4. Robot movement

4.1. Jog movement

 1/**
 2* @brief Jog movement
 3* @param [in] refType 0-joint jog, 2-base coordinate jog, 4-tool coordinate jog, 8-workpiece coordinate jog
 4* @param [in] nb 1-joint 1 (or x-axis), 2-joint 2 (or y-axis), 3-joint 3 (or z-axis), 4-joint 4 (or rotation about x-axis), 5-joint 5 (or rotation about y-axis), 6-joint 6 (or rotation about z-axis)
 5* @param [in] dir 0-negative direction, 1-positive direction
 6* @param [in] vel Speed percentage, [0~100]
 7* @param [in] acc Acceleration percentage, [0~100]
 8* @param [in] max_dis Maximum angle per jog movement in [°] or distance in [mm]
 9* @return Error code
10*/
11int StartJOG(int refType, int nb, int dir, double vel, double acc, double max_dis);

4.2. Jog deceleration stop

1/**
2* @brief Jog deceleration stop
3* @param  [in]  stopType  1-joint jog stop, 3-base coordinate jog stop, 5-tool coordinate jog stop, 9-workpiece coordinate jog stop
4* @return  Error code
5*/
6int StopJOG(int stopType);

4.3. Jog immediate stop

1/**
2* @brief Jog immediate stop
3* @return  Error code
4*/
5int ImmStopJOG();

4.4. Robot jog control code example

 1public static  int TestJOG(Robot robot)
 2{
 3    for (int i = 0; i < 6; i++)
 4    {
 5        robot.StartJOG(0, i + 1, 0, 20.0, 20.0, 30.0);
 6        robot.Sleep(1000);
 7        robot.ImmStopJOG();
 8        robot.Sleep(1000);
 9    }
10
11    for (int i = 0; i < 6; i++)
12    {
13        robot.StartJOG(2, i + 1, 0, 20.0, 20.0, 30.0);
14        robot.Sleep(1000);
15        robot.ImmStopJOG();
16        robot.Sleep(1000);
17    }
18
19    for (int i = 0; i < 6; i++)
20    {
21        robot.StartJOG(4, i + 1, 0, 20.0, 20.0, 30.0);
22        robot.Sleep(1000);
23        robot.StopJOG(5);
24        robot.Sleep(1000);
25    }
26
27    for (int i = 0; i < 6; i++)
28    {
29        robot.StartJOG(8, i + 1, 0, 20.0, 20.0, 30.0);
30        robot.Sleep(1000);
31        robot.StopJOG(9);
32        robot.Sleep(1000);
33    }
34    return 0;
35}

4.5. Joint space movement

 1/**
 2* @brief  Joint space movement
 3* @param  [in] joint_pos  Target joint position in deg
 4* @param  [in] desc_pos  Target cartesian pose
 5* @param  [in] tool  Tool coordinate number, range [0~14]
 6* @param  [in] user  Workpiece coordinate number, range [0~14]
 7* @param  [in] vel  Speed percentage, range [0~100]
 8* @param  [in] acc  Acceleration percentage, range [0~100], not currently available
 9* @param  [in] ovl  Speed scaling factor, range [0~100]
10* @param  [in] epos  Extended axis position in mm
11* @param  [in] blendT [-1.0]-move to position (blocking), [0~500.0]-smoothing time (non-blocking) in ms
12* @param  [in] offset_flag  0-no offset, 1-offset in base/workpiece coordinate, 2-offset in tool coordinate
13* @param  [in] offset_pos  Pose offset
14* @return  Error code
15*/
16int MoveJ(JointPos joint_pos, DescPose desc_pos, int tool, int user, double vel, double acc, double ovl, ExaxisPos epos, double blendT, int offset_flag, DescPose offset_pos);

4.6. Joint space motion (automatic forward kinematics calculation)

New in version Java: SDK-v1.0.8-3.8.5

 1/**
 2* @brief Joint space motion (automatic forward kinematics calculation)
 3* @param [in] joint_pos  Target joint position, unit deg
 4* @param [in] tool  Tool coordinate number, range [0~14]
 5* @param [in] user  Workpiece coordinate number, range [0~14]
 6* @param [in] vel  Velocity percentage, range [0~100]
 7* @param [in] acc  Acceleration percentage, range [0~100], not open yet
 8* @param [in] ovl  Velocity scaling factor, range [0~100]
 9* @param [in] epos  Extended axis position, unit mm
10* @param [in] blendT [-1.0]-move to position (blocking), [0~500.0]-smoothing time (non-blocking), unit ms
11* @param [in] offset_flag  0-no offset, 1-offset in base/workpiece coordinate system, 2-offset in tool coordinate system
12* @param [in] offset_pos  Pose offset
13* @return Error code
14*/
15int MoveJ(JointPos joint_pos, int tool, int user, double vel, double acc, double ovl, ExaxisPos epos, double blendT, int offset_flag, DescPose offset_pos)

4.7. Cartesian space linear movement

Changed in version Java: SDK-v1.0.5-3.8.2

 1/**
 2* @brief  Cartesian Space Linear Motion (Overloaded Function 1 with blendMode)
 3* @param  joint_pos  Target joint positions, unit: deg
 4* @param  desc_pos   Target Cartesian pose
 5* @param  tool  Tool coordinate system index, range [1~15]
 6* @param  user  Workpiece/User coordinate system index, range [1~15]
 7* @param  vel  Velocity percentage, range [0~100]
 8* @param  acc  Acceleration percentage, range [0~100], currently unavailable
 9* @param  ovl  Velocity scaling factor [0~100] / Physical velocity (mm/s)
10* @param  blendR  [-1.0]-Block until motion completes (blocking), [0~1000.0]-Blend radius (non-blocking), unit: mm
11* @param  blendMode  Transition method; 0-Tangent blend; 1-Corner blend
12* @param  epos  Extended axis position, unit: mm
13* @param  search  0-No wire search, 1-Wire search
14* @param  offset_flag  0-No offset, 1-Offset in base/workpiece coordinate system, 2-Offset in tool coordinate system
15* @param  offset_pos  Pose offset value
16* @param  oacc  Acceleration scaling factor [0-100] / Physical acceleration (mm/s²)
17* @param  velAccParamMode  Velocity/acceleration parameter mode; 0-Percentage; 1-Physical velocity (mm/s) and acceleration (mm/s²)
18* @param  overSpeedStrategy  Overspeed handling strategy; 1-Standard; 2-Stop with error on overspeed; 3-Adaptive speed reduction, default 0
19* @param  speedPercent  Allowable speed reduction threshold percentage [0-100], default 10%
20* @return  Error code
21*/
22public int MoveL(JointPos joint_pos, DescPose desc_pos, int tool, int user, double vel, double acc, double ovl, double blendR, int blendMode, ExaxisPos epos, int search, int offset_flag, DescPose offset_pos, double oacc,int velAccParamMode, int overSpeedStrategy, int speedPercent)

4.8. Cartesian space linear motion (automatic inverse kinematics calculation)

New in version Java: SDK-v1.0.8-3.8.5

 1/**
 2* @brief Cartesian space linear motion (automatic inverse kinematics calculation)
 3* @param [in] desc_pos  Target cartesian pose
 4* @param [in] tool  Tool coordinate number, range [1~15]
 5* @param [in] user  Workpiece coordinate number, range [1~15]
 6* @param [in] vel  Velocity percentage, range [0~100]
 7* @param [in] acc  Acceleration percentage, range [0~100], not open yet
 8* @param [in] ovl  Velocity scaling factor, range [0~100]
 9* @param [in] blendR [-1.0]-move to position (blocking), [0~1000.0]-smoothing radius (non-blocking), unit mm
10* @param [in] blendMode Transition mode; 0-tangent transition; 1-corner transition
11* @param [in] epos  Extended axis position, unit mm
12* @param [in] search  0-no wire search, 1-wire search
13* @param [in] offset_flag  0-no offset, 1-offset in base/workpiece coordinate system, 2-offset in tool coordinate system
14* @param [in] offset_pos  Pose offset
15* @param [in] config Inverse kinematics joint space configuration, [-1]-calculate based on current joint position, [0~7]-solve according to specific joint space configuration
16* @param [in] overSpeedStrategy  Overspeed handling strategy, 1-standard; 2-stop on error when overspeed; 3-adaptive speed reduction, default is 0
17* @param [in] speedPercent  Allowed speed reduction threshold percentage [0-100], default 10%
18* @return Error code
19*/
20int MoveL(DescPose desc_pos, int tool, int user, double vel, double acc, double ovl, double blendR, int blendMode, ExaxisPos epos, int search, int offset_flag, DescPose offset_pos, int config, int overSpeedStrategy, int speedPercent)

4.9. Cartesian Space Linear Motion (Added velAccParamMode parameter for velocity and acceleration modes)

New in version Java: SDK-v1.0.8-3.8.5

 1/**
 2* @brief  Cartesian Space Linear Motion (Added velAccParamMode parameter for velocity and acceleration modes)
 3* @param  [in] joint_pos  Target joint position, unit deg
 4* @param  [in] desc_pos   Target Cartesian pose
 5* @param  [in] tool  Tool coordinate number, range [1~15]
 6* @param  [in] user  Workpiece coordinate number, range [1~15]
 7* @param  [in] vel  Velocity percentage, range [0~100]
 8* @param  [in] acc  Acceleration percentage, range [0~100], not yet open
 9* @param  [in] ovl  Velocity scaling factor, range [0~100]
10* @param  [in] blendR [-1.0]-Motion complete (blocking), [0~1000.0]-Blending radius (non-blocking), unit mm
11* @param  [in] epos  Extended axis position, unit mm
12* @param  [in] search  0-No wire search, 1-Wire search
13* @param  [in] offset_flag  0-No offset, 1-Offset in base/workpiece coordinate system, 2-Offset in tool coordinate system
14* @param  [in] offset_pos  Pose offset
15* @param  [in] velAccParamMode Velocity and acceleration parameter mode; 0-Percentage; 1-Physical velocity (mm/s) and acceleration (mm/s^2)
16* @param  [in] overSpeedStrategy  Overspeed handling strategy, 1-Standard; 2-Stop with error on overspeed; 3-Adaptive deceleration, default is 0
17* @param  [in] speedPercent  Allowed deceleration threshold percentage [0-100], default 10%
18* @return  Error code
19*/
20public int MoveL(JointPos joint_pos, DescPose desc_pos, int tool, int user, double vel, double acc, double ovl, double blendR, ExaxisPos epos, int search, int offset_flag, DescPose offset_pos, int velAccParamMode, int overSpeedStrategy, int speedPercent)

