,false 恢复运行
* @return true 指令发送成功,false 发送失败
*/
LBOT_API bool lbot_emergency_stop(lbot_handle_t *handle, lbot_arm_t arm, bool enable);
/**
* @brief 清除所有错误
* @param handle 机械臂句柄
* @return true 清除成功,false 清除失败
*/
LBOT_API bool lbot_clear_errors(lbot_handle_t *handle);
/**
* @brief 设置机械臂关节限位
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param upper_joint_limit 最大关节限位参数
* @param lower_joint_limit 最小关节限位参数
* @return true 设置成功,false 设置失败
*/
LBOT_API bool lbot_set_joint_limit(lbot_handle_t *handle, lbot_arm_t arm, const double upper_joint_limit[7], const double lower_joint_limit[7]);
/**
* @brief 获取机械臂关节限位参数
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param upper_joint_limit 返回的最大关节限位参数
* @param lower_joint_limit 返回的最小关节限位参数
* @return true 获取成功,false 获取失败
*/
LBOT_API bool lbot_get_joint_limit(lbot_handle_t *handle, lbot_arm_t arm, double upper_joint_limit[7], double lower_joint_limit[7]);
/**
* @brief 获取机械臂默认关节限位参数
* @param handle 机械臂句柄
* @param arm 机械臂选择:LBOT_LEFT_ARM 或 LBOT_RIGHT_ARM
* @param upper_joint_limit 返回的最大关节限位参数
* @param lower_joint_limit 返回的最小关节限位参数
* @return true 获取成功,false 获取失败
*/
LBOT_API bool lbot_get_default_joint_limit(lbot_handle_t *handle, lbot_arm_t arm, double upper_joint_limit[7], double lower_joint_limit[7]);
// ==============================================
// 工具函数
// ==============================================
/**
* @brief 获取最后一次错误信息
* @return 错误信息字符串
*/
LBOT_API std::string lbot_get_last_error(lbot_handle_t *handle);
/**
* @brief 设置日志级别
* @param level 日志级别:0-ERROR, 1-WARN, 2-INFO, 3-DEBUG
*/
LBOT_API void lbot_set_log_level(int level);
// ==============================================
// 内存管理辅助函数
// ==============================================
/**
* @brief 释放字符串数组内存
* @param array 要释放的字符串数组
* @param count 数组元素数量
*/
LBOT_API void lbot_free_string_array(char** array, int count);
private:
// 禁用拷贝构造和赋值操作
LbotApi(const LbotApi&) = delete;
LbotApi& operator=(const LbotApi&) = delete;
};
} // namespace lbot
#endif // LBOT_API_CPP_H
@@ -0,0 +1,430 @@
// Copyright (c) 2025 LingSmart Tech
//
// Licensed under the Apache License, Version 2.0 (the "License");
// you may not use this file except in compliance with the License.
// You may obtain a copy of the License at
//
// http://www.apache.org/licenses/LICENSE-2.0
//
// Unless required by applicable law or agreed to in writing, software
// distributed under the License is distributed on an "AS IS" BASIS,
// WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
// See the License for the specific language governing permissions and
// limitations under the License.
