﻿ Multiaxis circle movement <MULTIARC>

# Multiaxis circle movement <MULTIARC>

<MULTIARC> movement command defines a circular arc passing through three points with a predetermined orientation of the tool in space for each of these points. The figure below SP - starting position in which the tool was before running the command, MP - an intermediate position of the tool at the arc, EP - end position of the tool.

Command:

MULTIARC   EPX ep.X, EPY ep.Y, EPZ ep.Z, EPRX ep.Rx, EPRY ep.Ry, EPRZ ep.Rz, EPRW ep.Rw, MPX mp.X, MPY mp.Y, MPZ mp.Z, MPRX mp.Rx, MPRY mp.Ry, MPRZ mp.Rz, MPRW mp.Rw)

Parameters:

 Параметр CLD массив Описание ep.X CLD[1] CLD.EPX Cartesian coordinates X, Y and Z of the arc end point ep.Y CLD[2] CLD.EPY ep.Z CLD[3] CLD.EPZ ep.Rx CLD[4] CLD.EPRX The parameters defining the orientation of the tool at the end point of the arc relative to the current coordinate system (fields RX, RY, RZ and RW). Depending on the configuration of the system (defined in the scheme of machine), the tool orientation can be specified by: Normal vector n = (RX, RY, RZ), Spatial angles of rotation around the coordinate axes - the Euler angles (notation of Euler angles, ie the sequence of rotations is also specified in the settings) A = RX, B = RY, C = RZ. Quaternion q = (RX, RY, RZ, RW). ep.Ry CLD[5] CLD.EPRY ep.Rz CLD[6] CLD.EPRZ ep.Rw CLD[7] CLD.EPRW mp.X CLD[8] CLD.MPX Cartesian coordinates X, Y and Z of the arc intermediate point mp.Y CLD[9] CLD.MPY mp.Z CLD[10] CLD.MPZ mp.Rx CLD[11] CLD.MPRX The parameters defining the orientation of the tool at the intermediate point of the arc relative to the current coordinate system (fields RX, RY, RZ and RW). Depending on the configuration of the system (defined in the scheme of machine), the tool orientation can be specified by: Normal vector n = (RX, RY, RZ), Spatial angles of rotation around the coordinate axes - the Euler angles (notation of Euler angles, ie the sequence of rotations is also specified in the settings) A = RX, B = RY, C = RZ. Quaternion q = (RX, RY, RZ, RW). mp.Ry CLD[12] CLD.MPRY mp.Rz CLD[13] CLD.MPRZ mp.Rw CLD[14] CLD.MPRW

