Fagor CNC 8060 User manual

Type
User manual

This manual is also suitable for

(Ref: 1901)
8060
8065
CNC
CNC variables.
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MACHINE SAFETY
It is up to the machine manufacturer to make sure that the safety of the machine
is enabled in order to prevent personal injury and damage to the CNC or to the
products connected to it. On start-up and while validating CNC parameters, it
checks the status of the following safety elements. If any of them is disabled, the
CNC shows the following warning message.
Feedback alarm for analog axes.
Software limits for analog and sercos linear axes.
Following error monitoring for analog and sercos axes (except the spindle)
both at the CNC and at the drives.
Tendency test on analog axes.
FAGOR AUTOMATION shall not be held responsible for any personal injuries or
physical damage caused or suffered by the CNC resulting from any of the safety
elements being disabled.
DUAL-USE PRODUCTS
Products manufactured by FAGOR AUTOMATION since April 1st 2014 will
include "-MDU" in their identification if they are included on the list of dual-use
products according to regulation UE 428/2009 and require an export license
depending on destination.
TRANSLATION OF THE ORIGINAL MANUAL
This manual is a translation of the original manual. This manual, as well as the
documents derived from it, have been drafted in Spanish. In the event of any
contradictions between the document in Spanish and its translations, the wording
in the Spanish version shall prevail. The original manual will be labeled with the
text "ORIGINAL MANUAL".
HARDWARE EXPANSIONS
FAGOR AUTOMATION shall not be held responsible for any personal injuries or
physical damage caused or suffered by the CNC resulting from any hardware
manipulation by personnel unauthorized by Fagor Automation.
If the CNC hardware is modified by personnel unauthorized by Fagor
Automation, it will no longer be under warranty.
COMPUTER VIRUSES
FAGOR AUTOMATION guarantees that the software installed contains no
computer viruses. It is up to the user to keep the unit virus free in order to
guarantee its proper operation. Computer viruses at the CNC may cause it to
malfunction.
FAGOR AUTOMATION shall not be held responsible for any personal injuries or
physical damage caused or suffered by the CNC due a computer virus in the
system.
If a computer virus is found in the system, the unit will no longer be under warranty.
All rights reserved. No part of this documentation may be transmitted,
transcribed, stored in a backup device or translated into another language
without Fagor Automation’s consent. Unauthorized copying or distributing of this
software is prohibited.
The information described in this manual may be subject to changes due to
technical modifications. Fagor Automation reserves the right to change the
contents of this manual without prior notice.
All the trade marks appearing in the manual belong to the corresponding owners.
The use of these marks by third parties for their own purpose could violate the
rights of the owners.
It is possible that CNC can execute more functions than those described in its
associated documentation; however, Fagor Automation does not guarantee the
validity of those applications. Therefore, except under the express permission
from Fagor Automation, any CNC application that is not described in the
documentation must be considered as "impossible". In any case, Fagor
Automation shall not be held responsible for any personal injuries or physical
damage caused or suffered by the CNC if it is used in any way other than as
explained in the related documentation.
The content of this manual and its validity for the product described here has been
verified. Even so, involuntary errors are possible, hence no absolute match is
guaranteed. However, the contents of this document are regularly checked and
updated implementing the necessary corrections in a later edition. We appreciate
your suggestions for improvement.
The examples described in this manual are for learning purposes. Before using
them in industrial applications, they must be properly adapted making sure that
the safety regulations are fully met.
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INDEX
About the product - CNC 8060 ....................................................................................................11
About the product - CNC 8065 ................................................................................................... 15
Declaration of CE conformity and warranty conditions ............................................................... 21
Version history - CNC 8060 ........................................................................................................ 23
Version history - CNC 8065 ........................................................................................................ 25
Safety conditions ........................................................................................................................ 27
Returning conditions ................................................................................................................... 31
CNC maintenance ...................................................................................................................... 33
CHAPTER 1 CNC VARIABLES.
1.1 Understanding how variables work. ............................................................................... 35
1.1.1 Accessing numeric variables from the PLC. .............................................................. 37
1.2 Variables in a single-channel system............................................................................. 38
1.3 Variables in a multi-channel system. ............................................................................. 41
CHAPTER 2 VARIABLES RELATED TO MACHINE PARAMETERS.
2.1 Variables related to general machine parameters. ........................................................ 45
2.1.1 Channel configuration. ............................................................................................... 45
2.1.2 Configuring the axes of the system............................................................................ 45
2.1.3 Configuration of a tandem system. ............................................................................ 46
2.1.4 Configuration of a gantry axis.. .................................................................................. 49
2.1.5 Configuration of a multi-axis group. ........................................................................... 51
2.1.6 Configuring the spindles of the system ...................................................................... 52
2.1.7 Time setting (system)................................................................................................. 52
2.1.8 Sercos bus configuration............................................................................................ 53
2.1.9 Mechatrolink bus configuration. ................................................................................. 54
2.1.10 CAN bus configuration. .............................................................................................. 55
2.1.11 Serial line configuration.............................................................................................. 56
2.1.12 MODBUS. .................................................................................................................. 57
2.1.13 Default conditions (sytem).......................................................................................... 58
2.1.14 Arithmetic parameters. ............................................................................................... 59
2.1.15 Cross compensation table.......................................................................................... 61
2.1.16 Volumetric compensation tables. ............................................................................... 64
2.1.17 Execution times.......................................................................................................... 66
2.1.18 Numbering of the digital inputs (CANfagor bus)......................................................... 67
2.1.19 Numbering of the digital outputs (CANfagor bus). ..................................................... 67
2.1.20 Numbering of the digital inputs (CANopen bus)......................................................... 68
2.1.21 Numbering of the digital outputs (CANopen bus)....................................................... 69
2.1.22 Numbering of analog inputs for temperature sensors PT100. ................................... 70
2.1.23 Probe setting. ............................................................................................................. 71
2.1.24 Shared PLC memory.................................................................................................. 73
2.1.25 Management of local I/O. ........................................................................................... 73
2.1.26 Synchronized switching.............................................................................................. 74
2.1.27 PWM (Pulse-Width Modulation). ................................................................................ 75
2.1.28 Power control. ............................................................................................................76
2.1.29 Gap control................................................................................................................. 77
2.1.30 Leapfrog. .................................................................................................................... 81
2.1.31 CO2 laser path dispersion compensation. ................................................................. 82
2.1.32 Backup of non-volatile data........................................................................................ 84
2.1.33 Tool offset and wear................................................................................................... 84
2.1.34 Spindle synchronization. ............................................................................................ 85
2.1.35 Define the number of jog panels and their relationship with the channels. ................ 85
2.1.36 PLC type. ................................................................................................................... 86
2.1.37 Rename the axes and the spindles............................................................................ 86
2.1.38 Zero offsets. ............................................................................................................... 86
2.1.39 Remote module RCS-S (Sercos Counter). ................................................................ 87
2.2 Variables related to the machine parameters of the channels....................................... 88
2.2.1 Channel configuration. ............................................................................................... 88
2.2.2 Configuring the axes of the channel........................................................................... 89