#ifndef LBOT_DRIVER_H
#define LBOT_DRIVER_H
#include <iostream>
#include "rclcpp/rclcpp.hpp"
#include "rclcpp/clock.hpp"
#include <memory>
#include <string>
#include <thread>
#include <chrono>
#include <functional>
#include <atomic>
#include <unistd.h>
#include <signal.h>
#include <sys/types.h>
#include <sys/socket.h>
#include <netinet/in.h>
#include <arpa/inet.h>
#include <sys/ioctl.h>
#include <sys/time.h>
#include <sys/select.h>
#include <fcntl.h>
#include <rmw/qos_profiles.h>
#include "lbot_api_cpp.h"
// ROS2 标准消息类型
#include <std_msgs/msg/empty.hpp>
#include <std_msgs/msg/bool.hpp>
#include <std_msgs/msg/string.hpp>
#include <std_srvs/srv/empty.hpp>
#include <sensor_msgs/msg/joint_state.hpp>
#include <geometry_msgs/msg/pose.hpp>
#include <geometry_msgs/msg/pose_stamped.hpp>
#include "std_msgs/msg/u_int8_multi_array.hpp"
#include "std_msgs/msg/int32_multi_array.hpp"
// 自定义 Message 类型
#include "lbot_arm_interfaces/msg/arm_state.hpp"
#include "lbot_arm_interfaces/msg/lbot_pose.hpp"
#include "lbot_arm_interfaces/msg/lbot_frame.hpp"
#include "lbot_arm_interfaces/msg/follow_joint.hpp"
#include "lbot_arm_interfaces/msg/system_error.hpp"
// 自定义 Service 类型
#include "lbot_arm_interfaces/srv/change_frame.hpp"
#include "lbot_arm_interfaces/srv/delete_frame.hpp"
#include "lbot_arm_interfaces/srv/forward_kinematics.hpp"
#include "lbot_arm_interfaces/srv/inverse_kinematics.hpp"
#include "lbot_arm_interfaces/srv/move_c.hpp"
#include "lbot_arm_interfaces/srv/move_j.hpp"
#include "lbot_arm_interfaces/srv/move_jp.hpp"
#include "lbot_arm_interfaces/srv/move_l.hpp"
#include "lbot_arm_interfaces/srv/set_frame.hpp"
#include "lbot_arm_interfaces/srv/set_string.hpp"
#include "lbot_arm_interfaces/srv/set_zero.hpp"
#include "lbot_arm_interfaces/srv/set_enable.hpp"
#include "lbot_arm_interfaces/srv/set_emergency.hpp"
#include "lbot_arm_interfaces/srv/get_frame.hpp"
#include "lbot_arm_interfaces/srv/get_current_frame.hpp"
#include "lbot_arm_interfaces/srv/get_all_frames.hpp"
#define RAD_DEGREE 57.295791433
#define DEGREE_RAD 0.01745329252
using namespace std::chrono_literals;
// 状态回调函数
void lbot_state_callback_wrapper(const lbot_full_state_t* state);
void lbot_error_callback_wrapper(int error_code, const char* error_msg);
// 全局连接状态枚举
enum class GlobalConnState {
DISCONNECTED,
CONNECTING,
CONNECTED
};
// 全局变量
extern bool lbot_ctrl_flag;
extern lbot::LbotApi lbot_api;
extern lbot_handle_t *lbot_handle;
extern std::atomic<GlobalConnState> g_conn_state; // 全局连接状态
namespace lbot_driver {
// 主节点 - 负责连接管理、状态发布、心跳重连、关节跟随
class LBot: public rclcpp::Node
{
public:
LBot(const std::string& node_name = "lbot_main_node");
~LBot();
// 线程安全的状态缓存
std::mutex state_mutex_, conn_mutex_;
lbot_full_state_t current_lbot_state_;
// 节点关闭状态变量
std::atomic<bool> shutting_down_{false};
// 单例类指针
static LBot* g_instance;
// 重连机制相关线程与变量
std::thread reconnect_thread_;
std::atomic<bool> reconnect_thread_running_{false};
std::mutex reconnect_thread_mutex_;
void disconnect_robot();