4.10. Cartesian Space Linear Motion (Overload Function 1, Added blendMode)

New in version Java: SDK-v1.0.8-3.8.5

 1/**
 2* @brief  Cartesian Space Linear Motion (Overload Function 1, Added blendMode)
 3* @param  [in] joint_pos  Target joint position, unit deg
 4* @param  [in] desc_pos   Target Cartesian pose
 5* @param  [in] tool  Tool coordinate number, range [1~15]
 6* @param  [in] user  Workpiece coordinate number, range [1~15]
 7* @param  [in] vel  Velocity percentage, range [0~100]
 8* @param  [in] acc  Acceleration percentage, range [0~100], not yet open
 9* @param  [in] ovl  Velocity scaling factor, range [0~100]
10* @param  [in] blendR [-1.0]-Motion complete (blocking), [0~1000.0]-Blending radius (non-blocking), unit mm
11* @param  [in] blendMode Transition mode; 0-Tangent transition; 1-Corner transition
12* @param  [in] epos  Extended axis position, unit mm
13* @param  [in] search  0-No wire search, 1-Wire search
14* @param  [in] offset_flag  0-No offset, 1-Offset in base/workpiece coordinate system, 2-Offset in tool coordinate system
15* @param  [in] offset_pos  Pose offset
16* @param  [in] velAccParamMode Velocity and acceleration parameter mode; 0-Percentage; 1-Physical velocity (mm/s) and acceleration (mm/s^2)
17* @param  [in] overSpeedStrategy  Overspeed handling strategy, 1-Standard; 2-Stop with error on overspeed; 3-Adaptive deceleration, default is 0
18* @param  [in] speedPercent  Allowed deceleration threshold percentage [0-100], default 10%
19* @return  Error code
20*/
21public int MoveL(JointPos joint_pos, DescPose desc_pos, int tool, int user, double vel, double acc, double ovl, double blendR, int blendMode, ExaxisPos epos, int search, int offset_flag, DescPose offset_pos, int velAccParamMode, int overSpeedStrategy, int speedPercent)

4.11. Cartesian Space Linear Motion (Overload Function 2, No Joint Position Input Required)

New in version Java: SDK-v1.0.8-3.8.5

 1/**
 2* @brief  Cartesian Space Linear Motion (Overload Function 2, No Joint Position Input Required)
 3* @param  [in] desc_pos   Target Cartesian pose
 4* @param  [in] tool  Tool coordinate number, range [1~15]
 5* @param  [in] user  Workpiece coordinate number, range [1~15]
 6* @param  [in] vel  Velocity percentage, range [0~100]
 7* @param  [in] acc  Acceleration percentage, range [0~100], not yet open
 8* @param  [in] ovl  Velocity scaling factor, range [0~100]
 9* @param  [in] blendR [-1.0]-Motion complete (blocking), [0~1000.0]-Blending radius (non-blocking), unit mm
10* @param  [in] blendMode Transition mode; 0-Tangent transition; 1-Corner transition
11* @param  [in] epos  Extended axis position, unit mm
12* @param  [in] search  0-No wire search, 1-Wire search
13* @param  [in] offset_flag  0-No offset, 1-Offset in base/workpiece coordinate system, 2-Offset in tool coordinate system
14* @param  [in] offset_pos  Pose offset
15* @param  [in] config Inverse kinematic joint space configuration, [-1]-Reference current joint position for calculation, [0~7]-Solve based on specific joint space configuration
16* @param  [in] velAccParamMode Velocity and acceleration parameter mode; 0-Percentage; 1-Physical velocity (mm/s) and acceleration (mm/s^2)
17* @param  [in] overSpeedStrategy  Overspeed handling strategy, 1-Standard; 2-Stop with error on overspeed; 3-Adaptive deceleration, default is 0
18* @param  [in] speedPercent  Allowed deceleration threshold percentage [0-100], default 10%
19* @return  Error code
20*/
21public int MoveL(DescPose desc_pos, int tool, int user, double vel, double acc, double ovl, double blendR, int blendMode, ExaxisPos epos, int search, int offset_flag, DescPose offset_pos, int config, int velAccParamMode, int overSpeedStrategy, int speedPercent)

4.12. Cartesian space circular movement

 1/**
 2* @brief  Cartesian Space Circular Arc Motion
 3* @param  joint_pos_p  Path point joint positions, unit: deg
 4* @param  desc_pos_p   Path point Cartesian pose
 5* @param  ptool  Tool coordinate system index, range [1~15]
 6* @param  puser  Workpiece/User coordinate system index, range [1~15]
 7* @param  pvel  Velocity percentage, range [0~100]
 8* @param  pacc  Acceleration percentage, range [0~100], currently unavailable
 9* @param  epos_p  Extended axis position, unit: mm
10* @param  poffset_flag  0-No offset, 1-Offset in base/workpiece coordinate system, 2-Offset in tool coordinate system
11* @param  offset_pos_p  Pose offset value
12* @param  joint_pos_t  Target point joint positions, unit: deg
13* @param  desc_pos_t   Target point Cartesian pose
14* @param  ttool  Tool coordinate system index, range [1~15]
15* @param  tuser  Workpiece/User coordinate system index, range [1~15]
16* @param  tvel  Velocity percentage, range [0~100]
17* @param  tacc  Acceleration percentage, range [0~100], currently unavailable
18* @param  epos_t  Extended axis position, unit: mm
19* @param  toffset_flag  0-No offset, 1-Offset in base/workpiece coordinate system, 2-Offset in tool coordinate system
20* @param  offset_pos_t  Pose offset value
21* @param  ovl  Velocity scaling factor [0~100] / Physical velocity (mm/s)
22* @param  blendR [-1.0]-Block until motion completes (blocking), [0~1000.0]-Blend radius (non-blocking), unit: mm
23* @param  oacc Acceleration scaling factor [0-100] / Physical acceleration (mm/s²)
24* @param  velAccParamMode Velocity/acceleration parameter mode; 0-Percentage; 1-Physical velocity (mm/s) and acceleration (mm/s²)
25* @return  Error code
26*/
27public int MoveC(JointPos joint_pos_p, DescPose desc_pos_p, int ptool, int puser, double pvel, double pacc, ExaxisPos epos_p, int poffset_flag, DescPose offset_pos_p, JointPos joint_pos_t, DescPose desc_pos_t, int ttool, int tuser, double tvel, double tacc, ExaxisPos epos_t, int toffset_flag, DescPose offset_pos_t, double ovl, double blendR, double oacc, int velAccParamMode)

4.13. Cartesian Space Arc Motion (Added velAccParamMode parameter for velocity and acceleration modes)

New in version Java: SDK-v1.0.8-3.8.5

 1/**
 2* @brief  Cartesian Space Arc Motion (Added velAccParamMode parameter for velocity and acceleration modes)
 3* @param  [in] joint_pos_p  Path point joint position, unit deg
 4* @param  [in] desc_pos_p   Path point Cartesian pose
 5* @param  [in] ptool  Tool coordinate number, range [1~15]
 6* @param  [in] puser  Workpiece coordinate number, range [1~15]
 7* @param  [in] pvel  Velocity percentage, range [0~100]
 8* @param  [in] pacc  Acceleration percentage, range [0~100], not yet open
 9* @param  [in] epos_p  Extended axis position, unit mm
10* @param  [in] poffset_flag  0-No offset, 1-Offset in base/workpiece coordinate system, 2-Offset in tool coordinate system
11* @param  [in] offset_pos_p  Pose offset
12* @param  [in] joint_pos_t  Target point joint position, unit deg
13* @param  [in] desc_pos_t   Target point Cartesian pose
14* @param  [in] ttool  Tool coordinate number, range [1~15]
15* @param  [in] tuser  Workpiece coordinate number, range [1~15]
16* @param  [in] tvel  Velocity percentage, range [0~100]
17* @param  [in] tacc  Acceleration percentage, range [0~100], not yet open
18* @param  [in] epos_t  Extended axis position, unit mm
19* @param  [in] toffset_flag  0-No offset, 1-Offset in base/workpiece coordinate system, 2-Offset in tool coordinate system
20* @param  [in] offset_pos_t  Pose offset
21* @param  [in] ovl  Velocity scaling factor, range [0~100]
22* @param  [in] blendR [-1.0]-Motion complete (blocking), [0~1000.0]-Blending radius (non-blocking), unit mm
23* @param  [in] velAccParamMode Velocity and acceleration parameter mode; 0-Percentage; 1-Physical velocity (mm/s) and acceleration (mm/s^2)
24* @return  Error code
25*/
26public int MoveC(JointPos joint_pos_p, DescPose desc_pos_p, int ptool, int puser, double pvel, double pacc, ExaxisPos epos_p, int poffset_flag, DescPose offset_pos_p, JointPos joint_pos_t, DescPose desc_pos_t, int ttool, int tuser, double tvel, double tacc, ExaxisPos epos_t, int toffset_flag, DescPose offset_pos_t, double ovl, double blendR, int velAccParamMode)

4.14. Cartesian Space Arc Motion (Overload Function 1, No Joint Position Input Required)

New in version Java: SDK-v1.0.8-3.8.5

 1/**
 2* @brief  Cartesian Space Arc Motion (Overload Function 1, No Joint Position Input Required)
 3* @param  [in] desc_pos_p   Path point Cartesian pose
 4* @param  [in] ptool  Tool coordinate number, range [1~15]
 5* @param  [in] puser  Workpiece coordinate number, range [1~15]
 6* @param  [in] pvel  Velocity percentage, range [0~100]
 7* @param  [in] pacc  Acceleration percentage, range [0~100], not yet open
 8* @param  [in] epos_p  Extended axis position, unit mm
 9* @param  [in] poffset_flag  0-No offset, 1-Offset in base/workpiece coordinate system, 2-Offset in tool coordinate system
10* @param  [in] offset_pos_p  Pose offset
11* @param  [in] desc_pos_t   Target point Cartesian pose
12* @param  [in] ttool  Tool coordinate number, range [1~15]
13* @param  [in] tuser  Workpiece coordinate number, range [1~15]
14* @param  [in] tvel  Velocity percentage, range [0~100]
15* @param  [in] tacc  Acceleration percentage, range [0~100], not yet open
16* @param  [in] epos_t  Extended axis position, unit mm
17* @param  [in] toffset_flag  0-No offset, 1-Offset in base/workpiece coordinate system, 2-Offset in tool coordinate system
18* @param  [in] offset_pos_t  Pose offset
19* @param  [in] ovl  Velocity scaling factor, range [0~100]
20* @param  [in] blendR [-1.0]-Motion complete (blocking), [0~1000.0]-Blending radius (non-blocking), unit mm
21* @param  [in] config Inverse kinematic joint space configuration, [-1]-Reference current joint position for calculation, [0~7]-Solve based on specific joint space configuration
22* @param  [in] velAccParamMode Velocity and acceleration parameter mode; 0-Percentage; 1-Physical velocity (mm/s) and acceleration (mm/s^2)
23* @return  Error code
24*/
25public int MoveC(DescPose desc_pos_p, int ptool, int puser, double pvel, double pacc, ExaxisPos epos_p, int poffset_flag, DescPose offset_pos_p, DescPose desc_pos_t, int ttool, int tuser, double tvel, double tacc, ExaxisPos epos_t, int toffset_flag, DescPose offset_pos_t, double ovl, double blendR, int config, int velAccParamMode)