Parameters available through the Cmd operator

 TCLDMultiArc: ComplexType Moving in a circular arc command defined by three points in space. EndPos: ComplexType Cmd.Ptr["EndPos"] - structure whose fields identify the location of tool at the end point of the circle. Axes: Array, Key="AxisID" Cmd.Ptr["EndPos.Axes"] - An array of structures such as Axis. One command may include movement along several axes, the position of each is stored in this array. Axis: ComplexType Cmd.Ptr["EndPos.Axes"].Item[Index] or Cmd.Ptr["EndPos.Axes()"] - Separate element of the Axes array. Contains information about moving on one machine axis. Access to the array elements can either by index or by key field. Here -  the key field value, which must match the AxisID field value. AxisID: String Cmd.Str["EndPos.Axes().AxisID"] - The identifier of the machine axis, for which the specified new position. Determined by the machine schema. Value: Double Cmd.Flt["EndPos.Axes().Value"] - The new position of the machine axis, in which it moves. Pos5D: ComplexType Cmd.Ptr["EndPos.Pos5D"] - structure containing the coordinates that define the final position of the tool in space. Determines not only the position of the tuning point of the tool (the fields X, Y and Z - cartesian coordinates), but also the orientation of the tool relative to the current coordinate system (fields NX, NY, NZ and NW). Depending on the configuration of the system (defined in the scheme of machine), the tool orientation can be specified by: Normal vector n = (NX, NY, NZ), Spatial angles of rotation around the coordinate axes - the Euler angles (notation of Euler angles, ie the sequence of rotations is also specified in the settings) A = NX, B = NY, C = NZ. Quaternion q = (NX, NY, NZ, NW). X: Double Cmd.Flt["EndPos.Pos5D.X"] - X cartesian coordinate of the tool tip position. Y: Double Cmd.Flt["EndPos.Pos5D.Y"] - Y cartesian coordinate of the tool tip position. Z: Double Cmd.Flt["EndPos.Pos5D.Z"] - Z cartesian coordinate of the tool tip position. NX: Double Cmd.Flt["EndPos.Pos5D.NX"] - depending on the system configuration may be the NX component of the tool normal vector, the rotation angle around one of the coordinate axis, or the coefficient of the quaternion. NY: Double Cmd.Flt["EndPos.Pos5D.NY"] - depending on the system configuration may be the NY component of the tool normal vector, the rotation angle around one of the coordinate axis, or the coefficient of the quaternion. NZ: Double Cmd.Flt["EndPos.Pos5D.NZ"] - depending on the system configuration may be the NZ component of the tool normal vector, the rotation angle around one of the coordinate axis, or the coefficient of the quaternion. NW: Double Cmd.Flt["EndPos.Pos5D.NW"] - if you have chosen a method of orientation tool in the form of a quaternion is a fourth coefficient of quaternion. MachineStateFlags: Integer Cmd.Ptr["EndPos.MachineStateFlags"].Bit[i], i=(0..31). Integer number which is a bit field of 32 bits from 0 to 31. If there are several variants for the location of the machine axes, providing a specified position of the tool in space, every bit of this field determines the selection of one of the possible solutions. For example, a five-axis machine with A and C axes for most of the positions of the tool has two possible solutions - with a positive A-axis and with negative value of the A axis. Zero bit of this field will choose one of these solutions. For a standard six-axis articulated robot many of the tool positions in space can be provided with different combinations of three of its key joints positions (the base, elbow and wrist joints) giving a total of 8 possible solutions. In this case, the zero bit in this field will determine the position of the base, the first bit - the position of the elbow, and the third bit will be set the position of the robot's wrist. Thus, the meaning of each of this bits is determined entirely by the used machine schema. When using machines that do not need to use these flags, it is possible to disable the output of this parameter to CLData in the machine scheme. MidPos: ComplexType Cmd.Ptr["MidPos"] - structure whose fields identify the location of tool at the intermediate point of the circle. Axes: Array, Key="AxisID" Cmd.Ptr["MidPos.Axes"] - An array of structures such as Axis. One command may include movement along several axes, the position of each is stored in this array. Axis: ComplexType Cmd.Ptr["MidPos.Axes"].Item[Index] or Cmd.Ptr["MidPos.Axes()"] - Separate element of the Axes array. Contains information about moving on one machine axis. Access to the array elements can either by index or by key field. Here -  the key field value, which must match the AxisID field value. AxisID: String Cmd.Str["MidPos.Axes().AxisID"] - The identifier of the machine axis, for which the specified new position. Determined by the machine schema. Value: Double Cmd.Flt["MidPos.Axes().Value"] - The new position of the machine axis, in which it moves. Pos5D: ComplexType Cmd.Ptr["MidPos.Pos5D"] - structure containing the coordinates that define the final position of the tool in space. Determines not only the position of the tuning point of the tool (the fields X, Y and Z - cartesian coordinates), but also the orientation of the tool relative to the current coordinate system (fields NX, NY, NZ and NW). Depending on the configuration of the system (defined in the scheme of machine), the tool orientation can be specified by: Normal vector n = (NX, NY, NZ), Spatial angles of rotation around the coordinate axes - the Euler angles (notation of Euler angles, ie the sequence of rotations is also specified in the settings) A = NX, B = NY, C = NZ. Quaternion q = (NX, NY, NZ, NW). X: Double Cmd.Flt["MidPos.Pos5D.X"] - X cartesian coordinate of the tool tip position. Y: Double Cmd.Flt["MidPos.Pos5D.Y"] - Y cartesian coordinate of the tool tip position. Z: Double Cmd.Flt["MidPos.Pos5D.Z"] - Z cartesian coordinate of the tool tip position. NX: Double Cmd.Flt["MidPos.Pos5D.NX"] - depending on the system configuration may be the NX component of the tool normal vector, the rotation angle around one of the coordinate axis, or the coefficient of the quaternion. NY: Double Cmd.Flt["MidPos.Pos5D.NY"] - depending on the system configuration may be the NY component of the tool normal vector, the rotation angle around one of the coordinate axis, or the coefficient of the quaternion. NZ: Double Cmd.Flt["MidPos.Pos5D.NZ"] - depending on the system configuration may be the NZ component of the tool normal vector, the rotation angle around one of the coordinate axis, or the coefficient of the quaternion. NW: Double Cmd.Flt["MidPos.Pos5D.NW"] - if you have chosen a method of orientation tool in the form of a quaternion is a fourth coefficient of quaternion. MachineStateFlags: Integer Cmd.Ptr["MidPos.MachineStateFlags"].Bit[i], i=(0..31). Integer number which is a bit field of 32 bits from 0 to 31. If there are several variants for the location of the machine axes, providing a specified position of the tool in space, every bit of this field determines the selection of one of the possible solutions. For example, a five-axis machine with A and C axes for most of the positions of the tool has two possible solutions - with a positive A-axis and with negative value of the A axis. Zero bit of this field will choose one of these solutions. For a standard six-axis articulated robot many of the tool positions in space can be provided with different combinations of three of its key joints positions (the base, elbow and wrist joints) giving a total of 8 possible solutions. In this case, the zero bit in this field will determine the position of the base, the first bit - the position of the elbow, and the third bit will be set the position of the robot's wrist. Thus, the meaning of each of this bits is determined entirely by the used machine schema. When using machines that do not need to use these flags, it is possible to disable the output of this parameter to CLData in the machine scheme. Time: Double The time of the movement in minutes.

The list of coordinates passed through CLData is defined by the SprutCAM machine scheme.