void publish_system_error(int error_code, const char* error_msg);
private:
// 初始化和连接相关
bool connect_robot();
void get_robot_info();
void state_publish_timer_callback();
// 心跳与重连机制回调函数
void heartbeat_timer_callback();
void reconnect_timer_callback();
// 关节跟随订阅回调函数(移到主节点,避免阻塞)
void left_joint_follow_callback(const lbot_arm_interfaces::msg::FollowJoint::SharedPtr msg);
void right_joint_follow_callback(const lbot_arm_interfaces::msg::FollowJoint::SharedPtr msg);
/****************************** 发布器 ******************************/
// 状态发布器 (50Hz)
rclcpp::Publisher<sensor_msgs::msg::JointState>::SharedPtr left_joint_pub_;
rclcpp::Publisher<sensor_msgs::msg::JointState>::SharedPtr right_joint_pub_;
rclcpp::Publisher<geometry_msgs::msg::PoseStamped>::SharedPtr left_pose_pub_;
rclcpp::Publisher<geometry_msgs::msg::PoseStamped>::SharedPtr right_pose_pub_;
rclcpp::Publisher<lbot_arm_interfaces::msg::SystemError>::SharedPtr system_error_pub_;
/****************************** 订阅器 ******************************/
// 关节跟随订阅器 (用于遥操作) - 移到主节点
rclcpp::Subscription<lbot_arm_interfaces::msg::FollowJoint>::SharedPtr left_joint_follow_sub_;
rclcpp::Subscription<lbot_arm_interfaces::msg::FollowJoint>::SharedPtr right_joint_follow_sub_;
/****************************** 定时器 ******************************/
// 状态发布定时器 (50Hz)
rclcpp::TimerBase::SharedPtr state_publish_timer_;
rclcpp::TimerBase::SharedPtr heartbeat_timer_;
rclcpp::TimerBase::SharedPtr reconnect_timer_;
// 参数
std::string arm_ip_ = "192.168.10.21";
// 回调组
rclcpp::CallbackGroup::SharedPtr callback_group_timer_;
rclcpp::CallbackGroup::SharedPtr callback_group_subscribers_;
// 连接状态
bool is_state_monitor_started_ = false;
GlobalConnState conn_state_ = GlobalConnState::DISCONNECTED;
// 心跳计数器(连续失败次数)
int heartbeat_fail_count_ = 0;
};
// 左臂服务节点 - 负责左臂所有服务
class LeftArmServiceNode : public rclcpp::Node
{
public:
LeftArmServiceNode(const std::string& node_name = "lbot_left_arm_node");
~LeftArmServiceNode() = default;
private:
rclcpp::CallbackGroup::SharedPtr callback_group_, callback_group_subscribers_;
void create_services();
// 灵巧手设置回调函数
void left_hand_l6_set_joint_callback(const std_msgs::msg::UInt8MultiArray::SharedPtr msg);
void left_hand_l6_set_force_callback(const std_msgs::msg::UInt8MultiArray::SharedPtr msg);
void left_hand_l6_set_speed_callback(const std_msgs::msg::UInt8MultiArray::SharedPtr msg);
void left_hand_l10_set_joint_callback(const std_msgs::msg::UInt8MultiArray::SharedPtr msg);
void left_hand_l10_set_force_callback(const std_msgs::msg::UInt8MultiArray::SharedPtr msg);
void left_hand_l10_set_speed_callback(const std_msgs::msg::UInt8MultiArray::SharedPtr msg);
void left_hand_l20_set_joint_callback(const std_msgs::msg::Int32MultiArray::SharedPtr msg);
/****************************** 连接状态检查函数 ******************************/
bool check_connection_state(const std::string& service_name) {
if (g_conn_state.load() != GlobalConnState::CONNECTED) {
RCLCPP_WARN(this->get_logger(), "%s: Robot not connected, service rejected", service_name.c_str());