4.15. Cartesian space full circle movement

Changed in version Java: SDK-v1.0.6-3.8.3

 1/**
 2* @brief  Cartesian Space Full Circle Motion
 3* @param  joint_pos_p  Path point 1 joint positions, unit: deg
 4* @param  desc_pos_p   Path point 1 Cartesian pose
 5* @param  ptool  Tool coordinate system index, range [1~15]
 6* @param  puser  Workpiece/User coordinate system index, range [1~15]
 7* @param  pvel  Velocity percentage, range [0~100]
 8* @param  pacc  Acceleration percentage, range [0~100], currently unavailable
 9* @param  epos_p  Extended axis position, unit: mm
10* @param  joint_pos_t  Path point 2 joint positions, unit: deg
11* @param  desc_pos_t   Path point 2 Cartesian pose
12* @param  ttool  Tool coordinate system index, range [1~15]
13* @param  tuser  Workpiece/User coordinate system index, range [1~15]
14* @param  tvel  Velocity percentage, range [0~100]
15* @param  tacc  Acceleration percentage, range [0~100], currently unavailable
16* @param  epos_t  Extended axis position, unit: mm
17* @param  ovl  Velocity scaling factor [0~100] / Physical velocity (mm/s)
18* @param  offset_flag  0-No offset, 1-Offset in base/workpiece coordinate system, 2-Offset in tool coordinate system
19* @param  offset_pos  Pose offset value
20* @param  oacc Acceleration scaling factor [0-100] / Physical acceleration (mm/s²)
21* @param  blendR -1: Blocking; 0~1000: Blend radius
22* @param  velAccParamMode Velocity/acceleration parameter mode; 0-Percentage; 1-Physical velocity (mm/s) and acceleration (mm/s²)
23* @return  Error code
24*/
25public int Circle(JointPos joint_pos_p, DescPose desc_pos_p, int ptool, int puser, double pvel, double pacc, ExaxisPos epos_p, JointPos joint_pos_t, DescPose desc_pos_t, int ttool, int tuser, double tvel, double tacc, ExaxisPos epos_t, double ovl, int offset_flag, DescPose offset_pos, double oacc, double blendR, int velAccParamMode)

4.16. Cartesian space full circle motion (automatic inverse kinematics calculation)

New in version Java: SDK-v1.0.8-3.8.5

 1/**
 2* @brief Cartesian space full circle motion (automatic inverse kinematics calculation)
 3* @param [in] desc_pos_p  Path point 1 cartesian pose
 4* @param [in] ptool  Tool coordinate number, range [0~14]
 5* @param [in] puser  Workpiece coordinate number, range [0~14]
 6* @param [in] pvel  Velocity percentage, range [0~100]
 7* @param [in] pacc  Acceleration percentage, range [0~100], not open yet
 8* @param [in] epos_p  Extended axis position, unit mm
 9* @param [in] desc_pos_t  Path point 2 cartesian pose
10* @param [in] ttool  Tool coordinate number, range [0~14]
11* @param [in] tuser  Workpiece coordinate number, range [0~14]
12* @param [in] tvel  Velocity percentage, range [0~100]
13* @param [in] tacc  Acceleration percentage, range [0~100], not open yet
14* @param [in] epos_t  Extended axis position, unit mm
15* @param [in] ovl  Velocity scaling factor, range [0~100]
16* @param [in] offset_flag  0-no offset, 1-offset in base/workpiece coordinate system, 2-offset in tool coordinate system
17* @param [in] offset_pos  Pose offset
18* @param [in] oacc Acceleration percentage
19* @param [in] blendR -1: blocking; 0~1000: smoothing radius
20* @param [in] config Inverse kinematics joint space configuration, [-1]-calculate based on current joint position, [0~7]-solve according to specific joint space configuration
21* @return Error code
22*/
23int Circle(DescPose desc_pos_p, int ptool, int puser, double pvel, double pacc, ExaxisPos epos_p, DescPose desc_pos_t, int ttool, int tuser, double tvel, double tacc, ExaxisPos epos_t, double ovl, int offset_flag, DescPose offset_pos, double oacc, double blendR,int config)

4.17. Cartesian Space Full Circle Motion (Added velAccParamMode parameter for velocity and acceleration modes)

New in version Java: SDK-v1.0.8-3.8.5

 1/**
 2*@brief  Cartesian Space Full Circle Motion (Added velAccParamMode parameter for velocity and acceleration modes)
 3*@param  [in] joint_pos_p  Path point 1 joint position, unit deg
 4*@param  [in] desc_pos_p   Path point 1 Cartesian pose
 5*@param  [in] ptool  Tool coordinate number, range [1~15]
 6*@param  [in] puser  Workpiece coordinate number, range [1~15]
 7*@param  [in] pvel  Velocity percentage, range [0~100]
 8*@param  [in] pacc  Acceleration percentage, range [0~100], not yet open
 9*@param  [in] epos_p  Extended axis position, unit mm
10*@param  [in] joint_pos_t  Path point 2 joint position, unit deg
11*@param  [in] desc_pos_t   Path point 2 Cartesian pose
12*@param  [in] ttool  Tool coordinate number, range [1~15]
13*@param  [in] tuser  Workpiece coordinate number, range [1~15]
14*@param  [in] tvel  Velocity percentage, range [0~100]
15*@param  [in] tacc  Acceleration percentage, range [0~100], not yet open
16*@param  [in] epos_t  Extended axis position, unit mm
17*@param  [in] ovl  Velocity scaling factor, range [0~100]
18*@param  [in] offset_flag  0-No offset, 1-Offset in base/workpiece coordinate system, 2-Offset in tool coordinate system
19*@param  [in] offset_pos  Pose offset
20*@param  [in] oacc Acceleration percentage
21*@param  [in] blendR -1: Blocking; 0~1000: Blending radius
22*@param  [in] velAccParamMode Velocity and acceleration parameter mode; 0-Percentage; 1-Physical velocity (mm/s) and acceleration (mm/s^2)
23*@return  Error code
24*/
25public int Circle(JointPos joint_pos_p, DescPose desc_pos_p, int ptool, int puser, double pvel, double pacc, ExaxisPos epos_p, JointPos joint_pos_t, DescPose desc_pos_t, int ttool, int tuser, double tvel, double tacc, ExaxisPos epos_t, double ovl, int offset_flag, DescPose offset_pos, double oacc, double blendR, int velAccParamMode)

4.18. Cartesian Space Full Circle Motion (Overload Function 1, No Joint Position Input Required)

New in version Java: SDK-v1.0.8-3.8.5

 1/**
 2* @brief  Cartesian Space Full Circle Motion (Overload Function 1, No Joint Position Input Required)
 3* @param  [in] desc_pos_p   Path point 1 Cartesian pose
 4* @param  [in] ptool  Tool coordinate number, range [0~14]
 5* @param  [in] puser  Workpiece coordinate number, range [0~14]
 6* @param  [in] pvel  Velocity percentage, range [0~100]
 7* @param  [in] pacc  Acceleration percentage, range [0~100], not yet open
 8* @param  [in] epos_p  Extended axis position, unit mm
 9* @param  [in] desc_pos_t   Path point 2 Cartesian pose
10* @param  [in] ttool  Tool coordinate number, range [0~14]
11* @param  [in] tuser  Workpiece coordinate number, range [0~14]
12* @param  [in] tvel  Velocity percentage, range [0~100]
13* @param  [in] tacc  Acceleration percentage, range [0~100], not yet open
14* @param  [in] epos_t  Extended axis position, unit mm
15* @param  [in] ovl  Velocity scaling factor, range [0~100]
16* @param  [in] offset_flag  0-No offset, 1-Offset in base/workpiece coordinate system, 2-Offset in tool coordinate system
17* @param  [in] offset_pos  Pose offset
18* @param  [in] oacc Acceleration percentage
19* @param  [in] blendR -1: Blocking; 0~1000: Blending radius
20* @param  [in] config Inverse kinematic joint space configuration, [-1]-Reference current joint position for calculation, [0~7]-Solve based on specific joint space configuration
21* @param  [in] velAccParamMode Velocity and acceleration parameter mode; 0-Percentage; 1-Physical velocity (mm/s) and acceleration (mm/s^2)
22* @return  Error code
23*/
24public int Circle(DescPose desc_pos_p, int ptool, int puser, double pvel, double pacc, ExaxisPos epos_p, DescPose desc_pos_t, int ttool, int tuser, double tvel, double tacc, ExaxisPos epos_t, double ovl, int offset_flag, DescPose offset_pos, double oacc, double blendR, int config, int velAccParamMode)

4.19. Cartesian space point-to-point movement

 1/**
 2* @brief Cartesian space point-to-point movement
 3* @param [in] desc_pos  Target cartesian pose or pose increment
 4* @param [in] tool  Tool coordinate number, range [0~14]
 5* @param [in] user  Workpiece coordinate number, range [0~14]
 6* @param [in] vel  Speed percentage, range [0~100]
 7* @param [in] acc  Acceleration percentage, range [0~100], not currently available
 8* @param [in] ovl  Speed scaling factor, range [0~100]
 9* @param [in] blendT [-1.0]-move to position (blocking), [0~500.0]-smoothing time (non-blocking) in ms
10* @param [in] config  Joint space configuration, [-1]-calculate with reference to current joint position, [0~7]-calculate with reference to specific joint space configuration, default -1
11* @return Error code
12*/
13int MoveCart(DescPose desc_pos, int tool, int user, double vel, double acc, double ovl, double blendT, int config);

4.20. Basic robot movement command code example

 1public static int TestMove(Robot robot)
 2{
 3    int rtn=-1;
 4    JointPos j1=new JointPos(-11.904, -99.669, 117.473, -108.616, -91.726, 74.256);
 5    JointPos j2=new JointPos(-45.615, -106.172, 124.296, -107.151, -91.282, 74.255);
 6    JointPos j3=new JointPos(-29.777, -84.536, 109.275, -114.075, -86.655, 74.257);
 7    JointPos j4=new JointPos(-31.154, -95.317, 94.276, -88.079, -89.740, 74.256);
 8    DescPose desc_pos1=new DescPose(-419.524, -13.000, 351.569, -178.118, 0.314, 3.833);
 9    DescPose desc_pos2=new DescPose(-321.222, 185.189, 335.520, -179.030, -1.284, -29.869);
10    DescPose desc_pos3=new DescPose(-487.434, 154.362, 308.576, 176.600, 0.268, -14.061);
11    DescPose desc_pos4=new DescPose(-443.165, 147.881, 480.951, 179.511, -0.775, -15.409);
12    DescPose offset_pos=new DescPose(0, 0, 0, 0, 0, 0);
13    ExaxisPos epos=new ExaxisPos(0, 0, 0, 0);
14    int tool = 0;
15    int user = 0;
16    double vel = 100.0;
17    double acc = 100.0;
18    double ovl = 100.0;
19    double oacc = 100.0;
20    double blendT = 0.0;
21    double blendR = 0.0;
22    int flag = 0;
23    int search = 0;
24    int blendMode = 0;
25    int velAccMode = 0;
26    robot.SetSpeed(20);
27    rtn = robot.MoveJ(j1, desc_pos1, tool, user, vel, acc, ovl, epos, blendT, flag, offset_pos);
28    System.out.printf("movej errcode:%d\n", rtn);
29    rtn = robot.MoveL(j2, desc_pos2, tool, user, vel, acc, ovl, blendR, blendMode, epos, search, flag, offset_pos, oacc, velAccMode,0,10);
30    System.out.printf("movel errcode:%d\n", rtn);
31    rtn = robot.MoveC(j3, desc_pos3, tool, user, vel, acc, epos, flag, offset_pos, j4, desc_pos4, tool, user, vel, acc, epos, flag, offset_pos, ovl, blendR, oacc, velAccMode);
32    System.out.printf("movec errcode:%d\n", rtn);
33    rtn = robot.MoveJ(j2, desc_pos2, tool, user, vel, acc, ovl, epos, blendT, flag, offset_pos);
34    System.out.printf("movej errcode:%d\n", rtn);
35    rtn = robot.Circle(j3, desc_pos3, tool, user, vel, acc, epos, j1, desc_pos1, tool, user, vel, acc, epos, ovl, flag, offset_pos, oacc, -1, velAccMode);
36    System.out.printf("circle errcode:%d\n", rtn);
37    rtn = robot.MoveCart(desc_pos4, tool, user, vel, acc, ovl, blendT, -1);
38    System.out.printf("MoveCart errcode:%d\n", rtn);
39    rtn = robot.MoveJ(j1, tool, user, vel, acc, ovl, epos, blendT, flag, offset_pos);
40    System.out.printf("movej errcode:%d\n", rtn);
41    rtn = robot.MoveL(desc_pos2, tool, user, vel, acc, ovl, blendR, blendMode, epos, search, flag, offset_pos, -1, velAccMode,0,10);
42    System.out.printf("movel errcode:%d\n", rtn);
43    rtn = robot.MoveC(desc_pos3, tool, user, vel, acc, epos, flag, offset_pos, desc_pos4, tool, user, vel, acc, epos, flag, offset_pos, ovl, blendR, -1, velAccMode);
44    System.out.printf("movec errcode:%d\n", rtn);
45    rtn = robot.MoveJ(j2, tool, user, vel, acc, ovl, epos, blendT, flag, offset_pos);
46    System.out.printf("movej errcode:%d\n", rtn);
47    rtn = robot.Circle(desc_pos3, tool, user, vel, acc, epos, desc_pos1, tool, user, vel, acc, epos, ovl, flag, offset_pos, oacc, blendR, -1, velAccMode);
48    System.out.printf("circle errcode:%d\n", rtn);
49    return 0;
50}

