Basic Characteristics RAPID

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Using the argument \Conc, the number of movement instructions in succession is limited to 5. In a program section that includes StorePath-RestoPath, movement instructions with the argument \Conc are not permitted. If this argument is omitted, the subsequent instruction is only executed after the robot has reached the specified zone. CirPoint Data type: robtarget The circle point of the robot. The circle point is a position on the circle between the start point and the destination point. To obtain the best accuracy, it should be placed about halfway between the start and destination points. If it is placed too close to the start or destination point, the robot may give a warning. The circle point is defined as a named position or stored directly in the instruction (marked with an * in the instruction). The position of the external axes are not used. ToPoint Data type: robtarget The destination point of the robot and external axes. It is defined as a named position or stored directly in the instruction (marked with an * in the instruction). Speed Data type: speeddata The speed data that applies to movements. Speed data defines the velocity of the TCP, the tool reorientation and external axes. [ \V ] (Velocity) Data type: num This argument is used to specify the velocity of the TCP in mm/s directly in the instruction. It is then substituted for the corresponding velocity specified in the speed data. [ \T ] (Time) Data type: num This argument is used to specify the total time in seconds during which the robot and external axes move. It is then substituted for the corresponding speed data. Zone Data type: zonedata Zone data for the movement. Zone data describes the size of the generated corner path. [ \Z ] (Zone) Data type: num This argument is used to specify the position accuracy of the robot TCP directly in the instruction. The length of the corner path is given in mm, which is substituted for the corresponding zone specified in the zone data. Tool Data type: tooldata The tool in use when the robot moves. The tool centre point is the point that is moved to the specified destination point. 8-MoveC-2 <strong>RAPID</strong> Reference Manual
[ \WObj] (Work Object) Data type: wobjdata Program execution The work object (object coordinate system) to which the robot position in the instruction is related. This argument can be omitted, and if it is, the position is related to the world coordinate system. If, on the other hand, a stationary TCP or coordinated external axes are used, this argument must be specified in order for a circle relative to the work object to be executed. The robot and external units are moved to the destination point as follows: - The TCP of the tool is moved circularly at constant programmed velocity. - The tool is reoriented at a constant velocity from the orientation at the start position to the orientation at the destination point. - The reorientation is performed relative to the circular path. Thus, if the orientation relative to the path is the same at the start and the destination points, the relative orientation remains unchanged during the movement (see Figure 2). . Tool orientation Start point Figure 2 Tool orientation during circular movement. CirPoint ToPoint - The orientation at the circle point is not critical; it is only used to distinguish between two possible directions of reorientation. The accuracy of the reorientation along the path depends only on the orientation at the start and destination points. - Uncoordinated external axes are executed at constant velocity in order for them to arrive at the destination point at the same time as the robot axes. The position in the circle position is not used. If it is not possible to attain the programmed velocity for the reorientation or for the external axes, the velocity of the TCP will be reduced. A corner path is usually generated when movement is transferred to the next section of a path. If a stop point is specified in the zone data, program execution only continues when the robot and external axes have reached the appropriate position. <strong>RAPID</strong> Reference Manual 8-MoveC-3
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ABB Flexible Automation AB RAPID Re
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CONTENTS RAPID Reference Manual 1-1
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Page 11 Mathematics ...............
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Page 7.2 Logical expressions.......
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Page speeddata - Speed data .......
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Page SetAO - Changes the value of a
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Page ReadMotor - Reads the current
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Page 6 The Service Window..........