return false;
}
return true;
}
/****************************** 左臂服务回调函数 ******************************/
// 运动控制
void move_joint_callback(
const std::shared_ptr<lbot_arm_interfaces::srv::MoveJ::Request> request,
std::shared_ptr<lbot_arm_interfaces::srv::MoveJ::Response> response);
void move_pose_callback(
const std::shared_ptr<lbot_arm_interfaces::srv::MoveJP::Request> request,
std::shared_ptr<lbot_arm_interfaces::srv::MoveJP::Response> response);
void move_linear_callback(
const std::shared_ptr<lbot_arm_interfaces::srv::MoveL::Request> request,
std::shared_ptr<lbot_arm_interfaces::srv::MoveL::Response> response);
// 运动学计算
void forward_kinematics_callback(
const std::shared_ptr<lbot_arm_interfaces::srv::ForwardKinematics::Request> request,
std::shared_ptr<lbot_arm_interfaces::srv::ForwardKinematics::Response> response);
void inverse_kinematics_callback(
const std::shared_ptr<lbot_arm_interfaces::srv::InverseKinematics::Request> request,
std::shared_ptr<lbot_arm_interfaces::srv::InverseKinematics::Response> response);
// 工具坐标系管理
void set_tool_frame_callback(
const std::shared_ptr<lbot_arm_interfaces::srv::SetFrame::Request> request,
std::shared_ptr<lbot_arm_interfaces::srv::SetFrame::Response> response);
void get_tool_frame_callback(
const std::shared_ptr<lbot_arm_interfaces::srv::GetFrame::Request> request,
std::shared_ptr<lbot_arm_interfaces::srv::GetFrame::Response> response);
void get_current_tool_frame_callback(
const std::shared_ptr<lbot_arm_interfaces::srv::GetCurrentFrame::Request> request,
std::shared_ptr<lbot_arm_interfaces::srv::GetCurrentFrame::Response> response);
void change_tool_frame_callback(
const std::shared_ptr<lbot_arm_interfaces::srv::ChangeFrame::Request> request,
std::shared_ptr<lbot_arm_interfaces::srv::ChangeFrame::Response> response);
void delete_tool_frame_callback(
const std::shared_ptr<lbot_arm_interfaces::srv::DeleteFrame::Request> request,
std::shared_ptr<lbot_arm_interfaces::srv::DeleteFrame::Response> response);
void get_all_tool_frames_callback(
const std::shared_ptr<lbot_arm_interfaces::srv::GetAllFrames::Request> request,
std::shared_ptr<lbot_arm_interfaces::srv::GetAllFrames::Response> response);
// 系统设置
void set_zero_callback(
const std::shared_ptr<lbot_arm_interfaces::srv::SetZero::Request> request,
std::shared_ptr<lbot_arm_interfaces::srv::SetZero::Response> response);
void set_enable_callback(
const std::shared_ptr<lbot_arm_interfaces::srv::SetEnable::Request> request,
std::shared_ptr<lbot_arm_interfaces::srv::SetEnable::Response> response);
void set_emergency_callback(
const std::shared_ptr<lbot_arm_interfaces::srv::SetEmergency::Request> request,
std::shared_ptr<lbot_arm_interfaces::srv::SetEmergency::Response> response);
/****************************** 服务器 ******************************/
// 运动控制服务器
rclcpp::Service<lbot_arm_interfaces::srv::MoveJ>::SharedPtr move_joint_service_;
rclcpp::Service<lbot_arm_interfaces::srv::MoveJP>::SharedPtr move_pose_service_;