4.21. Cartesian space spiral movement

 1/**
 2* @brief Cartesian space spiral movement
 3* @param [in] joint_pos  Target joint position in deg
 4* @param [in] desc_pos   Target cartesian pose
 5* @param [in] tool  Tool coordinate number, range [0~14]
 6* @param [in] user  Workpiece coordinate number, range [0~14]
 7* @param [in] vel  Speed percentage, range [0~100]
 8* @param [in] acc  Acceleration percentage, range [0~100], not currently available
 9* @param [in] epos  Extended axis position in mm
10* @param [in] ovl  Speed scaling factor, range [0~100]
11* @param [in] offset_flag  0-no offset, 1-offset in base/workpiece coordinate, 2-offset in tool coordinate
12* @param [in] offset_pos  Pose offset
13* @return Error code
14*/
15int NewSpiral(JointPos joint_pos, DescPose desc_pos, int tool, int user, double vel, double acc, ExaxisPos epos, double ovl, int offset_flag, DescPose offset_pos, SpiralParam spiral_param);

4.22. Cartesian space spiral motion (automatic inverse kinematics calculation)

New in version Java: SDK-v1.0.8-3.8.5

 1/**
 2* @brief Cartesian space spiral motion (automatic inverse kinematics calculation)
 3* @param [in] desc_pos  Target cartesian pose
 4* @param [in] tool  Tool coordinate number, range [0~14]
 5* @param [in] user  Workpiece coordinate number, range [0~14]
 6* @param [in] vel  Velocity percentage, range [0~100]
 7* @param [in] acc  Acceleration percentage, range [0~100], not open yet
 8* @param [in] epos  Extended axis position, unit mm
 9* @param [in] ovl  Velocity scaling factor, range [0~100]
10* @param [in] offset_flag  0-no offset, 1-offset in base/workpiece coordinate system, 2-offset in tool coordinate system
11* @param [in] offset_pos  Pose offset
12* @param [in] spiral_param  Spiral parameters
13* @param [in] config Inverse kinematics joint space configuration, [-1]-calculate based on current joint position, [0~7]-solve according to specific joint space configuration
14* @return Error code
15*/
16int NewSpiral(DescPose desc_pos, int tool, int user, double vel, double acc, ExaxisPos epos, double ovl, int offset_flag, DescPose offset_pos, SpiralParam spiral_param,int config)

4.23. Spiral movement code example

 1public static int TestSpiral(Robot robot)
 2{
 3    int rtn=-1;
 4    JointPos j=new JointPos(-11.904, -99.669, 117.473, -108.616, -91.726, 74.256);
 5    DescPose desc_pos=new DescPose(-419.524, -13.000, 351.569, -178.118, 0.314, 3.833);
 6    DescPose offset_pos1=new DescPose(50, 0, 0, -30, 0, 0);
 7    DescPose offset_pos2=new DescPose(50, 0, 0, -5, 0, 0);
 8    ExaxisPos epos=new ExaxisPos(0, 0, 0, 0);
 9    SpiralParam sp=new SpiralParam(1,5.0,50.0,10.0,10.0,0);
10
11    int tool = 0;
12    int user = 0;
13    double vel = 100.0;
14    double acc = 100.0;
15    double ovl = 100.0;
16    double blendT = 0.0;
17    int flag = 2;
18
19    rtn = robot.MoveJ(j, tool, user, vel, acc, ovl, epos, blendT, flag, offset_pos1);
20    System.out.println("movej errcode:"+ rtn);
21
22    rtn = robot.NewSpiral(desc_pos, tool, user, vel, acc, epos, ovl, flag, offset_pos2, sp,-1);
23    System.out.println("newspiral errcode:"+ rtn);
24
25    return 0;
26}

4.24. Servo Motion Start

1/**
2* @brief Start servo motion, used with ServoJ and ServoCart commands
3* @param comType Command sending type; 0-xmlrpc; 1-UDP (corresponding to robot port 20007)
4* @return Error code
5*/
6public int ServoMoveStart (int comType)

4.25. Servo Motion End

1/**
2* @brief End servo motion, used with ServoJ and ServoCart commands
3* @param comType Command sending type; 0-xmlrpc; 1-UDP (corresponding to robot port 20007)
4* @return Error code
5*/
6public int ServoMoveEnd (int comType)

4.26. Joint Space Servo Mode Motion

Changed in version Java: SDK-v1.0.6-3.8.3

 1/**
 2* @brief Joint space servo mode motion
 3* @param joint_pos Target joint position, unit deg
 4* @param axisPos External axis position, unit mm
 5* @param acc Acceleration percentage, range [0~100], temporarily not open, default is 0
 6* @param vel Velocity percentage, range [0~100], temporarily not open, default is 0
 7* @param cmdT Command sending period, unit s, recommended range [0.001~0.0016]
 8* @param filterT Filter time, unit s, temporarily not open, default is 0
 9* @param gain Proportional amplifier for target position, temporarily not open, default is 0
10* @param id ServoJ command ID, default is 0
11* @param comType Command sending type; 0-xmlrpc; 1-UDP (corresponding to robot port 20007)
12* @return Error code
13*/
14public int ServoJ(JointPos joint_pos, ExaxisPos axisPos, float acc, float vel, float cmdT, float filterT, float gain, int id, int comType)

4.27. UDP Communication-Based ServoJ, ServoMoveStart, ServoMoveEnd SDK Code Example

 1public static int TestServoJ(Robot robot)
 2{
 3    robot.udpCmdClient.SetUDPCmdRpyCallback((srcType, count, cmdID, dataLen, content) -> {
 4        System.out.println("\n[Received UDP reply from robot]");
 5        System.out.println("srcType: " + srcType);
 6        System.out.println("count: " + count);
 7        System.out.println("cmdID: " + cmdID);
 8        System.out.println("dataLen: " + dataLen);
 9        System.out.println("content: " + content);
10        return 0;
11    });
12    int rtn=-1;
13
14    JointPos j=new JointPos(0, 0, 0, 0, 0, 0);
15    ExaxisPos epos=new ExaxisPos(0, 0, 0, 0);
16
17    double vel = 0.0;
18    double acc = 0.0;
19    double cmdT = 0.016;
20    double filterT = 0.0;
21    double gain = 0.0;
22    int flag = 0;
23    int count = 300;
24    double dt = 0.1;
25    int cmdID = 0;
26    int comType = 1;
27    int ret = robot.GetActualJointPosDegree(j);
28    if (ret == 0)
29    {
30        robot.ServoMoveStart(comType);
31        count = 300;
32        while (count>0)
33        {
34            robot.ServoJ(j, epos, acc, vel, cmdT, filterT, gain, cmdID, comType);
35            j.J1 += dt;
36            j.J2 += dt;
37            j.J4 += dt;
38            j.J5 += dt;
39            j.J6 += dt;
40            epos.axis1 += dt;
41            count -= 1;
42            robot.Sleep(10);
43        }
44        robot.ServoMoveEnd(comType);
45
46        robot.Sleep(1000);
47        robot.ServoMoveStart(comType);
48        count = 300;
49        while (count>0)
50        {
51            robot.ServoJ(j, epos, acc, vel, cmdT, filterT, gain, cmdID, comType);
52            j.J1 -= dt;
53            j.J2 -= dt;
54            j.J4 -= dt;
55            j.J5 -= dt;
56            j.J6 -= dt;
57            epos.axis1 -= dt;
58            count -= 1;
59            robot.Sleep(10);
60        }
61        robot.ServoMoveEnd(comType);
62    }
63    else
64    {
65        System.out.println("GetActualJointPosDegree errcode:"+ ret);
66    }
67}

4.28. Joint space servo mode movement example program

 1public static void TestServoJ()
 2{
 3    Robot robot = new Robot();
 4    robot.SetReconnectParam(true,20,500);//Set reconnection times and interval
 5    robot.LoggerInit(FrLogType.DIRECT, FrLogLevel.INFO, "D://log", 10, 10);
 6    int rtn = robot.RPC("192.168.58.2");
 7    if(rtn == 0)
 8    {
 9        System.out.println("rpc connection success");
10    }
11    else
12    {
13        System.out.println("rpc connection fail");
14        return ;
15    }
16    JointPos j5 = new JointPos();
17    ExaxisPos ePos=new ExaxisPos();
18    int ret = robot.GetActualJointPosDegree(j5);
19    if (ret == 0)
20    {
21        int count = 200;
22        while (count > 0)
23        {
24            robot.ServoJ(j5, ePos,100, 100, 0.008, 0, 0);
25            j5.J1 += 0.2;//Joint 1 position increase
26            count -= 1;
27            robot.WaitMs((int)(8));
28        }
29    }
30}

4.29. Joint Torque Control Start

1/**
2* @brief Start joint torque control
3* @param comType Command sending type; 0-xmlrpc; 1-UDP (corresponding to robot port 20007)
4* @return Error code
5*/
6public int ServoJTStart (int comType)

4.30. Joint Torque Control

 1/**
 2* @brief Joint torque control
 3* @param torque j1~j6 joint torque, unit Nm
 4* @param interval Command period, unit s, range [0.001~0.008]
 5* @param checkFlag Detection strategy 0-no restriction; 1-power limitation; 2-velocity limitation; 3-both power and velocity limitation
 6* @param jPowerLimit Joint maximum power limit (W)
 7* @param jVelLimit Joint maximum velocity (°/s)
 8* @param comType Command sending type; 0-xmlrpc; 1-UDP (corresponding to robot port 20007)
 9* @return Error code
10*/
11public int ServoJT(double[] torque, double interval, int checkFlag, double[] jPowerLimit, double[] jVelLimit, int comType)