2.2.3 Configuring the spindles of the channel. .................................................................... 91
2.2.4 Configuration of the C axis......................................................................................... 92
2.2.5 Time setting (channel)................................................................................................ 92
2.2.6 Configuration of the HSC mode (channel). ................................................................ 93
2.2.7 Virtual tool axis........................................................................................................... 96
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2.2.8 Default conditions (channel). ..................................................................................... 97
2.2.9 Arc center correction................................................................................................ 105
2.2.10 Behavior of the feedrate and the feedrate override. ................................................ 106
2.2.11 Override of the dynamics for HSC. .......................................................................... 108
2.2.12 Override for DMC..................................................................................................... 108
2.2.13 Movement of the independent axes......................................................................... 109
2.2.14 Definition of the subroutines. ................................................................................... 110
2.2.15 Tabletop probe position. .......................................................................................... 112
2.2.16 Block search. ........................................................................................................... 114
2.2.17 Interruption subroutines. .......................................................................................... 114
2.2.18 Machining feedrate. ................................................................................................. 115
2.2.19 Rapid traverse for the automatic mode.................................................................... 116
2.2.20 Maximum acceleration and jerk on the tool path. .................................................... 117
2.2.21 Maximun frequency on the tool path........................................................................ 117
2.2.22 Resonance frequency of the machine. .................................................................... 117
2.2.23 "Retrace" function. ................................................................................................... 118
2.2.24 Tool withdrawal. ....................................................................................................... 119
2.2.25 Master spindle.......................................................................................................... 119
2.3 Variables related to axis and spindle machine parameters. ........................................ 120
2.3.1 Belonging to the channel. ........................................................................................ 120
2.3.2 Type of axis and drive.............................................................................................. 121
2.3.3 Configuring a Sercos drive....................................................................................... 123
2.3.4 Hirth axis configuration. ........................................................................................... 126
2.3.5 Axis configuration for lathe type machines. ............................................................. 127
2.3.6 Configuration of the rotary axes............................................................................... 128
2.3.7 Module configuration (rotary axes and spindle). ...................................................... 130
2.3.8 Activating the spindle for DMC................................................................................. 130
2.3.9 Configuration of the C axis....................................................................................... 131
2.3.10 Configuration of the spindle. .................................................................................... 133
2.3.11 Synchronization of axes and spindles...................................................................... 138
2.3.12 Software axis limits. ................................................................................................. 140
2.3.13 Work zones. ............................................................................................................. 141
2.3.14 Override change while threading. ............................................................................ 142
2.3.15 Runaway protection and tendency test.................................................................... 143
2.3.16 PLC offset. ............................................................................................................... 144
2.3.17 Dwell for dead axes. ................................................................................................ 144
2.3.18 Programming in radius or diameters........................................................................ 145
2.3.19 Home search............................................................................................................ 146
2.3.20 Configuration of the probing movement................................................................... 148
2.3.21 Repositioning of the axes in tool inspection............................................................. 150
2.3.22 Configuration of the independent axis. .................................................................... 150
2.3.23 Configure the maximum safety limit for the feedrate and for the speed. ................. 151
2.3.24 JOG mode. Continuous jog...................................................................................... 152
2.3.25 JOG mode. Incremental jog. .................................................................................... 154
2.3.26 JOG mode. Handwheels.......................................................................................... 155
2.3.27 JOG mode. Manual intervention. ............................................................................. 156
2.3.28 Leadscrew error compensation................................................................................ 158
2.3.29 Filters to eliminate frequencies. ............................................................................... 162
2.3.30 Parameter sets......................................................................................................... 165
2.4 Variables related to the sets of machine parameters. ................................................. 166
2.4.1 Feedback resolution................................................................................................. 166
2.4.2 Feedback alarm. ...................................................................................................... 171
2.4.3 Loop setting. ............................................................................................................ 173
2.4.4 Backlash compensation. .......................................................................................... 175
2.4.5 Backlash compensation with an additional command pulse.................................... 176
2.4.6 Adjustment of rapid traverse G00 and maximum speed. ......................................... 179
2.4.7 Rapid traverse for the automatic mode.................................................................... 182
2.4.8 Gain setting.............................................................................................................. 183
2.4.9 Linear acceleration................................................................................................... 187
2.4.10 Trapezoidal and square sine acceleration. .............................................................. 189
2.4.11 Enable specific acceleration values for movements in G0....................................... 191
2.4.12 Linear acceleration (G0 movements)....................................................................... 192
2.4.13 Trapezoidal and square sine acceleration (G0 movements). .................................. 194
2.4.14 Configuration of the HSC mode. .............................................................................. 196
2.4.15 Home search............................................................................................................ 200
2.4.16 Following error. ........................................................................................................ 206
2.4.17 Axis lubrication......................................................................................................... 209
2.4.18 Module configuration (rotary axes and spindle). ...................................................... 210
2.4.19 Spindle speed. ......................................................................................................... 212
2.4.20 Analog command setting. ........................................................................................ 214
2.4.21 Number of the analog output and of the feedback input associated with the axis. .. 215
2.4.22 Set the drive associated with the axes of a multi-axis group. .................................. 218
2.4.23 Feedback type of the RCS-S module. ..................................................................... 219
2.4.24 Delay estimate at the drive. ..................................................................................... 227
2.5 Variables related to machine parameters for JOG mode. ........................................... 228
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2.5.1 Handwheel configuration.......................................................................................... 228
2.5.2 Configure the jog keys. ............................................................................................ 230
2.5.3 Configure the user keys as jog keys ........................................................................ 232
2.6 Variables related to machine parameters for M functions............................................ 234
2.7 Variables related to kinematic machine parameters. ................................................... 236
2.7.1 Kinematics configuration. ......................................................................................... 236
2.7.2 Configuration of angular transformations. ................................................................ 240
2.8 Variables related to machine parameters for the tool magazine.................................. 242
2.9 Variables related to OEM machine parameters. .......................................................... 245
2.9.1 Generic OEM parameters. ....................................................................................... 245
2.9.2 Reading drive variables............................................................................................ 247
CHAPTER 3 PLC RELATED VARIABLES.