rclcpp::Service<lbot_arm_interfaces::srv::MoveL>::SharedPtr move_linear_service_;
// 运动学计算服务器
rclcpp::Service<lbot_arm_interfaces::srv::ForwardKinematics>::SharedPtr forward_kinematics_service_;
rclcpp::Service<lbot_arm_interfaces::srv::InverseKinematics>::SharedPtr inverse_kinematics_service_;
// 工具坐标系管理服务器
rclcpp::Service<lbot_arm_interfaces::srv::SetFrame>::SharedPtr set_tool_frame_service_;
rclcpp::Service<lbot_arm_interfaces::srv::GetFrame>::SharedPtr get_tool_frame_service_;
rclcpp::Service<lbot_arm_interfaces::srv::GetCurrentFrame>::SharedPtr get_current_tool_frame_service_;
rclcpp::Service<lbot_arm_interfaces::srv::ChangeFrame>::SharedPtr change_tool_frame_service_;
rclcpp::Service<lbot_arm_interfaces::srv::DeleteFrame>::SharedPtr delete_tool_frame_service_;
rclcpp::Service<lbot_arm_interfaces::srv::GetAllFrames>::SharedPtr get_all_tool_frames_service_;
// 系统设置服务器
rclcpp::Service<lbot_arm_interfaces::srv::SetZero>::SharedPtr set_zero_service_;
rclcpp::Service<lbot_arm_interfaces::srv::SetEnable>::SharedPtr set_enable_service_;
rclcpp::Service<lbot_arm_interfaces::srv::SetEmergency>::SharedPtr set_emergency_service_;
/****************************** 灵巧手Topic ******************************/
rclcpp::Subscription<std_msgs::msg::UInt8MultiArray>::SharedPtr left_hand_l6_joint_sub_;
rclcpp::Subscription<std_msgs::msg::UInt8MultiArray>::SharedPtr left_hand_l6_force_sub_;
rclcpp::Subscription<std_msgs::msg::UInt8MultiArray>::SharedPtr left_hand_l6_speed_sub_;
rclcpp::Subscription<std_msgs::msg::UInt8MultiArray>::SharedPtr left_hand_l10_joint_sub_;
rclcpp::Subscription<std_msgs::msg::UInt8MultiArray>::SharedPtr left_hand_l10_force_sub_;
rclcpp::Subscription<std_msgs::msg::UInt8MultiArray>::SharedPtr left_hand_l10_speed_sub_;
rclcpp::Subscription<std_msgs::msg::Int32MultiArray>::SharedPtr left_hand_l20_joint_sub_;
};
// 右臂服务节点 - 负责右臂所有服务
class RightArmServiceNode : public rclcpp::Node
{
public:
RightArmServiceNode(const std::string& node_name = "lbot_right_arm_node");
~RightArmServiceNode() = default;
private:
rclcpp::CallbackGroup::SharedPtr callback_group_, callback_group_subscribers_;
void create_services();
// 灵巧手设置回调函数
void right_hand_l6_set_joint_callback(const std_msgs::msg::UInt8MultiArray::SharedPtr msg);
void right_hand_l6_set_force_callback(const std_msgs::msg::UInt8MultiArray::SharedPtr msg);
void right_hand_l6_set_speed_callback(const std_msgs::msg::UInt8MultiArray::SharedPtr msg);
void right_hand_l10_set_joint_callback(const std_msgs::msg::UInt8MultiArray::SharedPtr msg);
void right_hand_l10_set_force_callback(const std_msgs::msg::UInt8MultiArray::SharedPtr msg);
void right_hand_l10_set_speed_callback(const std_msgs::msg::UInt8MultiArray::SharedPtr msg);
void right_hand_l20_set_joint_callback(const std_msgs::msg::Int32MultiArray::SharedPtr msg);
/****************************** 连接状态检查函数 ******************************/
bool check_connection_state(const std::string& service_name) {
if (g_conn_state.load() != GlobalConnState::CONNECTED) {