4.31. Joint Torque Control End

1/**
2* @brief End joint torque control
3* @param comType Command sending type; 0-xmlrpc; 1-UDP (corresponding to robot port 20007)
4* @return Error code
5*/
6public int ServoJTEnd (int comType)

4.32. Joint space servo mode movement example program

 1public static int TestServoJT(Robot robot)
 2{
 3
 4    robot.DragTeachSwitch(1);
 5    List<Number> joint_toq=new ArrayList<>();
 6    joint_toq=robot.GetJointTorques(1);
 7
 8    int count = 100;
 9    robot.ServoJTStart(); //   #servoJT start
10    int error = 0;
11    while (count > 0)
12    {
13        error = robot.ServoJT(torques, 0.001);
14        count = count - 1;
15        robot.Sleep(1);
16    }
17    error = robot.ServoJTEnd();
18    robot.DragTeachSwitch(0);
19
20    robot.CloseRPC();
21    return 0;
22}

4.33. UDP Communication-Based ServoJT, ServoJTStart, ServoJTEnd SDK Code Example

 1public static void ServoJTWithSafety(Robot robot)
 2{
 3    robot.udpCmdClient.SetUDPCmdRpyCallback((srcType, count, cmdID, dataLen, content) -> {
 4        System.out.println("\n[Received UDP reply from robot]");
 5        System.out.println("srcType: " + srcType);
 6        System.out.println("count: " + count);
 7        System.out.println("cmdID: " + cmdID);
 8        System.out.println("dataLen: " + dataLen);
 9        System.out.println("content: " + content);
10        return 0;
11    });
12    while (true) {
13        robot.ResetAllError();
14        robot.Sleep(500);
15        List<Number> torques;
16        torques=robot.GetJointTorques(1);
17        robot.ServoJTStart(1); //   #servoJT start
18        ROBOT_STATE_PKG pkg=new ROBOT_STATE_PKG();
19        robot.DragTeachSwitch(1);
20        int checkFlag = 3;//-1,3
21        double[] jPowerLimit = { 10.0, 10.0, 10.0, 10.0, 10.0, 10.0 };
22        double[] jVelLimit = { 50, 50, 50, 50, 50, 50};//180.1,-1
23        int count = 800000;
24        int error = 0;
25        int comType = 1;
26
27        double[] tor=new double[]{(double)torques.get(1),(double)torques.get(2),(double)torques.get(3),(double)torques.get(4),(double)torques.get(5),(double)torques.get(6)};
28
29        while (true) {
30            tor[0] = 0.08;//  #Increase axis 1 torque by 0.01 Nm each time, 100 movements
31            error = robot.ServoJT(tor, 0.01, checkFlag, jPowerLimit, jVelLimit, comType);  //# Joint space servo mode motion
32            System.out.printf("ServoJT rtn is %d\n", error);
33            count = count - 1;
34            robot.Sleep(1);
35            pkg = robot.GetRobotRealTimeState();
36            System.out.printf("maincode %d, subcode %d\n", pkg.main_code, pkg.sub_code);
37            if (pkg.jt_cur_pos[0] > 30)
38                break;
39        }
40
41        tor = new double[]{(double) torques.get(1), (double) torques.get(2), (double) torques.get(3), (double) torques.get(4), (double) torques.get(5), (double) torques.get(6)};
42        while (true) {
43            tor[0] = -0.08;//  #Decrease axis 1 torque by 0.01 Nm each time, 100 movements
44            error = robot.ServoJT(tor, 0.01, checkFlag, jPowerLimit, jVelLimit, 1);  //# Joint space servo mode motion
45            System.out.printf("ServoJT rtn is %d\n", error);
46            count = count - 1;
47            robot.Sleep(1);
48            pkg = robot.GetRobotRealTimeState();
49            System.out.printf("maincode %d, subcode %d\n", pkg.main_code, pkg.sub_code);
50            if (pkg.jt_cur_pos[0] < 0)
51                break;
52        }
53
54        robot.DragTeachSwitch(0);
55
56        error = robot.ServoJTEnd(1);  //#End servo motion
57    }
58}

4.34. Joint Torque Control Code Example with Overspeed Protection

 1public static void ServoJTWithSafety(Robot robot)
 2{
 3    robot.ResetAllError();
 4    robot.Sleep(500);
 5    List<Number> torques;
 6    torques = robot.GetJointTorques(1);
 7    robot.ServoJTStart(); // Start servoJT
 8    ROBOT_STATE_PKG pkg = new ROBOT_STATE_PKG();
 9    robot.DragTeachSwitch(1);
10    int checkFlag = 3; // -1,3 - Both power and velocity limits
11    // double[] jPowerLimit = {1.0,1.0,1.0,1.0,1.0,1.0}; // 5001
12    double[] jPowerLimit = { 10.0, 10.0, 10.0, 10.0, 10.0, 10.0 }; // Power limits for each joint (W)
13    double[] jVelLimit = { 50, 50, 50, 50, 50, 50 }; // 180.1,-1 - Velocity limits for each joint (°/s)
14    int count = 800000;
15    int error = 0;
16    double[] tor = new double[]{(double)torques.get(1), (double)torques.get(2), (double)torques.get(3),
17                               (double)torques.get(4), (double)torques.get(5), (double)torques.get(6)};
18    while (count > 0)
19    {
20        tor[2] = tor[2] + 0.01; // Increase torque of axis 1 by 0.01NM each time, moving 100 times
21        error = robot.ServoJT(tor, 0.01, checkFlag, jPowerLimit, jVelLimit); // Joint space servo mode motion
22        System.out.printf("ServoJT return is %d\n", error);
23        count = count - 1;
24        robot.Sleep(1);
25        pkg = robot.GetRobotRealTimeState();
26        System.out.printf("maincode %d, subcode %d\n", pkg.main_code, pkg.sub_code);
27    }
28    robot.DragTeachSwitch(0);
29    error = robot.ServoJTEnd(); // End servo motion
30}

4.35. Cartesian Space Servo Mode Motion

 1/**
 2* @brief Cartesian space servo mode motion
 3* @param mode 0-Absolute motion (base coordinate system), 1-Incremental motion (base coordinate system), 2-Incremental motion (tool coordinate system)
 4* @param desc_pose Target Cartesian pose or pose increment
 5* @param exaxis Extended axis position
 6* @param pos_gain Pose increment proportionality coefficient, only effective in incremental motion, range [0~1]
 7* @param acc Acceleration percentage, range [0~100], temporarily not available, default 0
 8* @param vel Velocity percentage, range [0~100], temporarily not available, default 0
 9* @param cmdT Command transmission period, unit s, recommended range [0.001~0.016]
10* @param filterT Filter time, unit s, temporarily not available, default 0
11* @param gain Proportional amplifier for target position, temporarily not available, default 0
12* @return Error code
13*/
14public int ServoCart(int mode, DescPose desc_pose, ExaxisPos exaxis, double[] pos_gain, double acc, double vel, double cmdT, double filterT, double gain)

4.36. Cartesian Space Servo Mode Motion Code Example

 1public static void TestServoCart1(Robot robot)
 2{
 3    DescPose desc_pos_dt = new DescPose(83.00800, 50.525000 , 29.246 , 179.629 , -7.138 , -166.975 );
 4    ExaxisPos exaxis = new ExaxisPos( 100.0, 0.0, 0.0, 0.0 );
 5    double[] pos_gain = { 0.0, 0.0, 0.0, 0.0, 0.0, 0.0 };
 6    int mode = 0;
 7    double vel = 0.0;
 8    double acc = 0.0;
 9    double cmdT = 0.001;
10    double filterT = 0.0;
11    double gain = 0.0;
12    int flag = 0;
13    int count = 5000;
14    robot.SetSpeed(20);
15    while (count>0)
16    {
17        int rtn = robot.ServoCart(mode, desc_pos_dt, exaxis, pos_gain, acc, vel, cmdT, filterT, gain);
18        System.out.printf("ServoCart rtn is %d\n", rtn);
19        count -= 1;
20        desc_pos_dt.tran.x += 0.01;
21        exaxis.axis1 += 0.01;
22    }
23    robot.CloseRPC();
24}

4.37. Spline movement start

1/**
2* @brief  Spline movement start
3* @return  Error code
4*/
5int SplineStart();

4.38. Joint movement PTP

 1/**
 2* @brief  Joint space spline movement
 3* @param  [in] joint_pos  Target joint position in deg
 4* @param  [in] desc_pos   Target cartesian pose
 5* @param  [in] tool  Tool coordinate number, range [0~14]
 6* @param  [in] user  Workpiece coordinate number, range [0~14]
 7* @param  [in] vel  Speed percentage, range [0~100]
 8* @param  [in] acc  Acceleration percentage, range [0~100], not currently available
 9* @param  [in] ovl  Speed scaling factor, range [0~100]
10* @return  Error code
11*/
12int SplinePTP(JointPos joint_pos, DescPose desc_pos, int tool, int user, double vel, double acc, double ovl);

4.39. Joint space spline motion (automatic forward kinematics calculation)

New in version Java: SDK-v1.0.8-3.8.5

 1/**
 2* @brief Joint space spline motion (automatic forward kinematics calculation)
 3* @param [in] joint_pos  Target joint position, unit deg
 4* @param [in] tool  Tool coordinate number, range [0~14]
 5* @param [in] user  Workpiece coordinate number, range [0~14]
 6* @param [in] vel  Velocity percentage, range [0~100]
 7* @param [in] acc  Acceleration percentage, range [0~100], not open yet
 8* @param [in] ovl  Velocity scaling factor, range [0~100]
 9* @return Error code
10*/
11int SplinePTP(JointPos joint_pos, int tool, int user, double vel, double acc, double ovl)

4.40. Spline movement end

1/**
2* @brief  Spline movement end
3* @return  Error code
4*/
5int SplineEnd();

4.41. Spline movement code example

 1public static int TestSpline(Robot robot)
 2{
 3    JointPos j1=new JointPos(-11.904, -99.669, 117.473, -108.616, -91.726, 74.256);
 4    JointPos j2=new JointPos(-45.615, -106.172, 124.296, -107.151, -91.282, 74.255);
 5    JointPos j3=new JointPos(-61.954, -84.409, 108.153, -116.316, -91.283, 74.260);
 6    JointPos j4=new JointPos(-89.575, -80.276, 102.713, -116.302, -91.284, 74.267);
 7    DescPose offset_pos=new DescPose(0, 0, 0, 0, 0, 0);
 8    ExaxisPos epos=new ExaxisPos(0, 0, 0, 0);
 9
10    int tool = 0;
11    int user = 0;
12    double vel = 100.0;
13    double acc = 100.0;
14    double ovl = 100.0;
15    double blendT = -1.0;
16    int flag = 0;
17
18    int err1 = robot.MoveJ(j1, tool, user, vel, acc, ovl, epos, blendT, flag, offset_pos);
19    System.out.println("movej errcode:"+ err1);
20    robot.SplineStart();
21    robot.SplinePTP(j1, tool, user, vel, acc, ovl);
22    robot.SplinePTP(j2, tool, user, vel, acc, ovl);
23    robot.SplinePTP(j3, tool, user, vel, acc, ovl);
24    robot.SplinePTP(j4, tool, user, vel, acc, ovl);
25    robot.SplineEnd();
26    return 0;
27}