3.1 Variables associated with the status and resources of the PLC. ................................. 249
3.1.1 PLC status................................................................................................................ 249
3.1.2 PLC Resources. ....................................................................................................... 250
3.1.3 PLC messages......................................................................................................... 252
3.1.4 PLC errors................................................................................................................ 253
3.1.5 PLC clocks. .............................................................................................................. 254
3.2 PLC consulting logic signals; general. ......................................................................... 255
3.3 PLC consulting logic signals; axes and spindles. ........................................................ 266
3.4 PLC consulting logic signals; spindles. ........................................................................ 271
3.5 PLC consulting logic signals; independent interpolator. .............................................. 273
3.6 PLC consulting logic signals; laser. ............................................................................. 275
3.6.1 Piercing enabled. ..................................................................................................... 275
3.6.2 Active cutting............................................................................................................ 275
3.6.3 Technology tables. ................................................................................................... 276
3.6.4 Gap control............................................................................................................... 277
3.6.5 Leapfrog. .................................................................................................................. 277
3.7 PLC consulting logic signals; tool manager. ................................................................ 278
3.8 PLC consulting logic signals; keys............................................................................... 281
3.9 PLC modifiable logic signals; general. ......................................................................... 282
3.10 PLC modifiable logic signals; axes and spindles. ........................................................ 292
3.11 PLC modifiable logic signals; spindles......................................................................... 299
3.12 PLC modifiable logic signals; independent interpolator. .............................................. 301
3.13 PLC modifiable logic signals; laser. ............................................................................. 302
3.13.1 Laser status.............................................................................................................. 302
3.13.2 PWM active from the PLC........................................................................................ 303
3.13.3 Power control. .......................................................................................................... 304
3.13.4 Gap control............................................................................................................... 305
3.13.5 Leapfrog. .................................................................................................................. 305
3.14 PLC modifiable logic signals; tool manager. ................................................................ 306
3.15 PLC modifiable logic signals; keys............................................................................... 311
CHAPTER 4 VARIABLES RELATED TO THE MACHINE CONFIGURATION.
4.1 Variables associated with the channels, axes and spindles. ....................................... 313
4.1.1 Name of the axes and spindles................................................................................ 313
4.1.2 Logic number of the axes and spindles of the channel. ........................................... 316
4.1.3 Number of the channels, axes and spindles. ........................................................... 317
4.1.4 Current channel of the axis or of the spindle............................................................ 319
4.1.5 Parameter set of the axis or spindle......................................................................... 320
4.1.6 Travel limits of linear and rotary axes. ..................................................................... 321
4.1.7 Kinetimatics dimensions........................................................................................... 322
4.1.8 Change the turning direction assigned to M3 and M4.............................................. 323
4.1.9 Number of pulses sent by the handwheel. ............................................................... 324
4.1.10 Modify the simulation speed via PLC. ...................................................................... 324
4.2 Variables related to volumetric compensation. ............................................................ 325
4.3 Variables associated with the Mechatrolink bus. ........................................................ 326
4.3.1 Status of communication and of the Mechatrolink devices. ..................................... 326
4.4 Multi-turn absolute encoder. ........................................................................................ 328
4.4.1 Variables. Number of overshots in the feedback range. .......................................... 328
CHAPTER 5 VARIABLES RELATED TO LASER.
5.1 Active material. ............................................................................................................ 329
5.2 Active cutting................................................................................................................ 329
5.3 Active piercing.............................................................................................................. 330
5.4 Laser power. Power programming............................................................................... 330
5.5 Laser power. Power in G97. ........................................................................................ 331
5.6 Laser power. Power limit.............................................................................................. 333
5.7 Laser power. Power percentage (override).................................................................. 335
5.8 PWM (pulse-width modulation). ................................................................................... 337
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5.9 Power control via an analog output. ............................................................................ 339
5.10 Power control via the PWM duty cycle. ....................................................................... 341
5.11 Leapfrog....................................................................................................................... 343
5.12 Synchronized switching. .............................................................................................. 345
5.13 CO2 laser dispersion compensation............................................................................ 347
5.14 Gap control. ................................................................................................................. 348
CHAPTER 6 VARIABLES RELATED TO CYCLE TIME.
6.1 Analysis of the loop time (cycle time) at the CNC........................................................ 351
6.2 Analysis of the loop time (cycle time) in the channel. .................................................. 352
CHAPTER 7 VARIABLES ASSOCIATED WITH THE FEEDBACK INPUTS FOR ANALOG AXES.
7.1 Feedback inputs associated with the analog axes. ..................................................... 353
7.2 Local feedback inputs (ICU/MCU). .............................................................................. 355
CHAPTER 8 VARIABLES ASSOCIATED WITH THE ANALOG INPUTS AND OUTPUTS.
8.1 Remote analog inputs and outputs. ............................................................................. 357
8.2 Local analog outputs.................................................................................................... 357
8.3 Remote module RCS-S (Sercos counter).................................................................... 358
CHAPTER 9 VARIABLES ASSOCIATED WITH THE VELOCITY COMMAND AND THE FEEDBACK OF THE
DRIVE.
9.1 Velocity command and torque for Sercos axes. .......................................................... 359
9.2 Feedback of the analog or Sercos drive. ..................................................................... 360
CHAPTER 10 VARIABLES RELATED TO THE CHANGE OF GEAR AND SET OF THE SERCOS DRIVE.
10.1 Change of gear and set of the Sercos drive. ............................................................... 361
CHAPTER 11 VARIABLES RELATED TO LOOP ADJUSTMENT.
11.1 Coordinate related variables........................................................................................ 363
11.2 Position increment and sampling period...................................................................... 366
11.3 Fine adjustment of feedrate, acceleration and jerk. ..................................................... 368
11.4 Gain setting via PLC. ................................................................................................... 371
11.5 Variables related to the loop of the axis or of the tandem spindle. .............................. 373
CHAPTER 12 VARIABLES RELATED TO USER TABLES.
12.1 Zero offset table........................................................................................................... 377
12.1.1 Zero offset table (without fine setting of the absolute zero offset). .......................... 379
12.1.2 Zero offset table (with fine setting of the absolute zero offset). ............................... 381
12.2 Variables related to user tables (fixture table). ............................................................ 384
12.3 Variables related to user tables (arithmetic parameters table). ................................... 386
12.3.1 Local arithmetic parameters..................................................................................... 386
12.3.2 Global arithmetic parameters................................................................................... 388
12.3.3 Common arithmetic parameters............................................................................... 389
CHAPTER 13 VARIABLES ASSOCIATED WITH THE TECHNOLOGICAL TABLES.