RCLCPP_WARN(this->get_logger(), "%s: Robot not connected, service rejected", service_name.c_str());
return false;
}
return true;
}
/****************************** 右臂服务回调函数 ******************************/
// 运动控制
void move_joint_callback(
const std::shared_ptr<lbot_arm_interfaces::srv::MoveJ::Request> request,
std::shared_ptr<lbot_arm_interfaces::srv::MoveJ::Response> response);
void move_pose_callback(
const std::shared_ptr<lbot_arm_interfaces::srv::MoveJP::Request> request,
std::shared_ptr<lbot_arm_interfaces::srv::MoveJP::Response> response);
void move_linear_callback(
const std::shared_ptr<lbot_arm_interfaces::srv::MoveL::Request> request,
std::shared_ptr<lbot_arm_interfaces::srv::MoveL::Response> response);
// 运动学计算
void forward_kinematics_callback(
const std::shared_ptr<lbot_arm_interfaces::srv::ForwardKinematics::Request> request,
std::shared_ptr<lbot_arm_interfaces::srv::ForwardKinematics::Response> response);
void inverse_kinematics_callback(
const std::shared_ptr<lbot_arm_interfaces::srv::InverseKinematics::Request> request,
std::shared_ptr<lbot_arm_interfaces::srv::InverseKinematics::Response> response);
// 工具坐标系管理
void set_tool_frame_callback(
const std::shared_ptr<lbot_arm_interfaces::srv::SetFrame::Request> request,
std::shared_ptr<lbot_arm_interfaces::srv::SetFrame::Response> response);
void get_tool_frame_callback(
const std::shared_ptr<lbot_arm_interfaces::srv::GetFrame::Request> request,
std::shared_ptr<lbot_arm_interfaces::srv::GetFrame::Response> response);
void get_current_tool_frame_callback(
const std::shared_ptr<lbot_arm_interfaces::srv::GetCurrentFrame::Request> request,
std::shared_ptr<lbot_arm_interfaces::srv::GetCurrentFrame::Response> response);
void change_tool_frame_callback(
const std::shared_ptr<lbot_arm_interfaces::srv::ChangeFrame::Request> request,
std::shared_ptr<lbot_arm_interfaces::srv::ChangeFrame::Response> response);
void delete_tool_frame_callback(
const std::shared_ptr<lbot_arm_interfaces::srv::DeleteFrame::Request> request,
std::shared_ptr<lbot_arm_interfaces::srv::DeleteFrame::Response> response);
void get_all_tool_frames_callback(
const std::shared_ptr<lbot_arm_interfaces::srv::GetAllFrames::Request> request,
std::shared_ptr<lbot_arm_interfaces::srv::GetAllFrames::Response> response);
// 系统设置
void set_zero_callback(
const std::shared_ptr<lbot_arm_interfaces::srv::SetZero::Request> request,
std::shared_ptr<lbot_arm_interfaces::srv::SetZero::Response> response);
void set_enable_callback(
const std::shared_ptr<lbot_arm_interfaces::srv::SetEnable::Request> request,
std::shared_ptr<lbot_arm_interfaces::srv::SetEnable::Response> response);
void set_emergency_callback(
const std::shared_ptr<lbot_arm_interfaces::srv::SetEmergency::Request> request,
std::shared_ptr<lbot_arm_interfaces::srv::SetEmergency::Response> response);
/****************************** 服务器 ******************************/
// 运动控制服务器
rclcpp::Service<lbot_arm_interfaces::srv::MoveJ>::SharedPtr move_joint_service_;
rclcpp::Service<lbot_arm_interfaces::srv::MoveJP>::SharedPtr move_pose_service_;