4.42. New spline movement start

1/**
2* @brief New spline movement start
3* @param [in] type   0-circular transition, 1-given points as path points
4* @param [in] averageTime  Global average transition time(ms)(10 ~  ), default 2000
5* @return Error code
6*/
7int NewSplineStart(int type, int averageTime);

4.43. New spline command point

 1/**
 2* @brief Add spline movement command point
 3* @param [in] joint_pos  Target joint position in deg
 4* @param [in] desc_pos   Target cartesian pose
 5* @param [in] tool  Tool coordinate number, range [0~14]
 6* @param [in] user  Workpiece coordinate number, range [0~14]
 7* @param [in] vel  Speed percentage, range [0~100]
 8* @param [in] acc  Acceleration percentage, range [0~100], not currently available
 9* @param [in] ovl  Speed scaling factor, range [0~100]
10* @param [in] blendR [-1.0]-move to position (blocking), [0~1000.0]-smoothing radius (non-blocking) in mm
11* @param [in] lastFlag Whether it is the last point, 0-no, 1-yes
12* @return Error code
13*/
14int NewSplinePoint(JointPos joint_pos, DescPose desc_pos, int tool, int user, double vel, double acc, double ovl, double blendR, int lastFlag);

4.44. New spline command point (automatic inverse kinematics calculation)

New in version Java: SDK-v1.0.8-3.8.5

 1/**
 2* @brief New spline command point (automatic inverse kinematics calculation)
 3* @param [in] desc_pos  Target cartesian pose
 4* @param [in] tool  Tool coordinate number, range [0~14]
 5* @param [in] user  Workpiece coordinate number, range [0~14]
 6* @param [in] vel  Velocity percentage, range [0~100]
 7* @param [in] acc  Acceleration percentage, range [0~100], not open yet
 8* @param [in] ovl  Velocity scaling factor, range [0~100]
 9* @param [in] blendR [-1.0]-move to position (blocking), [0~1000.0]-smoothing radius (non-blocking), unit mm
10* @param [in] lastFlag Whether it is the last point, 0-no, 1-yes
11* @param [in] config Inverse kinematics joint space configuration, [-1]-calculate based on current joint position, [0~7]-solve according to specific joint space configuration
12* @return Error code
13*/
14int NewSplinePoint(DescPose desc_pos, int tool, int user, double vel, double acc, double ovl, double blendR, int lastFlag,int config)

4.45. New spline movement end

1/**
2* @brief New spline movement start
3* @return Error code
4*/
5int NewSplineEnd();

4.46. New spline movement code example

 1public static int TestNewSpline(Robot robot)
 2{
 3    JointPos j1=new JointPos(-11.904, -99.669, 117.473, -108.616, -91.726, 74.256);
 4    DescPose desc_pos1=new DescPose(-419.524, -13.000, 351.569, -178.118, 0.314, 3.833);
 5    DescPose desc_pos2=new DescPose(-321.222, 185.189, 335.520, -179.030, -1.284, -29.869);
 6    DescPose desc_pos3=new DescPose(-327.622, 402.230, 320.402, -178.067, 2.127, -46.207);
 7    DescPose desc_pos4=new DescPose(-104.066, 544.321, 327.023, -177.715, 3.371, -73.818);
 8    DescPose desc_pos5=new DescPose(-33.421, 732.572, 275.103, -177.907, 2.709, -79.482);
 9    DescPose offset_pos=new DescPose(0, 0, 0, 0, 0, 0);
10    ExaxisPos epos=new ExaxisPos(0, 0, 0, 0);
11
12
13    int tool = 0;
14    int user = 0;
15    double vel = 100.0;
16    double acc = 100.0;
17    double ovl = 100.0;
18    double blendT = -1.0;
19    int flag = 0;
20
21
22    int err1 = robot.MoveJ(j1, tool, user, vel, acc, ovl, epos, blendT, flag, offset_pos);
23    System.out.println("movej errcode:"+ err1);
24    robot.NewSplineStart(1, 2000);
25    robot.NewSplinePoint(desc_pos1, tool, user, vel, acc, ovl, -1, 0,-1);
26    robot.NewSplinePoint(desc_pos2, tool, user, vel, acc, ovl, -1, 0,-1);
27    robot.NewSplinePoint(desc_pos3, tool, user, vel, acc, ovl, -1, 0,-1);
28    robot.NewSplinePoint(desc_pos4, tool, user, vel, acc, ovl, -1, 0,-1);
29    robot.NewSplinePoint(desc_pos5, tool, user, vel, acc, ovl, -1, 0,-1);
30    robot.NewSplineEnd();
31    return 0;
32}

4.47. Stop movement

1/**
2* @brief Stop movement
3* @return  Error code
4*/
5int StopMotion();

4.48. Pause movement

1/**
2  * @brief Pause movement
3  * @return Error code
4*/
5int PauseMotion();

4.49. Resume movement

1/**
2* @brief Resume movement
3* @return Error code
4*/
5int ResumeMotion();

4.50. Movement pause, resume, stop code example

 1public static int TestPause(Robot robot)
 2{
 3    JointPos j1=new JointPos(-11.904, -99.669, 117.473, -108.616, -91.726, 74.256);
 4    JointPos j5=new JointPos(-95.228, -54.621, 73.691, -112.245, -91.280, 74.268);
 5    DescPose desc_pos1=new DescPose(-419.524, -13.000, 351.569, -178.118, 0.314, 3.833);
 6    DescPose desc_pos5=new DescPose(-33.421, 732.572, 275.103, -177.907, 2.709, -79.482);
 7    DescPose offset_pos=new DescPose(0, 0, 0, 0, 0, 0);
 8    ExaxisPos epos=new ExaxisPos(0, 0, 0, 0);
 9
10    int tool = 0;
11    int user = 0;
12    double vel = 100.0;
13    double acc = 100.0;
14    double ovl = 100.0;
15    double blendT = -1.0;
16    int flag = 0;
17
18    robot.SetSpeed(20);
19    int rtn=-1;
20    rtn = robot.MoveJ(j1, desc_pos1, tool, user, vel, acc, ovl, epos, blendT, flag, offset_pos);
21    rtn = robot.MoveJ(j5, desc_pos5, tool, user, vel, acc, ovl, epos, 1, flag, offset_pos);
22    robot.Sleep(1000);
23    robot.PauseMotion();
24
25    robot.Sleep(1000);
26    robot.ResumeMotion();
27
28    robot.Sleep(1000);
29    robot.StopMotion();
30
31    robot.Sleep(1000);
32
33    return 0;
34}

4.51. Point global offset start

1/**
2* @brief  Point global offset start
3* @param  [in]  flag  0-offset in base/workpiece coordinate, 2-offset in tool coordinate
4* @param  [in]  offset_pos  Pose offset
5* @return  Error code
6*/
7int PointsOffsetEnable(int flag, DescPose offset_pos);

4.52. Point global offset end

1/**
2* @brief  Point global offset end
3* @return  Error code
4*/
5int PointsOffsetDisable();

4.53. Point offset code example

 1public static int TestOffset(Robot robot)
 2{
 3    JointPos j1=new JointPos(-11.904, -99.669, 117.473, -108.616, -91.726, 74.256);
 4    JointPos j2=new JointPos(-45.615, -106.172, 124.296, -107.151, -91.282, 74.255);
 5
 6    DescPose desc_pos1=new DescPose(-419.524, -13.000, 351.569, -178.118, 0.314, 3.833);
 7    DescPose desc_pos2=new DescPose(-321.222, 185.189, 335.520, -179.030, -1.284, -29.869);
 8
 9    DescPose offset_pos=new DescPose(0, 0, 0, 0, 0, 0);
10    DescPose offset_pos1=new DescPose(0, 0, 50, 0, 0, 0);
11    ExaxisPos epos=new ExaxisPos(0, 0, 0, 0);
12
13    int tool = 0;
14    int user = 0;
15    double vel = 100.0;
16    double acc = 100.0;
17    double ovl = 100.0;
18    double blendT = -1.0;
19    int flag = 0;
20
21    robot.SetSpeed(20);
22
23    robot.MoveJ(j1, desc_pos1, tool, user, vel, acc, ovl, epos, blendT, flag, offset_pos);
24    robot.MoveJ(j2, desc_pos2, tool, user, vel, acc, ovl, epos, blendT, flag, offset_pos);
25    robot.Sleep(1000);
26    robot.PointsOffsetEnable(0, offset_pos1);
27    robot.MoveJ(j1, desc_pos1, tool, user, vel, acc, ovl, epos, blendT, flag, offset_pos);
28    robot.MoveJ(j2, desc_pos2, tool, user, vel, acc, ovl, epos, blendT, flag, offset_pos);
29    robot.PointsOffsetDisable();
30
31    return 0;
32}

4.54. Controller AO flying start

1/**
2* @brief Controller AO flying start
3* @param [in] AONum Controller AO number
4* @param [in] maxTCPSpeed Maximum TCP speed value[1-5000mm/s], default 1000
5* @param [in] maxAOPercent AO percentage corresponding to maximum TCP speed, default 100%
6* @param [in] zeroZoneCmp Dead zone compensation value AO percentage, integer, default 20%, range [0-100]
7* @return Error code
8*/
9int MoveAOStart(int AONum, int maxTCPSpeed, int maxAOPercent, int zeroZoneCmp);

4.55. Controller AO flying stop

1/**
2* @brief Controller AO flying stop
3* @return Error code
4*/
5int MoveAOStop();

4.56. End effector AO flying start

1/**
2* @brief End effector AO flying start
3* @param [in] AONum End effector AO number
4* @param [in] maxTCPSpeed Maximum TCP speed value[1-5000mm/s], default 1000
5* @param [in] maxAOPercent AO percentage corresponding to maximum TCP speed, default 100%
6* @param [in] zeroZoneCmp Dead zone compensation value AO percentage, integer, default 20%, range [0-100]
7* @return Error code
8*/
9int MoveToolAOStart(int AONum, int maxTCPSpeed, int maxAOPercent, int zeroZoneCmp);

4.57. End effector AO flying stop

1/**
2* @brief End effector AO flying stop
3* @return Error code
4*/
5int MoveToolAOStop();

4.58. AO flying code example

 1public static int TestMoveAO(Robot robot)
 2{
 3    JointPos j1=new JointPos(-11.904, -99.669, 117.473, -108.616, -91.726, 74.256);
 4    JointPos j2=new JointPos(-45.615, -106.172, 124.296, -107.151, -91.282, 74.255);
 5
 6    DescPose desc_pos1=new DescPose(-419.524, -13.000, 351.569, -178.118, 0.314, 3.833);
 7    DescPose desc_pos2=new DescPose(-321.222, 185.189, 335.520, -179.030, -1.284, -29.869);
 8
 9    DescPose offset_pos=new DescPose(0, 0, 0, 0, 0, 0);
10    DescPose offset_pos1=new DescPose(0, 0, 50, 0, 0, 0);
11    ExaxisPos epos=new ExaxisPos(0, 0, 0, 0);
12
13    int tool = 0;
14    int user = 0;
15    double vel = 20.0;
16    double acc = 20.0;
17    double ovl = 100.0;
18    double blendT = -1.0;
19    int flag = 0;
20
21    robot.SetSpeed(20);
22
23    robot.MoveAOStart(0, 100, 100, 20);
24    robot.MoveJ(j1, desc_pos1, tool, user, vel, acc, ovl, epos, blendT, flag, offset_pos);
25    robot.MoveJ(j2, desc_pos2, tool, user, vel, acc, ovl, epos, blendT, flag, offset_pos);
26    robot.MoveAOStop();
27
28    robot.Sleep(1000);
29
30    robot.MoveToolAOStart(0, 100, 100, 20);
31    robot.MoveJ(j1, desc_pos1, tool, user, vel, acc, ovl, epos, blendT, flag, offset_pos);
32    robot.MoveJ(j2, desc_pos2, tool, user, vel, acc, ovl, epos, blendT, flag, offset_pos);
33    robot.MoveToolAOStop();
34
35    return 0;
36}