13.1 Variables associated with the technological tables (common parameters). ............... 391
13.2 Variables associated with the technological tables (piercing). .................................... 392
13.3 Variables associated with the technological tables (cutting). ...................................... 395
CHAPTER 14 VARIABLES RELATED TO THE POSITION OF THE AXES.
14.1 Programmed coordinates. ........................................................................................... 399
14.2 Position in part coordinates. ........................................................................................ 401
14.3 Position in machine coordinates. ................................................................................. 403
14.4 Position read in the internal feedback (motor feedback). ............................................ 405
14.5 Following error of the axis............................................................................................ 406
14.6 Distance left (to go) for the axis to reach the programmed coordinate........................ 408
CHAPTER 15 VARIABLES RELATED TO SPINDLE POSITION.
15.1 Spindle position. .......................................................................................................... 409
15.2 Spindle following error. ................................................................................................ 411
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CHAPTER 16 FEEDRATE RELATED VARIABLES.
16.1 Feedrate active in the channel..................................................................................... 413
16.2 Feedrate active in the block. ........................................................................................ 415
16.3 Programming the feedrate in G94................................................................................ 416
16.4 Programming the feedrate in G95................................................................................ 417
16.5 Programming the machining time. ............................................................................... 418
16.6 Percentage of feedrate (feedrate override).................................................................. 419
16.7 Percentage of feedrate in G00..................................................................................... 421
CHAPTER 17 VARIABLES ASSOCIATED WITH ACCELERATION AND JERK ON THE TOOL PATH.
17.1 Acceleration on the tool path. ...................................................................................... 423
17.2 Jerk on the tool path. ................................................................................................... 423
CHAPTER 18 VARIABLES RELATED TO MANAGING THE HSC MODE.
18.1 Variables related to block preparation. ........................................................................ 425
18.2 Analysis of the programmed error................................................................................ 426
18.3 Feedrate limitation at the block being executed........................................................... 427
18.4 Limitation of the feedrate at the corner. ....................................................................... 428
18.5 Modify the dynamics of all the axes of the channel. .................................................... 429
CHAPTER 19 VARIABLES RELATED TO SPINDLE SPEED.
19.1 Programming the speed............................................................................................... 431
19.2 Spindle speed in G97................................................................................................... 432
19.3 Spindle speed in G96 (CSS)........................................................................................ 434
19.4 Spindle speed in M19. ................................................................................................. 436
19.5 Speed limit. .................................................................................................................. 438
19.6 Percentage of spindle speed (spindle speed override)................................................ 439
CHAPTER 20 VARIABLES ASSOCIATED WITH TOOL MAGAZINE AND TOOLS.
20.1 Variables associated with the tool manager. ............................................................... 441
20.2 Variables related to managing the tool magazine and the tool changer arm............... 443
20.2.1 Relationship between the tool magazine and the channel....................................... 443
20.2.2 Tool location in the magazine. ................................................................................. 444
20.2.3 Tool location in the tool changer arm. ...................................................................... 444
20.3 Variables related to the active tool and to the next one. .............................................. 445
20.3.1 Tool and active offset. .............................................................................................. 445
20.3.2 Next tool and tool offset. .......................................................................................... 446
20.3.3 Status of the active tool............................................................................................ 446
20.3.4 Family of the active tool. .......................................................................................... 447
20.3.5 Active tool monitoring............................................................................................... 448
20.3.6 "CUSTOM" data of the active tool............................................................................ 449
20.3.7 Tool geometry. ......................................................................................................... 450
20.3.8 Cancel the preset turning direction of the tool.......................................................... 459
20.4 Variables associated with any tool............................................................................... 460
20.4.1 Tool status................................................................................................................ 460
20.4.2 Family of the tool...................................................................................................... 460
20.4.3 Tool monitoring. ....................................................................................................... 461
20.4.4 "CUSTOM" data of the tool. ..................................................................................... 462
20.4.5 Tool geometry. ......................................................................................................... 463
20.5 Variables associated with the tool being prepared. ..................................................... 471
20.5.1 Tool and active offset. .............................................................................................. 471
20.5.2 Next tool and tool offset. .......................................................................................... 472
20.5.3 Tool status................................................................................................................ 472
20.5.4 Family of the tool...................................................................................................... 473
20.5.5 "CUSTOM" data of the tool. ..................................................................................... 473
20.5.6 Tool monitoring. ....................................................................................................... 474
20.5.7 Tool geometry. ......................................................................................................... 475
CHAPTER 21 VARIABLES RELATED TO JOG MODE.
21.1 Movement allowed in jog mode. .................................................................................. 481
21.2 Type of movement active in the channel. .................................................................... 482
21.3 Type of movement active on an axis. .......................................................................... 484
21.4 Switch position in handwheel mode............................................................................. 486
21.5 Switch position in incremental jog mode...................................................................... 488
21.6 JOG feedrates.............................................................................................................. 490
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CHAPTER 22 VARIABLES RELATED TO THE PROGRAMMED FUNCTIONS.
22.1 Movement of axes and spindles. ................................................................................. 491
22.2 Work plane and axes. .................................................................................................. 494
22.3 "G" and "M" functions................................................................................................... 497
22.3.1 Status of the functions "G" and "M".......................................................................... 497
22.3.2 Functions "G" and "M" to be displayed in the history. .............................................. 499
22.3.3 Subroutine associated with M3, M4, M5, M19 and M41-M44. ................................. 501
22.4 Canned cycles. ............................................................................................................ 502
22.5 Canned cycle calling parameters................................................................................. 505
22.6 Subroutine calling parameters. .................................................................................... 507
22.7 Arc related. .................................................................................................................. 508
22.8 Polar origin................................................................................................................... 510
22.9 Geometric assistance. Mirror image. ........................................................................... 511
22.10 Geometric assistance. Scaling factor. ......................................................................... 511
22.11 Geometric assistance. Coordinate system rotation. .................................................... 512
22.12 Block repetition. ........................................................................................................... 513
22.13 Axis slaving.................................................................................................................. 513
22.14 HSC function................................................................................................................ 514
22.15 Active probe................................................................................................................. 514
22.16 Status of the local probes. ........................................................................................... 515
22.17 Probing (G100/G101/G102)......................................................................................... 516
22.18 Manual intervention. .................................................................................................... 520
22.19 Status of the angular transformation............................................................................ 521
22.20 Tangential control status.............................................................................................. 522
22.21 Synchronization of channels........................................................................................ 524
22.22 Feed-Forward and AC-Forward................................................................................... 525
22.23 Errors and warnings..................................................................................................... 527
22.24 Repositioning of axes and spindles. ............................................................................ 528
22.25 Active zero offset. ........................................................................................................ 529
22.26 Withdraw the axes after interrupting a threading. ........................................................ 529
22.27 Work zones.................................................................................................................. 530
22.27.1 Safety distance of the limits of the work zones. ....................................................... 530
22.27.2 Set lower and upper limits of a work zone. .............................................................. 531
22.27.3 Set circular limits of the work zone. ......................................................................... 532
22.27.4 Monitoring of a work zone........................................................................................ 534
22.27.5 Enable and disable the work zones. ........................................................................ 534
22.28 DMC function.. ............................................................................................................. 535
22.28.1 Commands of the #DMC ON statement. ................................................................. 535
22.28.2 Status and response from DMC............................................................................... 537
22.29 FCAS (Fagor Collision Avoidance System). ................................................................ 539
CHAPTER 23 VARIABLES RELATED TO THE ELECTRONIC CAM.