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A Abs 9-Abs-1 absolute value 9-Abs-
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H heat 13-seamdata-4 I I/O principl
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measuring system 8-IndReset-1 Resto
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CONTENTS Introduction 1 Other Manua
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Introduction 1 Other Manuals Introd
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Simplified syntax Example: 2.3 Form
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CONTENTS RAPID Summary 1 The Struct
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RAPID Summary 12.3 Principles of Sp
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RAPID Summary The Structure of the
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RAPID Summary Controlling the Progr
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RAPID Summary Various Instructions
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RAPID Summary Motion Settings 4.3 D
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RAPID Summary Motion Settings 4.10
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RAPID Summary Motion 5.2 Positionin
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RAPID Summary Motion 5.8 Position f
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RAPID Summary Input and Output Sign
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RAPID Summary Communication 7 Commu
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RAPID Summary Interrupts 8 Interrup
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RAPID Summary Error Recovery 9 Erro
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RAPID Summary System & Time 10 Syst
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RAPID Summary Mathematics 11.4 Arit
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RAPID Summary Spot Welding SpotWare
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RAPID Summary Spot Welding 12.5 Spo
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RAPID Summary Arc Welding 13.3 Arc
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RAPID Summary GlueWare 14.4 Glue da
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RAPID Summary Service Instructions
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RAPID Summary String Functions 17 S
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RAPID Summary Syntax Summary 18 Syn
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RAPID Summary Syntax Summary MoveL
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RAPID Summary Syntax Summary ClkRea
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CONTENTS Basic Characteristics RAPI
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Basic Characteristics RAPID Basic E
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Basic Characteristics RAPID Modules
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Basic Characteristics RAPID Routine
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Basic Characteristics RAPID Data Ty
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Basic Characteristics RAPID Data Fi
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Basic Characteristics RAPID Data Sy
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Basic Characteristics RAPID Instruc
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Basic Characteristics RAPID Express
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Basic Characteristics RAPID Error R
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Basic Characteristics RAPID Interru
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Basic Characteristics RAPID Backwar
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Basic Characteristics RAPID Multita
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CONTENTS Motion and I/O Principles
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Motion and I/O Principles Coordinat
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Motion and I/O Principles Positioni
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equired to obtain the same force. T
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3 Synchronization with logical inst
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Execution of SetDO p1 DT MoveL p1,
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The accuracy is ±2 ms. On the part
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Usually you want the robot to attai
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4.2 Related information Described i
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Singularity points/IRB 6400C Betwee
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6.2 System signals An output can be
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ool Logical values Description Exam
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clock Time measurement Description
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confdata Robot configuration data D
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Example Structure VAR confdata conf
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dionum Digital values 0 - 1 Descrip
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errnum Error number Description Exa
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Characteristics ERR_REFUNKFUN Refer
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extjoint Position of external joint
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intnum Interrupt identity Descripti
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iodev Serial channels and files Des
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jointtarget Joint position data Des
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loaddata Load data Description Comp
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Examples Limitations Predefined dat
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mecunit Mechanical unit Description
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motsetdata Motion settings data Des
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Example Predefined data IF C_MOTSET
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num Numeric values (registers) Desc
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o_jointtarget Original joint positi
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orient Orientation Description Comp
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Example 1 A tool is orientated so t
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o_robtarget Original position data
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pos Positions (only X, Y and Z) Des
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pose Coordinate transformations Des
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progdisp Program displacement Descr
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objoint Joint position of robot axe
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obtarget Position data Description
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Limitations Structure VAR robtarget
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signalxx Digital and analog signals
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speeddata Speed data Description Co
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Structure < dataobject of speeddata
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string Strings Description Example
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symnum Symbolic number Description
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tooldata Tool data Description Comp
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Examples Limitations Predefined dat
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triggdata Positioning events - trig
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tunetype Servo tune type Descriptio
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wobjdata Work object data Descripti
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Example Limitations Predefined data
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zonedata Zone data Description Zone
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P1 Components MoveL with 200 mm mov
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Predefined data Structure A number
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System Data System data is the inte
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“:=” Assigns a value Examples A
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AccSet Reduces the acceleration Exa
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ActUnit Activates a mechanical unit
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Add Adds a numeric value Examples A
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Break Break program execution Examp
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CallByVar Call a procedure by a var
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Clear Clears the value Example Argu
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ClkReset Resets a clock used for ti
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ClkStart Starts a clock used for ti
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ClkStop Stops a clock used for timi
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Close Closes a file or serial chann
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comment Comment Example Arguments C
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Compact IF If a condition is met, t
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ConfJ Controls the configuration du
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ConfL Monitors the configuration du