rclcpp::Service<lbot_arm_interfaces::srv::MoveL>::SharedPtr move_linear_service_;
// 运动学计算服务器
rclcpp::Service<lbot_arm_interfaces::srv::ForwardKinematics>::SharedPtr forward_kinematics_service_;
rclcpp::Service<lbot_arm_interfaces::srv::InverseKinematics>::SharedPtr inverse_kinematics_service_;
// 工具坐标系管理服务器
rclcpp::Service<lbot_arm_interfaces::srv::SetFrame>::SharedPtr set_tool_frame_service_;
rclcpp::Service<lbot_arm_interfaces::srv::GetFrame>::SharedPtr get_tool_frame_service_;
rclcpp::Service<lbot_arm_interfaces::srv::GetCurrentFrame>::SharedPtr get_current_tool_frame_service_;
rclcpp::Service<lbot_arm_interfaces::srv::ChangeFrame>::SharedPtr change_tool_frame_service_;
rclcpp::Service<lbot_arm_interfaces::srv::DeleteFrame>::SharedPtr delete_tool_frame_service_;
rclcpp::Service<lbot_arm_interfaces::srv::GetAllFrames>::SharedPtr get_all_tool_frames_service_;
// 系统设置服务器
rclcpp::Service<lbot_arm_interfaces::srv::SetZero>::SharedPtr set_zero_service_;
rclcpp::Service<lbot_arm_interfaces::srv::SetEnable>::SharedPtr set_enable_service_;
rclcpp::Service<lbot_arm_interfaces::srv::SetEmergency>::SharedPtr set_emergency_service_;
/****************************** 灵巧手Topic ******************************/
rclcpp::Subscription<std_msgs::msg::UInt8MultiArray>::SharedPtr right_hand_l6_joint_sub_;
rclcpp::Subscription<std_msgs::msg::UInt8MultiArray>::SharedPtr right_hand_l6_force_sub_;
rclcpp::Subscription<std_msgs::msg::UInt8MultiArray>::SharedPtr right_hand_l6_speed_sub_;
rclcpp::Subscription<std_msgs::msg::UInt8MultiArray>::SharedPtr right_hand_l10_joint_sub_;
rclcpp::Subscription<std_msgs::msg::UInt8MultiArray>::SharedPtr right_hand_l10_force_sub_;
rclcpp::Subscription<std_msgs::msg::UInt8MultiArray>::SharedPtr right_hand_l10_speed_sub_;
rclcpp::Subscription<std_msgs::msg::Int32MultiArray>::SharedPtr right_hand_l20_joint_sub_;
};
} // namespace lbot_driver
#endif // LBOT_DRIVER_H
@@ -0,0 +1,99 @@
/**
* @file lbot_types.h
* @brief 该文件定义了结构和枚举定义
* @date 2026.1.19
* @copyright 灵心巧手科技有限公司
*/
#ifndef LBOT_TYPES_H
#define LBOT_TYPES_H
#ifdef __cplusplus
extern "C" {
#endif
#include <stdbool.h>
#include <stdint.h>
// 机械臂类型枚举
typedef enum {
LBOT_LEFT_ARM = 0,
LBOT_RIGHT_ARM = 1
} lbot_arm_t;
// 机械臂控制句柄
typedef struct {
uint64_t id; // 句柄ID,连接成功返回>0的值,0表示无效句柄
}lbot_handle_t;
// 运动类型枚举
typedef enum {
LBOT_MOVE_JOINT = 0, // 关节空间运动
LBOT_MOVE_POSE = 1, // 笛卡尔空间点到点
LBOT_MOVE_LINEAR = 2 // 笛卡尔空间直线运动
} lbot_move_type_t;
// 坐标系结构体
typedef struct {
double x, y, z;
} lbot_position_t;
typedef struct {
double x, y, z, w;
} lbot_orientation_t;
typedef struct {
double x, y, z;
} lbot_euler_t;
// 关节状态结构体
typedef struct {
// 关节数据
char name[7][32]; // 7个关节名称
double joint_position[7]; // 7个关节位置
double velocity[7]; // 7个关节速度
double effort[7]; // 7个关节力矩
double temperature[7]; // 7个关节温度
// 时间戳
int32_t sec; // 秒
uint32_t nanosec; // 纳秒
char frame_id[64]; // 工作坐标系
// 末端状态
lbot_position_t end_effector_position; // 末端位置
lbot_euler_t euler; // 欧拉角
lbot_orientation_t orientation; // 四元数姿态