23.1 Electronic cam. ............................................................................................................ 541
CHAPTER 24 VARIABLES RELATED TO THE INDEPENDENT AXES.
24.1 Independent interpolator.............................................................................................. 543
24.2 Independent axis in execution. .................................................................................... 543
24.3 Percentage of feedrate (feedrate override).................................................................. 544
24.4 Positioning move. ........................................................................................................ 545
24.5 Synchronization movement. ........................................................................................ 547
24.6 Coordinate latching with the help of a probe or a digital input. .................................... 551
CHAPTER 25 VARIABLES ASSOCIATED WITH THE VIRTUAL TOOL AXIS.
25.1 Virtual tool axis. ........................................................................................................... 553
CHAPTER 26 VARIABLES RELATED TO THE KINEMATICS.
26.1 Selection of the kinematics. ......................................................................................... 555
26.2 Variables related to the active kinematics. .................................................................. 556
26.3 Position of the rotary axes of the kinematics. .............................................................. 558
26.4 Selecting the positioning rotary axes in type-52 kinematics. ....................................... 560
CHAPTER 27 VARIABLES RELATED TO THE COORDINATE TRANSFORMATION.
27.1 Inclined planes............................................................................................................. 561
27.2 Active tool length compensation. ................................................................................. 562
27.3 Variables related to the CSROT option. ...................................................................... 563
27.4 Variables related to the KINORG option. ..................................................................... 566
27.5 Die resulting from the inclined plane............................................................................ 566
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CNC 8065
·9·
(REF: 1901)
CHAPTER 28 VARIABLES DEFINED BY THE USER.
28.1 User variables. ............................................................................................................. 567
28.1.1 User variables for the program and local subroutines.............................................. 567
28.1.2 User variables for the CNC session. ........................................................................ 567
28.2 Array user variables. .................................................................................................... 568
28.2.1 User variables for the program and local subroutines.............................................. 568
28.2.2 User variables for the CNC session. ........................................................................ 568
CHAPTER 29 GENERAL VARIABLES OF THE CNC.
29.1 CNC model. ................................................................................................................. 569
29.2 Hardware type.............................................................................................................. 570
29.3 Emergency relay. ......................................................................................................... 570
29.4 Software version. ......................................................................................................... 571
29.5 Date, time and amount of time of turned on................................................................. 572
29.6 Information about the channels.................................................................................... 572
29.7 Key simulation.............................................................................................................. 573
CHAPTER 30 VARIABLES RELATED TO CNC STATUS.
30.1 CNC status................................................................................................................... 575
30.2 Selected axes. ............................................................................................................. 577
30.3 Detailed CNC status in jog mode................................................................................. 578
30.4 Detailed CNC status in automatic mode. ..................................................................... 580
CHAPTER 31 VARIABLES ASSOCIATED WITH THE PART-PROGRAM BEING EXECUTED.
31.1 Part-program information. ............................................................................................ 583
31.2 Information on program execution. .............................................................................. 585
31.3 Executing options; single block, rapid, etc.. ................................................................. 587
CHAPTER 32 INTERFACE RELATED VARIABLES.
32.1 Status of the power-up and power-down process........................................................ 589
32.2 Status of the temporary user license. .......................................................................... 589
32.3 Interface. ...................................................................................................................... 590
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·10·
CNC variables.
CNC 8060
CNC 8065
·11·
(REF: 1901)
ABOUT THE PRODUCT - CNC 8060
BASIC CHARACTERISTICS.
(*) Differential TTL / Sinusoidal 1 Vpp (**) TTL / Differential TTL / Sinusoidal 1 Vpp / SSI protocol / FeeDat / EnDat
Basic characteristics. 8060
M FL
8060
M Power
8060
T FL
8060
T Power
8060
L
Number of axes. 3 to 4 3 to 6 3 to 4 3 to 6 3 to 6
Number of spindles. 1 1 to 2 1 to 2 1 to 3 1
Maximum number of axes and spindles. 57577
Interpolated axes. 44444
Number of tool magazines. 1 1 1 1 to 2 1
Number of execution channels. 1 1 1 1 to 2 1
Number of handwheels. 1 to 3
Type of servo system. Analog / Sercos Digital
Communications. RS485 / RS422 / RS232
Ethernet
Integrated PLC.
PLC execution time.
Digital inputs / Digital outputs.
Marks / Registers.
Timers / Counters.
Symbols.
< 1ms/K
1024 / 1024
8192 / 1024
512 / 256
Unlimited
Block processing time. < 2.0 ms < 1.5 ms < 2.0 ms < 1.5 ms < 1 ms
Remote modules. RIOW RIO5 RIO70 RIOR RCS-S
Valid for CNC. 8070
8065
8060
8070
8065
8060
8070
8065
- - -
D
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C
O
N
T
I
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U
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8070
8065
8060
8070
8065
8060
Communication with the remote modules. CANopen CANopen CANfagor CANopen Sercos
Digital inputs per module. 8 24 / 48 16 48 - - -
Digital outputs per module. 8 16 / 32 16 32 - - -
Analog inputs per module. 4 4 8 - - - - - -
Analog outputs per module. 4 4 4 - - - 4
Inputs for PT100 temperature sensors. 2 2 - - - - - - - - -
Feedback inputs. - - - - - - 4 (*) - - - 4 (**)
CNC variables.
CNC 8060
CNC 8065
·12·
(REF: 1901)
SOFTWARE OPTIONS.
