1.109 Pr1761~Pr1770 Spindle orientation stop deceleration time ............................................ 101
1.110 Pr1771~Pr1780 Spindle home reference offset................................................................. 101
1.111 Pr1781~Pr1790 Minimum speed for orientation stop ....................................................... 102
1.112 Pr1791~Pr1800 Spindle motor type. .................................................................................. 103
1.112.1 The related spindle functions........................................................................................................................... 103
1.134.3 New Products ....................................................................................................................................................120
1.135 Pr2024~Pr2027 *Continued I-Bit no. for MPG .................................................................... 121
1.136 Pr2031~Pr2040 MPG related axis ID ................................................................................... 122
1.259 Pr3980 *Simulation feedback order setting ...................................................................... 212
1.260 Pr3981 Smooth level of post-accelerated filter................................................................. 212
1.260.1 Descriptions for the value of the parameter.................................................................................................... 212
2.12.3.1 Type 1: ............................................................................................................................................................... 252
2.12.3.2 Type 2: ............................................................................................................................................................... 253
Refer to Table 1 for non-SUPER/SUPER-X/SUPER-X5, and Table 2 for SUPER/SUPER-X/SUPER-X5 slots.
•
When using custom IO comparison table, please set 100 (refer to Customized I/O Chart Manual1), valid
version:
•
IO, MPG, HK, RIO, M3-IO: starting at 10.116.38F/10.116.54D/10.118.0B/10.118.2
•
SRI: starting at 10.118.9
•
HK2:
•
M3(Pr9=105)starting at 10.118.23T,10.118.28H, 10.118.33
•
EtherCAT(Pr9=110)starting at 10.118.40
•
When the Next-generation controller is not connected to the HK-IO adapter module, please set Pr5 to 100,
and then set the hardware such as RIO, HK and MPG to -1 (Disable) in the I/O mapping table, otherwise, an
alarm OP-005 will occur.
•
Simulator or special needs forvirtual axis card, please set 9. (Note: Virtual IO means any IO (including
serial IO) will have no physical effect.)
•
For the communication specifications of M3-IO, please refer to Pr3261~Pr3263 *M3 IO broad station
Set the servo alarm type of all servo ports of Super(Servo6)/3/6/11 series controller and spindle port of 20/21
series.
0: Servo alarm is Normal Open;
1: Servo alarm is Normal Close;
2: Disable the servo alarm checking.
•
Function of disable servo alarmchecking is available in version:
Super(Servo6)/20 Series: 10.114.50P/10.114.56K/10.116.0H and later
3 Series: after 3.4.11 and later
6/11/21 Series: 1.0.11 and later
•
For Pulse Spindles, if Pr1791~(Spindle motor type) is 0 (inverter motor) or 2 (V speed control motor), servo
alarm checking is also disabled.
1.6 Pr11 Servo board clock source
NoDescriptionsRangeUnitDefaultEffective
11*Servo board clock source[0~2]-2restart
•
Set the servo board clock source:
0: The clock source of Embedded is from servo board;
1: The clock source of 486 motherboard is from shared IPC Bus;
2: For non-embedded controllers, the clock source is from share motherboard VIA clock.
Set the absolute encoder type:
0: Mitsubishi;
1: SANYO.
•
Note: This parameter is effective only when Pr201~Pr220 all set to"3: absolute encoder type".
•
Because the discontinuation of adapter board, SANYO absolute encoder is no longer supported.
1.10 Pr15 I/O board digital filter method
NoDescriptionsRangeUnitDefaultEffective
15I/O board digital filter method[0~3]-3reset
•
I/O board digital filter type. Larger value allows better noise filtering but reduces I/O signal sensitivity.
•
Pr15 = 0:
•
Version 10.118.22Z(4th), 10.118.24E, 10.118.28R, 10.118.39 and after:
•
Cancel filtering, I signal data will be received directly.