4.59. Start Ptp movement FIR filtering

Changed in version Java: SDK-v1.0.5-3.8.2

1/**
2* @brief Start Ptp movement FIR filtering
3* @param [in] maxAcc Maximum acceleration limit (deg/s2)
4* @param [in] maxJek Unified joint jerk limit (deg/s3)
5* @return Error code
6*/
7int PtpFIRPlanningStart(double maxAcc,double maxJek);

4.60. Close Ptp movement FIR filtering

1/**
2* @brief Close Ptp movement FIR filtering
3* @return Error code
4*/
5int PtpFIRPlanningEnd();

4.61. Start LIN, ARC movement FIR filtering

1/**
2* @brief Start LIN, ARC movement FIR filtering
3* @param [in] maxAccLin Linear acceleration limit (mm/s2)
4* @param [in] maxAccDeg Angular acceleration limit (deg/s2)
5* @param [in] maxJerkLin Linear jerk limit (mm/s3)
6* @param [in] maxJerkDeg Angular jerk limit (deg/s3)
7* @return Error code
8*/
9int LinArcFIRPlanningStart(double maxAccLin, double maxAccDeg, double maxJerkLin, double maxJerkDeg);

4.62. Close LIN, ARC movement FIR filtering

1/**
2* @brief Close LIN, ARC movement FIR filtering
3* @return Error code
4*/
5int LinArcFIRPlanningEnd();

4.63. FIR filtering code example

 1public static int TestFIR(Robot robot)
 2{
 3    JointPos startjointPos=new JointPos(-11.904, -99.669, 117.473, -108.616, -91.726, 74.256);
 4    JointPos midjointPos=new JointPos(-45.615, -106.172, 124.296, -107.151, -91.282, 74.255);
 5    JointPos endjointPos=new JointPos(-29.777, -84.536, 109.275, -114.075, -86.655, 74.257);
 6
 7    DescPose startdescPose=new DescPose(-419.524, -13.000, 351.569, -178.118, 0.314, 3.833);
 8    DescPose middescPose=new DescPose(-321.222, 185.189, 335.520, -179.030, -1.284, -29.869);
 9    DescPose enddescPose=new DescPose(-487.434, 154.362, 308.576, 176.600, 0.268, -14.061);
10
11    ExaxisPos exaxisPos=new ExaxisPos(0, 0, 0, 0);
12    DescPose offdese=new DescPose(0, 0, 0, 0, 0, 0);
13
14    int rtn = robot.PtpFIRPlanningStart(1000, 1000);
15    robot.MoveJ(startjointPos, startdescPose, 0, 0, 100, 100, 100, exaxisPos, -1, 0, offdese);
16    robot.MoveJ(endjointPos, enddescPose, 0, 0, 100, 100, 100, exaxisPos, -1, 0, offdese);
17    robot.PtpFIRPlanningEnd();
18
19    robot.LinArcFIRPlanningStart(1000, 1000, 1000, 1000);
20    robot.MoveL(startjointPos, startdescPose, 0, 0, 100, 100, 100, -1, 0,exaxisPos, 0, 0, offdese, 1, 1);
21    robot.MoveC(midjointPos, middescPose, 0, 0, 100, 100, exaxisPos, 0, offdese, endjointPos, enddescPose, 0, 0, 100, 100, exaxisPos, 0, offdese, 100, -1);
22    robot.LinArcFIRPlanningEnd();
23    return 0;
24}

4.64. Acceleration smoothing enable

New in version Java: SDK-v1.0.4-3.8.1

1/**
2 * @brief Acceleration smoothing enable
3 * @param [in] saveFlag Whether to save after power off
4 * @return  Error code
5 */
6public int AccSmoothStart(boolean saveFlag)

4.65. Acceleration smoothing disable

New in version Java: SDK-v1.0.4-3.8.1

1/**
2 * @brief Acceleration smoothing disable
3 * @param [in] saveFlag Whether to save after power off
4 * @return  Error code
5 */
6public int AccSmoothEnd(boolean saveFlag)

4.66. Acceleration smoothing code example

 1public static int TestAccSmooth(Robot robot)
 2{
 3    JointPos startjointPos=new JointPos(-11.904, -99.669, 117.473, -108.616, -91.726, 74.256);
 4    JointPos endjointPos=new JointPos(-45.615, -106.172, 124.296, -107.151, -91.282, 74.255);
 5
 6    DescPose startdescPose=new DescPose(-419.524, -13.000, 351.569, -178.118, 0.314, 3.833);
 7    DescPose enddescPose=new DescPose(-321.222, 185.189, 335.520, -179.030, -1.284, -29.869);
 8
 9    ExaxisPos exaxisPos=new ExaxisPos(0, 0, 0, 0);
10    DescPose offdese=new DescPose(0,0,0,0,0,0);
11    int rtn = robot.AccSmoothStart(false);
12    robot.MoveJ(startjointPos, startdescPose, 0, 0, 100, 100, 100, exaxisPos, -1, 0, offdese);
13    robot.MoveJ(endjointPos, enddescPose, 0, 0, 100, 100, 100, exaxisPos, -1, 0, offdese);
14    rtn = robot.AccSmoothEnd(false);
15
16    robot.CloseRPC();
17    return 0;
18}

4.67. Specified pose speed enable

1/**
2 * @brief Specified pose speed enable
3 * @param [in] ratio Pose speed percentage [0-300]
4 * @return  Error code
5 */
6int AngularSpeedStart(int ratio)

4.68. Specified pose speed disable

1/**
2 * @brief Specified pose speed disable
3 * @return  Error code
4 */
5int AngularSpeedEnd();

4.69. Robot specified pose speed code example

 1public static int TestAngularSpeed(Robot robot)
 2{
 3    JointPos startjointPos=new JointPos(-11.904, -99.669, 117.473, -108.616, -91.726, 74.256);
 4    JointPos endjointPos=new JointPos(-45.615, -106.172, 124.296, -107.151, -91.282, 74.255);
 5
 6    DescPose startdescPose=new DescPose(-419.524, -13.000, 351.569, -178.118, 0.314, 3.833);
 7    DescPose enddescPose=new DescPose(-321.222, 185.189, 335.520, -179.030, -1.284, -29.869);
 8
 9    ExaxisPos exaxisPos=new ExaxisPos(0, 0, 0, 0);
10    DescPose offdese=new DescPose(0, 0, 0, 0, 0, 0);
11    int rtn = robot.AngularSpeedStart(50);
12    robot.MoveJ(startjointPos, startdescPose, 0, 0, 100, 100, 100, exaxisPos, -1, 0, offdese);
13    robot.MoveJ(endjointPos, enddescPose, 0, 0, 100, 100, 100, exaxisPos, -1, 0, offdese);
14    rtn = robot.AngularSpeedEnd();
15
16    return 0;
17}

4.70. Start singular pose protection

1/**
2* @brief  Start singular pose protection
3* @param  [in]  protectMode Singular protection mode, 0: joint mode; 1-cartesian mode
4* @param  [in]  minShoulderPos Shoulder singular adjustment range(mm), default 100
5* @param  [in]  minElbowPos Elbow singular adjustment range(mm), default 50
6* @param  [in]  minWristPos Wrist singular adjustment range(°), default 10
7* @return  Error code
8*/
9int SingularAvoidStart(int protectMode, double minShoulderPos, double minElbowPos, double minWristPos);

4.71. Stop singular pose protection

1/**
2* @brief  Stop singular pose protection
3* @return  Error code
4*/
5int SingularAvoidEnd();

4.72. Robot singular pose protection code example

 1public static int TestAngularSpeed(Robot robot)
 2{
 3    JointPos startjointPos=new JointPos(-11.904, -99.669, 117.473, -108.616, -91.726, 74.256);
 4    JointPos endjointPos=new JointPos(-45.615, -106.172, 124.296, -107.151, -91.282, 74.255);
 5
 6    DescPose startdescPose=new DescPose(-419.524, -13.000, 351.569, -178.118, 0.314, 3.833);
 7    DescPose enddescPose=new DescPose(-321.222, 185.189, 335.520, -179.030, -1.284, -29.869);
 8
 9    ExaxisPos exaxisPos=new ExaxisPos(0, 0, 0, 0);
10    DescPose offdese=new DescPose(0, 0, 0, 0, 0, 0);
11    int rtn = robot.AngularSpeedStart(50);
12    robot.MoveJ(startjointPos, startdescPose, 0, 0, 100, 100, 100, exaxisPos, -1, 0, offdese);
13    robot.MoveJ(endjointPos, enddescPose, 0, 0, 100, 100, 100, exaxisPos, -1, 0, offdese);
14    rtn = robot.AngularSpeedEnd();
15
16    return 0;
17}

4.73. Clear Motion Command Queue

1/**
2* @brief Clears the motion command queue
3* @return Error code
4*/
5public int MotionQueueClear()

4.74. Move to Intersecting Line Start Point

 1/**
 2* @brief Move to intersecting line start point
 3* @param [in] mainPoint Cartesian poses of 6 taught points on the main pipe
 4* @param [in] mainExaxisPos Extended axis positions for 6 taught points on the main pipe
 5* @param [in] piecePoint Cartesian poses of 6 taught points on the branch pipe
 6* @param [in] pieceExaxisPos Extended axis positions for 6 taught points on the branch pipe
 7* @param [in] extAxisFlag Whether to enable extended axis; 0-Disable; 1-Enable
 8* @param [in] exaxisPos Start point extended axis position
 9* @param [in] tool Tool coordinate system number
10* @param [in] wobj Workpiece coordinate system number
11* @param [in] vel Velocity percentage
12* @param [in] acc Acceleration percentage
13* @param [in] ovl Velocity scaling factor
14* @param [in] oacc Acceleration scaling factor
15* @param [in] moveType Motion type; 0-PTP; 1-LIN
16* @param [in] moveDirection Motion direction; 0-Clockwise; 1-Counterclockwise
17* @param [in] offset Offset value
18* @return Error code
19*/
20public int MoveToIntersectLineStart(DescPose[] mainPoint, ExaxisPos[] mainExaxisPos, DescPose[] piecePoint, ExaxisPos[] pieceExaxisPos, int extAxisFlag, ExaxisPos exaxisPos, int tool, int wobj, double vel, double acc, double ovl, double oacc, int moveType, int moveDirection, DescPose offset);