Some of the features described in this manual are dependent on the acquired software options. The active
software options for the CNC can be consulted in the diagnostics mode (accessible from the task window
by pressing [CTRL] [A]), under software options.
Consult the ordering handbook for information on the software options available for your model.
SOFT 8060 ADDIT AXES
Additional shaft.
Add axes to the default configuration.
SOFT 8060 ADDIT SPINDLES
Additional spindle.
Add spindles to the default configuration.
SOFT 8060 ADDIT TOOL MAGAZ
Additional tool magazine.
Add tool magazines to the default configuration.
SOFT 8060 ADDIT CHANNELS
Additional channel.
Add channels to the default configuration.
SOFT DIGITAL SERCOS
Sercos digital bus.
Sercos digital bus.
SOFT i4.0 CONNECTIVITY PACK
Industry 4.0.
This option allows for the use and capture of data using the
FSYS.
SOFT EDIT/SIMUL
EDISIMU mode (editing and simulation).
It allows for the editing, modification and simulation of a
part-program.
SOFT TOOL RADIUS COMP
Radius compensation.
Tool compensation allows programming the contour to be
machined based on part dimensions of the and without
taking into account the dimensions of the tool that will be
used later on. This avoids having to calculate and define
the tool path based on the tool radius.
SOFT PROFILE EDITOR
Profile editor.
Allows for the part profiles to be edited graphically and to
import dxf files.
SOFT 60 F3D GRAPHICS
F3D graphics.
High definition solid 3D graphics for the execution and
simulation of part-programs and canned cycles of the
editor.
During machining, the F3D graphics display the tool
removing the material from the part in real time, allowing
for the condition of the part to be seen at all times. F3D
graphics can display up to 4 views of the part, where each
can be rotated, zoomed in or zoomed out. Measurements
can also be made on the part and even sections on the
piece from any angle.
SOFT 60 IIP CONVERSATIONAL
Interactive Icon-based Pages (conversational mode).
IIP or conversational mode is specifically designed for
people without any prior programming knowledge or for
those that are not familiarized with Fagor CNC's.
Working in conversational mode is easier than in ISO
mode, as it ensures proper data entry and minimizes the
number of operations to be defined. There is no need to
work with part-programs.
SOFT 60 RTCP
Dynamic RTCP (Rotating Tool Center Point).
The dynamic RTCP option is required for interpolation
machining with 4, 5 or 6 axis.
SOFT 60 C AXIS
C axis.
It activates the kinematics for working with the C axis and
the associated canned cycles. The CNC can control
several C axes. The parameters of each axis indicate if it
will function as a C axis or not, where it will not be
necessary to activate another axis for the machine
parameters.
SOFT 60 Y AXIS
Y axis for lathe.
It activates the kinematics for working with the Y axis and
the associated canned cycles.
CNC variables.
CNC 8060
CNC 8065
·13·
(REF: 1901)
SOFT 60 TANDEM AXES
Tandem axes.
A tandem axis consists in two motors mechanically
coupled (slaved) and making up a single transmission
system (axis or spindle). A tandem axis helps provide the
necessary torque to move an axis when a single motor is
not capable of supplying enough torque to do it.
When activating this feature, it should be kept in mind that
for each tandem axis of the machine, another axis must be
added to the entire configuration. For example, on a large
3-axis lathe (X Z and tailstock), if the tailstock is a tandem
axis, the final purchase order for the machine must
indicate 4 axes.
SOFT 60 SYNCHRONISM
Synchronization of axes and spindles.
The axes and ballscrews may be synchronized in two
ways: in terms of speed or position. The CNC
configuration takes into consideration the synchronization
of 2 axes or 2 spindles. Once synchronized, only the
master displays and programs the element.
SOFT 60 HSSA I MACHINING SYSTEM
High Speed Surface Accuracy.
This is the new version of algorithms for high speed
machining (HSC). This new HSSA algorithm allows for
high speed machining optimization, where higher cutting
speeds, smoother contours, a better surface finishing and
greater precision are achieved.
SOFT 60 HSSA II MACHINING SYSTEM
HSSA-II machining system.
This is the new version of algorithms for high speed
machining (HSC). This new HSSA algorithm allows for
high speed machining optimization, where higher cutting
speeds, smoother contours, a better surface finishing and
greater precision are achieved.
SOFT 60 PROBE
Probing canned cycles.
The CNC may have two probes; usually a tabletop probe
to calibrate tools and a measuring probe to measure the
part.
This option activates the functions G100, G103 and G104
(for probe movements) and probe canned cycles (which
help to measure part surfaces and to calibrate tools).
For the laser model, it only activates the non-cycle function
G100.
SOFT 60 CONV USER CYCLES
Conversational user cycles.
Incorporation of user cycles in conversational mode.
SOFT 60 PROGTL3
ProGTL3 programming language.
Another language apart from ISO for the programming of
profiles using a geometric language without the need to
use external CAD systems. This language allows for
program functions to define lines and circles which define
the points of intersection on a profile, in addition to macros
for the creation of solids defined by a flat profile and one
or more section profiles.
SOFT 60 PPTRANS
Part-program translator.
The program translator may be used to convert programs
written in other languages into Fagor ISO codes.
SOFT THIRD PARTY CANOPEN
Third-party CANopen.
Enables the use of non-Fagor CANopen modules.
SOFT MAB SYSTEM.
MAB drives.
Sercos connection with MAB drives.
SOFT 60 PWM CONTROL
Pulse-Width Modulation.
This function is only available for Sercos bus controlled
systems. It is mostly oriented toward laser machines for
the cutting of very thick sheets, where the CNC generates
a series of PWM pulses to control the power of the laser
when drilling the starting point.
This feature is essential for cutting very thick sheets and
it requires two quick digital outputs located on the central
unit. With this new feature, the OEM does not need to
install or program any external device, which reduces
machine costs and installation times. The end user also
benefits, since the “Cutting with PWM ” feature is much
easier to use and program.
SOFT 60 GAP CONTROL
Gap control.
This is mostly oriented toward laser machines. Gap
control makes it possible to maintain a set distance
between the laser nozzle and the surface of the sheet. This
distance is calculated by a sensor connected to the CNC,
so that the CNC offsets the sensor variations on the
distance programmed with additional movements in the
axis programmed for the gap.
SOFT DMC
Dynamic Machining Control.
DMC adapts the feedrate during machining to maintain the
cutting power as close as possible to ideal machining
conditions.
SOFT FMC
Fagor Machining Calculator.