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CONNECT Connects an interrupt to a
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DeactUnit Deactivates a mechanical
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Decr Decrements by 1 Example Argume
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EOffsOff Deactivates an offset for
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EOffsOn Activates an offset for ext
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EOffsSet Activates an offset for ex
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ErrWrite Write an Error Message Exa
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EXIT Terminates program execution E
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FOR Repeats a given number of times
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Related information Described in: E
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GOTO Goes to a new instruction Exam
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GripLoad Defines the payload of the
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IDelete Cancels an interrupt Exampl
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IDisable Disables interrupts Exampl
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IEnable Enables interrupts Example
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IF If a condition is met, then ...;
Page 307 and 308: Incr Increments by 1 Example Argume
Page 309 and 310: IndAMove Independent Absolute posit
Page 311 and 312: Example Error handling Syntax ActUn
Page 313 and 314: IndCMove Independent Continuous Mov
Page 315 and 316: Error handling Syntax Axis 2 of Sta
Page 317 and 318: IndDMove Independent Delta position
Page 319 and 320: Example Error handling Syntax IndAM
Page 321 and 322: IndReset Independent Reset Example
Page 323 and 324: Limitations Example Error handling
Page 325 and 326: IndRMove Independent Relative posit
Page 327 and 328: Limitations Examples The speed can
Page 329 and 330: InvertDO Inverts the value of a dig
Page 331 and 332: ISignalDI Orders interrupts from a
Page 333 and 334: Syntax PROC main ( ) VAR intnum sig
Page 335 and 336: ISignalDO Interrupts from a digital
Page 337 and 338: Syntax PROC main ( ) VAR intnum sig
Page 339 and 340: ISleep Deactivates an interrupt Exa
Page 341 and 342: ITimer Orders a timed interrupt Exa
Page 343 and 344: IWatch Activates an interrupt Examp
Page 345 and 346: label Line name Example Arguments L
Page 347 and 348: Load Load a program module during e
Page 349 and 350: Related information Described in: U
Page 351 and 352: MoveAbsJMoves the robot to an absol
Page 353 and 354: Program execution Examples Error ha
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Page 357: MoveC Moves the robot circularly Ex
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Page 363 and 364: MoveJ Moves the robot by joint move
Page 365 and 366: Examples Syntax MoveJ *, v2000\V:=2
Page 367 and 368: MoveL Moves the robot linearly Exam
Page 369 and 370: Examples Syntax MoveL *, v2000 \V:=
Page 371 and 372: Open Opens a file or serial channel
Page 373 and 374: PDispOff Deactivates program displa
Page 375 and 376: PDispOn Activates program displacem
Page 377 and 378: Example at the two positions. The d
Page 379 and 380: PDispSet Activates program displace
Page 381 and 382: ProcCall Calls a new procedure Exam
Page 383 and 384: PulseDO Generates a pulse on a digi
Page 385 and 386: RAISE Calls an error handler Exampl
Page 387 and 388: Reset Resets a digital output signa
Page 389 and 390: RestoPath Restores the path after a
Page 391 and 392: RETRY Restarts following an error E
Page 393 and 394: RETURN Finishes execution of a rout
Page 395 and 396: SearchC Searches circularly using t
Page 397 and 398: [ \WObj] (Work Object) Data type: w
Page 399 and 400: Syntax SearchC [ ’\’ Stop’,
Page 401 and 402: SearchL Searches linearly using the
Page 403 and 404: Program execution Examples This arg
Page 405 and 406: Error handling Example An error is
Page 407 and 408: Set Sets a digital output signal Ex
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SetAO Changes the value of an analo
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SetDO Changes the value of a digita
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SetGO Changes the value of a group
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SingArea Defines interpolation arou
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SoftAct Activating the soft servo E
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SoftDeact Deactivating the soft ser
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StartMove Restarts robot motion Exa
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Stop Stops program execution Exampl
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StopMove Stops robot motion Example
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StorePath Stores the path when an i
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TEST Depending on the value of an e
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TPErase Erases text printed on the
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TPReadFK Reads function keys Exampl
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Syntax TPReadFK [Answer’:=’]
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TPReadNum Reads a number from the t
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TPWrite Writes on the teach pendant
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TriggC Circular robot movement with
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[ \WObj] (Work Object) Data type: w
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TriggEquip Defines a fixed position
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Program execution Examples If this
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TriggInt Defines a position related
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Examples Limitations The position r
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TriggIO Defines a fixed position I/
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Examples Limitations The distance s
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TriggJ Axis-wise robot movements wi
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Program execution Examples Limitati
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TriggL Linear robot movements with
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Program execution Examples Limitati
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TRYNEXT Jumps over an instruction w
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TuneReset Resetting servo tuning Ex
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TuneServo Tuning servos Description
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Example This argument can be omitte
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UnLoad UnLoad a program module duri
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Related information Described in: L
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VelSet Changes the programmed veloc
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WaitDI Waits until a digital input
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WaitDO Waits until a digital output
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WaitTime Waits a given amount of ti
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WaitUntil Waits until a condition i
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WHILE Repeats as long as ... Exampl
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Write Writes to a character-based f
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Error handling Syntax If an error o
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WriteBin Writes to a binary serial
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Abs Gets the absolute value Example
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ACos Calculates the arc cosine valu
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ASin Calculates the arc sine value
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ATan Calculates the arc tangent val
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ATan2 Calculates the arc tangent2 v
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CDate Reads the current date as a s
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CJointT Reads the current joint ang
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ClkRead Reads a clock used for timi
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Cos Calculates the cosine value Exa
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CPos Reads the current position (po
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CRobT Reads the current position (r
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CTime Reads the current time as a s
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CTool Reads the current tool data E
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CWObj Reads the current work object
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DefDFrame Define a displacement fra
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DefFrame Define a frame Example Def
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Syntax Other values, or if Origin i
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Dim Obtains the size of an array Ex
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DOutput Reads the value of a digita
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EulerZYX Gets Euler angles from ori
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Exp Calculates the exponential valu