4.75. Intersecting Line Motion

 1/**
 2* @brief Intersecting line motion
 3* @param [in] mainPoint Cartesian poses of 6 taught points on the main pipe
 4* @param [in] mainExaxisPos Extended axis positions for 6 taught points on the main pipe
 5* @param [in] piecePoint Cartesian poses of 6 taught points on the branch pipe
 6* @param [in] pieceExaxisPos Extended axis positions for 6 taught points on the branch pipe
 7* @param [in] extAxisFlag Whether to enable extended axis; 0-Disable; 1-Enable
 8* @param [in] exaxisPos Start point extended axis positions
 9* @param [in] tool Tool coordinate system number
10* @param [in] wobj Workpiece coordinate system number
11* @param [in] vel Velocity percentage
12* @param [in] acc Acceleration percentage
13* @param [in] ovl Velocity scaling factor
14* @param [in] oacc Acceleration scaling factor
15* @param [in] moveDirection Motion direction; 0-Clockwise; 1-Counterclockwise
16* @param [in] offset Offset value
17* @return Error code
18*/
19public int MoveIntersectLine(DescPose[] mainPoint, ExaxisPos[] mainExaxisPos, DescPose[] piecePoint, ExaxisPos[] pieceExaxisPos, int extAxisFlag, ExaxisPos[] exaxisPos, int tool, int wobj, double vel, double acc, double ovl, double oacc, int moveDirection, DescPose offset);

4.76. Robot Intersecting Line Motion Code Example

 1public static void TestIntersectLineMove(Robot robot)
 2{
 3    DescPose[] mainPoint = new DescPose[6];
 4    DescPose[] piecePoint = new DescPose[6];
 5    ExaxisPos[] mainExaxisPos = new ExaxisPos[6];
 6    ExaxisPos[] pieceExaxisPos = new ExaxisPos[6];
 7    int extAxisFlag = 1;
 8    ExaxisPos[] exaxisPos = new ExaxisPos[4];
 9    DescPose offset =new DescPose(0.0, 2.0 ,30.0, -2.0, 0.0, 0.0 );
10    mainPoint[0] = new DescPose(490.004, -383.194, 402.735, -9.332, -1.528, 69.594);
11    mainPoint[1] = new DescPose(444.950, -407.117, 389.011, -5.546, -2.196, 65.279);
12    mainPoint[2] = new DescPose(445.168, -463.605, 355.759, -1.544, -10.886, 57.104);
13    mainPoint[3] = new DescPose(507.529, -485.385, 343.013, -0.786, -4.834, 61.799);
14    mainPoint[4] = new DescPose(554.390, -442.647, 367.701, -4.761, -10.181, 64.925);
15    mainPoint[5] = new DescPose(532.552, -394.003, 396.467, -13.732, -13.592, 67.411);
16    mainExaxisPos[0] = new ExaxisPos(-29.996, 0.000, 0.000, 0.000 );
17    mainExaxisPos[1] = new ExaxisPos(-29.996, 0.000, 0.000, 0.000 );
18    mainExaxisPos[2] = new ExaxisPos(-29.996, 0.000, 0.000, 0.000 );
19    mainExaxisPos[3] = new ExaxisPos(-29.996, 0.000, 0.000, 0.000 );
20    mainExaxisPos[4] = new ExaxisPos(-29.996, 0.000, 0.000, 0.000 );
21    mainExaxisPos[5] = new ExaxisPos(-29.996, 0.000, 0.000, 0.000 );
22    piecePoint[0] = new DescPose( 505.571, -192.408, 316.759, 38.098, 37.051, 139.447);
23    piecePoint[1] =new DescPose(533.837, -201.558, 332.340, 34.644, 42.339, 137.748);
24    piecePoint[2] =new DescPose(530.386, -225.085, 373.808, 35.431, 45.111, 137.560);
25    piecePoint[3] =new DescPose(485.646, -229.195, 383.778, 33.870, 45.173, 137.064);
26    piecePoint[4] =new DescPose(460.551, -212.161, 354.256, 28.856, 45.602, 135.930);
27    piecePoint[5] =new DescPose(474.217, -197.124, 324.611, 42.469, 41.133, 148.167);
28    pieceExaxisPos[0] = new ExaxisPos( -29.996, -0.000, 0.000, 0.000);
29    pieceExaxisPos[1] = new ExaxisPos( -29.996, -0.000, 0.000, 0.000);
30    pieceExaxisPos[2] = new ExaxisPos( -29.996, -0.000, 0.000, 0.000);
31    pieceExaxisPos[3] = new ExaxisPos( -29.996, -0.000, 0.000, 0.000);
32    pieceExaxisPos[4] = new ExaxisPos( -29.996, -0.000, 0.000, 0.000);
33    pieceExaxisPos[5] = new ExaxisPos( -29.996, -0.000, 0.000, 0.000);
34    exaxisPos[0] = new ExaxisPos(-29.996, -0.000, 0.000, 0.000);
35    exaxisPos[1] = new ExaxisPos(-44.994, 90.000, 0.000, 0.000);
36    exaxisPos[2] = new ExaxisPos(-59.992, 0.002, 0.000, 0.000);
37    exaxisPos[3] = new ExaxisPos(-44.994, -89.997, 0.000, 0.000);
38    int tool = 2;
39    int wobj = 0;
40    double vel = 100.0;
41    double acc = 100.0;
42    double ovl = 12.0;
43    double oacc = 12.0;
44    int moveType = 1;
45    int moveDirection = 1;
46    int  rtn = robot.MoveToIntersectLineStart(mainPoint, mainExaxisPos, piecePoint, pieceExaxisPos, extAxisFlag, exaxisPos[0], tool, wobj, vel, acc, ovl, oacc, moveType, moveDirection, offset);
47    System.out.printf("MoveToIntersectLineStart rtn is %d\n", rtn);
48    rtn = robot.MoveIntersectLine(mainPoint, mainExaxisPos, piecePoint, pieceExaxisPos, extAxisFlag, exaxisPos, tool, wobj, vel, acc, 5.0, 5.0, moveDirection, offset);
49    System.out.printf("MoveIntersectLine rtn is %d\n", rtn);
50    robot.CloseRPC();
51    return ;
52}

4.77. Stationary Air Motion

1/**
2* @brief Stationary Air Motion
3* @return Error code
4*/
5public int MoveStationary()

4.78. Stationary Air Motion Code Example

 1public static void test_RecordandReplay(Robot robot)
 2{
 3    int rtn = robot.LaserSensorRecordandReplay(0, 10, 1, 0, 0.1, 1, 1, 10, 100);
 4    System.out.printf("LaserSensorRecordandReplay rtn is %d\n", rtn);
 5    rtn = robot.MoveStationary();
 6    System.out.printf("MoveStationary rtn is %d\n", rtn);
 7    rtn = robot.LaserSensorRecord1(0, 10);
 8    System.out.printf("LaserSensorRecordandReplay rtn is %d\n", rtn);
 9    robot.CloseRPC();
10    robot.Sleep(9999999);
11}

4.79. Fixed-Point Swing Start

1/**
2* @brief Start fixed-point swing
3* @param [in] weaveNum Swing number [0-7]
4* @param [in] mode 0-Tool coordinate system; 1-Reference point
5* @param [in] refPoint Reference point Cartesian coordinates [x,y,z,a,b,c]
6* @param [in] weaveTime Swing time [s]
7* @return Error code
8*/
9public int OriginPointWeaveStart(int weaveNum, int mode, DescPose refPoint, double weaveTime)

4.80. Fixed-Point Swing End

1/**
2* @brief End fixed-point swing
3* @return Error code
4*/
5public int OriginPointWeaveEnd();

4.81. Fixed-Point Swing SDK Code Example

 1public static int TestOriginPointWeave(Robot robot) {
 2    JointPos j = new JointPos(39.886, -98.580, -124.032, -47.393, 90.000, 40.842);
 3    ExaxisPos epos = new ExaxisPos(0, 0, 0, 0);
 4    DescPose offset_pos = new DescPose(0, 0, 0, 0, 0, 0);
 5
 6    DescPose refPoint = new DescPose(400.021, 300.022, 299.996, 179.997, -0.003, -90.956);
 7    robot.MoveJ(j, 1, 0, 100, 100, 100.0, epos, -1.0, 0, offset_pos);
 8
 9    robot.OriginPointWeaveStart(0, 0, refPoint, 3);
10    robot.MoveStationary();
11    robot.OriginPointWeaveEnd();
12
13    robot.Sleep(2000);
14
15    robot.MoveJ(j, 1, 0, 100, 100, 100.0, epos, -1.0, 0, offset_pos);
16    robot.OriginPointWeaveStart(0, 1, refPoint, 3);
17    robot.MoveStationary();
18    robot.OriginPointWeaveEnd();
19
20    robot.Sleep(1000);
21    return 0;
22}

4.82. Fixed-Point Swing (Including Laser and Extension Axis) SDK Code Example

 1public static int TestOriginPointWeave(Robot robot) {
 2    JointPos j = new JointPos(39.886, -98.580, -124.032, -47.393, 90.000, 40.842);
 3    ExaxisPos epos1 = new ExaxisPos(0, 0, 0, 0);
 4    DescPose offset_pos = new DescPose(0, 0, 0, 0, 0, 0);
 5    ExaxisPos epos2 = new ExaxisPos(5, 0, 0, 0);
 6    DescPose refPoint = new DescPose(400.021, 300.022, 299.996, 179.997, -0.003, -90.956);
 7
 8    int rtn = 0;
 9    robot.LaserTrackingSensorConfig("192.168.58.20", 5020);
10    robot.LaserTrackingSensorSamplePeriod(20);
11    robot.LoadPosSensorDriver(101);
12
13    // Load UDP driver
14    robot.ExtDevLoadUDPDriver();
15
16    // Set extension axis command completion time
17    rtn = robot.SetExAxisCmdDoneTime(5000.0);
18    System.out.println("SetExAxisCmdDoneTime rtn is " + rtn);
19    // Enable extension axes 1 and 2
20    rtn = robot.ExtAxisServoOn(1, 1);
21    System.out.println("ExtAxisServoOn axis id 1 rtn is " + rtn);
22    rtn = robot.ExtAxisServoOn(2, 1);
23    System.out.println("ExtAxisServoOn axis id 2 rtn is " + rtn);
24    robot.Sleep(2000);
25
26    // Set extension axis homing
27    robot.ExtAxisSetHoming(1, 0, 10, 2);
28    robot.LaserTrackingLaserOnOff(1,0);
29
30
31    // 1---Without extension axis
32    robot.LaserTrackingTrackOnOff(1, 4);
33    robot.Sleep(200);
34    // Start fixed-point swing
35    robot.OriginPointWeaveStart(0, 0, refPoint, 10);
36    robot.MoveStationary();   // Execute stationary motion (assuming this method exists)
37    robot.OriginPointWeaveEnd();
38    robot.LaserTrackingTrackOnOff(0, 4);
39
40    robot.Sleep(2000);         // Wait 2 seconds
41
42    // 2----With extension axis
43    robot.ExtAxisMove(epos1, 100, -1);
44    robot.LaserTrackingTrackOnOff(1, 4);
45    // Start fixed-point swing
46    robot.OriginPointWeaveStart(0, 0, refPoint, 20);
47    robot.ExtAxisMove(epos2, 100, -1);
48    robot.OriginPointWeaveEnd();
49    robot.LaserTrackingTrackOnOff(0, 4);
50
51    robot.Sleep(1000);
52    return 0;
53}