•
Version 10.118.22Z(3rd), 10.118.24D, 10.118.28Q, 10.118.38 and before:
•
When system input state is ON → If an OFF signal is received, system will check the previous
two signals. If any ofthe signals is OFF then system changes the input state to OFF.
•
When system input state is OFF → If an ON signal is received, system will check the previous
two signals. If any of the signalsis ON then system changes the input state to ON.
•
Pr15 = 1:
•
Version 10.118.22Z(4th), 10.118.24E, 10.118.28R, 10.118.39 and after:
When system input state is ON → If an OFF signal is received, system will check the previous
two signals. If any ofthe signals is OFF then system changes the input state to OFF.
•
When system input state is OFF → If an ON signal is received, system will check the previous
two signals. If any of the signalsis ON then system changes the input state to ON.
•
Version 10.118.22Z(3rd), 10.118.24D, 10.118.28Q, 10.118.38 and before:
•
When system input state is ON → If an OFF signal is received, system will check the previous
signal. If the previous signalare OFF then system changes the input state to OFF.
•
When system input state is OFF → If an ON signal is received, system will check the previous
signal. If the previous signalare ON then system changes the input state to ON.
•
Pr15 = 2:
•
When system input state is ON → If an OFF signal is received, system will check the previous three
signals. If all three signals are OFF then system changes the input state to OFF.
•
When system input state is OFF → If an ON signal is received, system will check the previous three
signals. If all three signals are ON then system changes the input state to ON.
•
Pr15 = 3:
•
When system input state is ON → If an OFF signal is received, system will check the previous five
signals. If all five signals are OFF then system changes the input state to OFF.
•
When system input state is OFF → If an ON signal is received, system will check the previous five
signals. If all five signals are ON then system changes the input state to ON.
Version 10.118.22Z(4th), 10.118.24E, 10.118.28R, 10.118.39 and after:
Version 10.118.22Z(3rd), 10.118.24D, 10.118.28Q, 10.118.38 and before:
This parameter affects the maximum distance of linear movement of a single block, regardless of metric or
inch unit:
Parameter ValueMax.Moving Distance
15000 (m)
2500 (m)
350 (m)
A move command cannot exceed this value.
For example: Pr17 = 2, unit in metric, Pr3241 = 0
G00 X600000 // will cause an overflow error
1.12 Pr18 HSHP chord error tolerance
NoDescriptionsRangeUnitDefaultEffective
18HSHP chord error tolerance[1~100]BLU15reset
•
This parameter determines the maximum permissible tolerance by using virtual arc to approach block path.
The larger the parameter, the more block junctions will be regarded as arcs; the smaller the parameter, the
more block junctions will be regarded as corner.
For related application, please refer to "EMC2_C009_High Speed and High Precision Parameter Settings".
•
This parameter is no longer available in versions 10.114.52 andlater.
1.13 Pr21~Pr40 * Axis corresponding axis card port number
NoDescriptionsrangeunitDefaultEffective
21~40*Port number of
corresponding axis
•
This parameter defines the axis board port(or bus communication station number) of command
output and encoder signal input of corresponding axes.
•
Only the port numbers 17 & 18 (virtual axes) can be repeatedly set. In multi-axis drives, the port number is
set to 1 & 1000 or 2 & 2000 are duplicate settings.
•
For 6D series (include -H), 20 series, 21 series (include -H), 200 series serial controller: parameter =19 means
Spindle Port (SPD); parameter = 20 means MPG Port.
•
Pulse Controllers:
This parameter is set to MM, which represents the axis card port number corresponding to the axis
(MM=0~20).
•
Serial Controllers:
a.
When using single-axis drive, this parameter is set to MM, which represents the corresponding drive
station number (MM=0~22). The corresponding number is as follows:
Servo Axis: For actual supported axis number, please refer toPr3203 Interpolation time interval(see
page 132).
Pulse Spindle: For RTEX/ECAT, at least oneServo Axis should be connected to enablePulse Spindle.
Virtual Axis: For RTEX/ECAT, at least oneServo Axis should be connectedto enable Virtual Axis.