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GetTime Reads the current time as a
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GOutput Reads the value of a group
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IndInpos Independent In position st
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IndSpeed Independent Speed status E
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IsPers Is Persistent Example IsPers
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IsVar Is Variable Example IsVar is
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MirPos Mirroring of a position Exam
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NumToStr Converts numeric value to
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Offs Displaces a robot position Exa
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OpMode Read the operating mode Exam
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OrientZYX Builds an orient from Eul
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ORobT Removes a program displacemen
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PoseInv Inverts the pose Example Po
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PoseMult Multiplies pose data Examp
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PoseVect Applies a transformation t
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Pow Calculates the power of a value
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Present Tests if an optional parame
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ReadBin Reads from a binary serial
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ReadMotor Reads the current motor a
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ReadNum Reads a number from a file
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ReadStr Reads a string from a file
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RelTool Make a displacement relativ
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Round Round is a numeric value Exam
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RunMode Read the running mode Examp
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Sin Calculates the sine value Examp
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Sqrt Calculates the square root val
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StrFind Searches for a character in
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StrLen Gets the string length Examp
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StrMap Maps a string Example StrMap
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StrMatch Search for pattern in stri
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StrMemb Checks if a character belon
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StrOrder Checks if strings are orde
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StrPart Finds a part of a string Ex
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StrToVal Converts a string to a val
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Tan Calculates the tangent value Ex
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TestDI Tests if a digital input is
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Trunc Truncates a numeric value Exa
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ValToStr Converts a value to a stri
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CONTENTS 1 System Module User .....
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1 System Module User 1.1 Contents I
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CONTENTS 1 Programming Off-line ...
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Programming Off-line 1 Programming
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• Create a new system module wher
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CONTENTS seamdata Seam data weaveda
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seamdata Seam data Description Seam
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Components Component group: Ignitio
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The unit is defined in System Param
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Structure The unit is defined in th
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weavedata Weave data Description Co
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Y w Figure 5 The width (W) of the w
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weave_bias (weave centre bias) Data
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welddata Weld data Description Weld
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The welding sequence sched-no 4 x a
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In a weld end instruction the delay
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The type of weld shown in Figure 4
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ArcC Arc welding with circular moti
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CirPoint Data type: robtarget The c
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Tool Data type: tooldata The tool u
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Example MoveL ... ArcL \On, *,v100,
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ArcL Arc welding with linear motion
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ToPoint Data type: robtarget The de
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Program execution When this argumen
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Syntax MoveL xxxxxx weld5, weave1 A
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CONTENTS gundata Spot weld gun data
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gundata Spot weld gun data Descript
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Structure build_up_p3 1 Data type:
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spotdata Spot weld data Description
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SpotL Spot Welding with motion Exam
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Program execution Internal sequence
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Gun closure The gun closure is acti
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Simulated welding Error handling Fu
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Restart by choice Service (If SpotW
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For a complete description of the I
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System Module SWUSER Contents Data
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Routines Normally it is suitable to
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sw_service_wf (spotweld service wel
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System Module SWUSRC Contents Data
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The following predefined data is us
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User defined independent supervisio
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PROC sw_open_gun (num context) spot
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System Module SWUSRF Contents Data
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Default functionality: No functions
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System Module SWTOOL Contents The s
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Functions The following predefined
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CONTENTS ggundata Gluing gun data G
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ggundata Gluing gun data Descriptio
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Limitations Predefined data Structu
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GlueC Gluing with circular motion E
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an * in the instruction). ToPoint D
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Instruction by instruction executio
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RAPID Reference Manual 15-GlueC-7
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GlueL Gluing with linear motion Exa
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Speed Data type: speeddata The spee
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Calculation of the glue flow values
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The gluing is restarted with the ne
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System Module GLUSER Contents Data
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CONTENTS 1 The Jogging Window .....
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1 The Jogging Window 1.1 Window: Jo
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2.1.2 Menu: Edit Command: Used to:
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3.2 General menus 3.2.1 Menu: File
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3.2.3 Menu: View View 1 Instr.”
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3.4 Window: Program Routines Routin
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3.5 Window: Program Data Data type
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3.6 Window: Program Data Types Data
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3.8 Window: Program Modules Modules
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4.1.3 Menu: View View 1 Info ... 2
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5.1.2 Menu: Edit Command: Used to:
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6.1.3 Menu: View View 1 Log 2 Date
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6.3 Window Service Calibration Cali
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7 The System Parameters 7.1 Window:
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