} lbot_arm_state_t;
// 机械臂完整状态结构体
typedef struct {
lbot_arm_state_t left_arm;
lbot_arm_state_t right_arm;
uint64_t system_timestamp; // 系统时间戳(纳秒)
char arm_ip[16]; // 机械臂IP地址
} lbot_full_state_t;
// 回调函数类型定义
typedef void (*lbot_state_callback_t)(const lbot_full_state_t* state);
typedef void (*lbot_error_callback_t)(int error_code, const char* error_msg);
typedef enum {
LBOT_FINGER_THUMB = 0, // 大拇指
LBOT_FINGER_INDEX = 1, // 食指
LBOT_FINGER_MID = 2, // 中指
LBOT_FINGER_RING = 3, // 无名指
LBOT_FINGER_LITTLE = 4 // 小指
} lbot_finger_type_t;
typedef struct {
uint8_t data[6]; // 单根手指各电机位置(指根、指尖、侧摆、旋转)
lbot_finger_type_t finger; // 手指标识,0~4表示thumb,index,mid,ring,little
} lbot_l20_series_cmd_t;
#ifdef __cplusplus
}
#endif
#endif // LBOT_TYPES_H
@@ -0,0 +1,23 @@
/**
* @file lbot_version.h
* @brief 该文件指定API版本号
* @date 2026.1.19
* @copyright 灵心巧手科技有限公司
*/
#ifndef LBOT_VERSION_H
#define LBOT_VERSION_H
#ifdef __cplusplus
extern "C" {
#endif
#define SDK_VERSION ("1.0.5")
#define SDK_BUILD_TIME ("2026.4.30")
#ifdef __cplusplus
}
#endif
#endif
@@ -0,0 +1,41 @@
import launch
import os
from launch import LaunchDescription
from launch_ros.actions import Node
from ament_index_python.packages import get_package_share_directory
def generate_launch_description():
# YAML 默认模板文件
base_yaml_file = os.path.join(
get_package_share_directory('lbot_driver'),
'config', 'lbot_config.yaml'
)
# 定义机器人列表,每个机器人名字和 IP
robots = [
{"name": "robot1", "arm_ip": "192.168.10.21"},
# {"name": "robot2", "arm_ip": "192.168.10.22"},
]
nodes = []
for robot in robots:
# 每个机器人只需要启动一个 lbot_driver 可执行文件
# 这个可执行文件内部会创建三个节点:主节点、左臂服务节点、右臂服务节点
driver_node = Node(
package='lbot_driver',
executable='lbot_driver',
namespace=robot["name"], # 设置 namespace
parameters=[
base_yaml_file, # 默认 YAML 文件
{ # 覆盖参数
"arm_ip": robot["arm_ip"]
}
],
output='screen',
emulate_tty=True, # 更好的日志输出格式
)
nodes.append(driver_node)
return LaunchDescription(nodes)
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#!/bin/bash
set -e
# 功能包 lib 目录(脚本所在目录就是 lib)
LIB_DIR="$(cd "$(dirname "$0")" && pwd)"
echo "Target lib directory: $LIB_DIR"
# 根据系统架构选择对应文件夹
ARCH=$(uname -m)
if [ "$ARCH" = "x86_64" ]; then
SRC_DIR="$LIB_DIR/linux_x64"
elif [ "$ARCH" = "aarch64" ] || [ "$ARCH" = "arm64" ]; then
SRC_DIR="$LIB_DIR/linux_arm64"
else
echo "Unsupported architecture: $ARCH"
exit 1
fi
TARGET_SO="$LIB_DIR/liblbot_api_cpp.so.1.0.0"
echo "Using source directory: $SRC_DIR"
echo "Removing old files..."
rm -f "$LIB_DIR/liblbot_api_cpp.so" \
"$LIB_DIR/liblbot_api_cpp.so.1" \
"$TARGET_SO"
echo "Copying..."
cp "$SRC_DIR/liblbot_api_cpp.so" "$TARGET_SO"
echo "Creating symlinks..."
ln -s "liblbot_api_cpp.so.1.0.0" "$LIB_DIR/liblbot_api_cpp.so.1"
ln -s "liblbot_api_cpp.so.1.0.0" "$LIB_DIR/liblbot_api_cpp.so"
echo "[SUCCESS] Installed."
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liblbot_api_cpp.so.1.0.0
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liblbot_api_cpp.so.1.0.0
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