The FMC application consists of a database of materials
to be machined and machining operations (milling and
turning) with an interface to choose suitable cutting
conditions for these operations.
SOFT FFC
Fagor Feed Control.
During the execution of a canned cycle of the editor, the
FFC function makes it possible to replace the feedrate and
speed programmed in the cycle with the active values of
the execution, which are acted upon by the feed override
and speed override.
SOFT 60/65/70 OPERATING TERMS
Temporary user license.
The "Operating Terms" option activates a temporary user
license for the CNC, which is valid until the date
determined by the OEM.
SOFT MANUAL NESTING
Manual nesting
Nesting consists of creating a pattern on the sheet material
using previously defined figures (in dxf, dwg or parametric
files), so as to use most of the sheet as possible. Once the
pattern has been defined, the CNC creates a program.
During manual nesting, the operator distributes the parts
on top of the sheet material.
CNC variables.
CNC 8060
CNC 8065
·14·
(REF: 1901)
SOFT AUTO NESTING
Automatic nesting
Nesting consists of creating a pattern on the sheet material
using previously defined figures (in dxf, dwg or parametric
files), so as to use most of the sheet as possible. Once the
pattern has been defined, the CNC creates a program.
During automatic nesting, the application distributes the
figures on the sheet material and optimizes the spaces.
CNC variables.
CNC 8060
CNC 8065
·15·
(REF: 1901)
ABOUT THE PRODUCT - CNC 8065
BASIC CHARACTERISTICS.
Basic characteristics. 8065 M 8065 M Power
Basic Pack 1 Basic Pack 1
Number of execution channels. 1 1 1 1 to 4
Number of axes. 3 to 6 5 to 8 5 to 12 8 to 28
Number of spindles. 1 1 to 2 1 to 4 1 to 4
Maximum number of axes and spindles. 7 10 16 32
Number of tool magazines. 1 1 1 to 2 1 to 4
Limited to 4 interpolated axes. Option Option Option Option
Basic characteristics. 8065 T 8065 T Power
Basic Pack 1 Basic Pack 1
Number of execution channels. 1 1 to 2 1 to 2 1 to 4
Number of axes. 3 to 5 5 to 7 5 to 12 8 to 28
Number of spindles. 2 2 3 to 4 3 to 4
Maximum number of axes and spindles. 7 9 16 32
Number of tool magazines. 1 1 to 2 1 to 2 1 to 4
Limited to 4 interpolated axes. Option Option Option Option
Basic characteristics. 8065 M 8065 M Power 8065 T 8065 T Power
Number of handwheels. 1 to 12
Type of servo system. Analog / Digital Sercos / Digital Mechatrolink
Communications. RS485 / RS422 / RS232
Ethernet
Integrated PLC.
PLC execution time.
Digital inputs / Digital outputs.
Marks / Registers.
Timers / Counters.
Symbols.
< 1ms/K
1024 / 1024
8192 / 1024
512 / 256
Unlimited
Block processing time. < 1 ms
CNC variables.
CNC 8060
CNC 8065
·16·
(REF: 1901)
(*) Differential TTL / Sinusoidal 1 Vpp (**) TTL / Differential TTL / Sinusoidal 1 Vpp / SSI protocol / FeeDat / EnDat
Remote modules. RIOW RIO5 RIO70 RIOR RCS-S
Valid for CNC. 8070
8065
8060
8070
8065
8060
8070
8065
- - -
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I
S
C
O
N
T
I
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U
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D
8070
8065
8060
8070
8065
8060
Communication with the remote modules. CANopen CANopen CANfagor CANopen Sercos
Digital inputs per module. 8 24 / 48 16 48 - - -
Digital outputs per module. 8 16 / 32 16 32 - - -
Analog inputs per module. 4 4 8 - - - - - -
Analog outputs per module. 4 4 4 - - - 4
Inputs for PT100 temperature sensors. 2 2 - - - - - - - - -
Feedback inputs. - - - - - - 4 (*) - - - 4 (**)
Customizing (on an open system only).
PC-based open system, fully customizable.
INI configuration files.
Tool for display configuration FGUIM.
Visual Basic®, Visual C++®, etc.
Internal databases in Microsoft® Access.
OPC compatible interface
CNC variables.
CNC 8060
CNC 8065
·17·
(REF: 1901)
SOFTWARE OPTIONS.
Some of the features described in this manual are dependent on the acquired software options. The active
software options for the CNC can be consulted in the diagnostics mode (accessible from the task window
by pressing [CTRL] [A]), under software options.
Consult the ordering handbook for information on the software options available for your model.
SOFT ADDIT AXES
Additional shaft.
Add axes to the default configuration.
SOFT ADDIT SPINDLES
Additional spindle.
Add spindles to the default configuration.
SOFT ADDIT TOOL MAGAZ
Additional tool magazine.
Add tool magazines to the default configuration.
SOFT ADDIT CHANNELS
Additional channel.
Add channels to the default configuration.
SOFT 4 AXES INTERPOLATION LIMIT
Limited to 4 interpolated axes.
It limits the number of axes to 4, where the CNC can also
interpolate these at the same time.
SOFT i4.0 CONNECTIVITY PACK
Industry 4.0.
This option allows for the use and capture of data using the
FSYS.
SOFT OPEN SYSTEM
Open system.
The CNC is a closed system that offers all the features
needed to machine parts. Nevertheless, at times there are
some customers who use third-party applications to take
measurements, perform statistics or other tasks apart
from machining a part.
This feature must be active when installing this type of
application, even if they are Office files. Once the
application has been installed, it is recommended to close
the CNC in order to prevent the operators from installing
other kinds of applications that could slow the system
down and affect the machining operations.
SOFT DIGITAL SERCOS
Sercos digital bus.
Sercos digital bus.
SOFT EDIT/SIMUL
EDISIMU mode (editing and simulation).
It allows for the editing, modification and simulation of a
part-program.
SOFT DUAL-PURPOSE (M-T)
Dual-purpose machine.
A dual-purpose machine allows for both milling and
turning cycles. On lathes with a Y axis, it allows making
pockets, bosses and even irregular pockets with islands
during milling cycles. Turning cycles can be used by
milling machines which have a rotary axis that functions
as a C axis.
SOFT IEC 61131 LANGUAGE
IEC 61131 language
IEC 61131 is a PLC programming language that is very
popular in alternative markets, which is slowly entering
into the machine-tool market. With this feature, the PLC
may be programmed either in the usual Fagor language
or in IEC 61131 format.
This feature requires the MP-PLUS (83700201)
processor.
SOFT TOOL RADIUS COMP
Compensación de radio.
Tool compensation allows programming the contour to be
machined based on part dimensions of the and without
taking into account the dimensions of the tool that will be
used later on. This avoids having to calculate and define
the tool path based on the tool radius.
SOFT IIP CONVERSATIONAL
Interactive Icon-based Pages (conversational mode).
IIP or conversational mode is specifically designed for
people without any prior programming knowledge or for
those that are not familiarized with Fagor CNC's.
Working in conversational mode is easier than in ISO
mode, as it ensures proper data entry and minimizes the
number of operations to be defined. There is no need to
work with part-programs.
CNC variables.
CNC 8060
CNC 8065
·18·
(REF: 1901)
SOFT PROFILE EDITOR
Profile editor.
Allows for the part profiles to be edited graphically and to
import dxf files.
SOFT HD GRAPHICS
HD graphics.
High definition solid 3D graphics for the execution and
simulation of part-programs and canned cycles of the
editor.
During machining, the HD graphics display, in real time,
the tool removing the material from the part, allowing the
condition of the part to be seen at all times. HD graphics
can display up to 4 views of the part, where each can be
rotated, zoomed in or zoomed out. Measurements can
also be made on the part and even sections on the piece
from any angle.
In a multi-channel system, this feature requires the MP-
PLUS (83700201) processor.
SOFT RTCP
Dynamic RTCP (Rotating Tool Center Point).
The dynamic RTCP option is required for interpolation
machining with 4, 5 or 6 axis.
This feature requires the MP-PLUS (83700201)
processor.
SOFT C AXIS
C axis.
It activates the kinematics for working with the C axis and
the associated canned cycles. The CNC can control
several C axes. The parameters of each axis indicate if it
will function as a C axis or not, where it will not be
necessary to activate another axis for the machine
parameters.
SOFT Y AXIS
Y axis for lathe.
It activates the kinematics for working with the Y axis and
the associated canned cycles.
SOFT TANDEM AXES
Tandem axes.
A tandem axis consists in two motors mechanically
coupled (slaved) and making up a single transmission
system (axis or spindle). A tandem axis helps provide the
necessary torque to move an axis when a single motor is
not capable of supplying enough torque to do it.
When activating this feature, it should be kept in mind that
for each tandem axis of the machine, another axis must be
added to the entire configuration. For example, on a large
3-axis lathe (X Z and tailstock), if the tailstock is a tandem
axis, the final purchase order for the machine must
indicate 4 axes.
SOFT SYNCHRONISM
Synchronization of axes and spindles.
The axes and ballscrews may be synchronized in two
ways: in terms of speed or position. The CNC
configuration takes into consideration the synchronization
of 2 axes or 2 spindles. Once synchronized, only the
master displays and programs the element.
SOFT KINEMATIC CALIBRATION
Kinematics calibration.
This work mode may be used to calibrate kinematics for
the first time and to re-calibrate it every so often to correct
any possible deviations originated by the day-to-day
machine work.
SOFT HSSA II MACHINING SYSTEM
HSSA-II machining system.
This is the new version of algorithms for high speed
machining (HSC). This new HSSA algorithm allows for
high speed machining optimization, where higher cutting
speeds, smoother contours, a better surface finishing and
greater precision are achieved.
SOFT TANGENTIAL CONTROL
Tangential control.
"Tangential Control" maintains a rotary axis always in the
same orientation with respect to the programmed tool
path. The machining path is defined on the axes of the
active plane and the CNC maintains the orientation of the
rotary axis along the entire tool path.
SOFT PROBE
Probing canned cycles.
The CNC may have two probes; usually a tabletop probe
to calibrate tools and a measuring probe to measure the
part.
This option activates the functions G100, G103 and G104
(for probe movements) and probe canned cycles (which
help to measure part surfaces and to calibrate tools).
SOFT CONV USER CYCLES
Conversational user cycles.
Incorporation of user cycles in conversational mode.
SOFT 70 PROGTL3
ProGTL3 programming language
Another language apart from ISO for the programming of
profiles using a geometric language without the need to
use external CAD systems. This language allows for
program functions to define lines and circles which define
the points of intersection on a profile, in addition to macros
for the creation of solids defined by a flat profile and one
or more section profiles.
SOFT PPTRANS
Part-program translator.
The program translator may be used to convert programs
written in other languages into Fagor ISO codes.
SOFT THIRD PARTY CANOPEN
Third-party CANopen.
Enables the use of non-Fagor CANopen modules.
SOFT FVC BASIC
SOFT FVC UP TO 10m3
SOFT FVC MORE TO 10m3
Volumetric compensation.
5-axis machines are generally used during the
manufacturing of large parts. The accuracy of the parts is
limited by the machine manufacturing tolerances and is
effected by temperature variations during machining.
In sectors such as the aerospace industry, machining
demands mean that classic compensation tools are
becoming suboptimal. Volumetric compensation FVC
comes in to complement the machine adjusting tools.
When mapping the total work volume of the machine, the
CNC knows the exact position of the tool at all times. After
applying the required compensation, the resulting part is
made with the desired precision and tolerance.
There are 3 options, which depend on the size of the
machine.
FVC BASIC: 25-point compensation on each axis.
Quick calibration (time), but less precise than the
other two, but sufficient for the desired tolerances.
FVC UP TO 10m3: Volume compensation up to 10 m³.
More accurate than FVC BASIC, but requires a more
accurate calibration using a Tracer or Tracker laser).
FVC MORE TO 10m3: Volume compensation greater
than 10 m³. More accurate than FVC BASIC, but
CNC variables.
CNC 8060
CNC 8065
·19·
(REF: 1901)
requires a more accurate calibration using a Tracer or
Tracker laser.
This feature is not available for the “Power” model.
SOFT DMC
Dynamic Machining Control.
DMC adapts the feedrate during machining to maintain the
cutting power as close as possible to ideal machining
conditions.
SOFT FMC
Fagor Machining Calculator.
The FMC application consists of a database of materials
to be machined and machining operations (milling and
turning) with an interface to choose suitable cutting
conditions for these operations.
SOFT FFC
Fagor Feed Control.
During the execution of a canned cycle of the editor, the
FFC function makes it possible to replace the feedrate and
speed programmed in the cycle with the active values of
the execution, which are acted upon by the feed override
and speed override.
SOFT 60/65/70 OPERATING TERMS
Temporary user license.
The "Operating Terms" option activates a temporary user
license for the CNC, which is valid until the date
determined by the OEM.
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Fagor CNC 8060 User manual

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User manual
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