Axis TypeSupportVirtual AxisAttention
CNC AxisO
SpindleOSetting Pr1791~ as 4( Syntec Spindle ) will issue alarm:
SPD-022 Pr1791~ sets as 4. Only support Syntec Inverter
Module.
SerialPLCAxisX
ATCAxisX
ROTAxisX
Setpoint AxisX
b.
When using the multi-axis drive, this parameter is set to MMnnn, which means the following:
MM: Primary station number (1~16), refer to the drive DIP switch setting instructions in the
Attention section.
nnn: Secondary station number (000~010)
Example: When using the Syntec M3 four-in-one drive, the axes function defined in Slave station is
as follows:
0: The 1st servo axis of the primary station number
1: The 2nd servo axis of the primary station
2: The 3rd servo axis of the primary station
3: The 4th servo axis of the primary station
7: The 1st monitoring axis of the primary station (the 1st servo axis of the primary station must be
enabled),serve as the second encoder feedback to the 1st servo axis.
8: The 2nd monitoring axis of the primary station (the 2nd servo axis of the primary station must be
enabled),serve as the second encoder feedback to the 2nd servo axis.
9: The 3rd monitoring axis of the primary station (the 3rd servo axis of the primary station must be
enabled),serve as the second encoder feedback to the 3rd servo axis.
10: The 4th monitoring axis of the primary station (the 4th servo axis of the primary station must be
enabled),serve as the second encoder feedback to the 4th servo axis.
Note: When using 3-in-1 drives, there are two types of setting of 3rd axis:
a. For a mini 3-in-1 drive (same power for 3 axes), set station number of 3rd axis as x002 (x is
primary station number).
b. For a large3-in-1 drive (3rd axis has different power than other axes), set station number of 3rd
axis as x003 (x is primary station number).
•
The SUPER controller can install up to four Servo4 axis cards at the once. Each axis card can control 4 axes;
therefore up to 16 axes can be controlled at the same time. The corresponding port number on each axis
card is as follows:
Before 10.116.36P version, the secondary station number must be set from 0 for multi-axis drive due
to hardware specification. Otherwise the controller will trigger OP-054 all-in-one device initialization
fail alarm.
(For example: When the controller only enables the 1st & 2nd axes, set Pr21 = 1001 and Pr22 =1002 which
secondary station number does not begin from 0, the OP-054 all-in-one device initialization failure alarm will
be triggered.)
This restriction is solved after this version, and the secondary station number is allowed to start from
When using Yaskawa M3 servo drives, the DIP switch consists of two knobs: S1 and S2.The physical diagram
is shown below.
In general, S1 should be fixed to 2, and S2 has different meanings in single-axis and 2-in-1 drive.
Yaskawa single-axis drive: S2 represents the drive port number. For example: If S2 is set to 3, the
corresponding axis Pr21~Pr40 is set to 3. (To use drive port number 16, change S1 to 3 and S2 to 0.)
Yaskawa two-in-one drive: S2 represents the PrimaryStation Number. For example: If S2 is set to 3, then
the corresponding two axial Pr21~Pr40 are set to 3000 and 3001 respectively. (To use the PrimaryStation
Number 16, set S1 to 3 and S2 to 0.)
[M2]
When using the Yaskawa M2 drive, the DIP switch consists of a knob and a toggle switch. The physical
diagram is shown below.
2.0.22External axis monitor
function
The multi-axis drive can monitor
the external axial feedback
signal through the setting of the
second encoder
[Yakawa Sigma 5 Drive]
S1 represents the drive port number. For example, if S1 is set to 3, the corresponding axis Pr21~Pr40 is set
to 3.
The toggle switch S2 is set according to the following table
S2 represents the drive port number. For example, if S2 is set to 3, the corresponding axis Pr21~Pr40 is set
to 3.
The toggle switch S3 is set according to the following table.
S3 Toggle SwitchesDrive Port No.
1234
ONONOFFOFF1~15
ONONONOFF16
•
Syntec Drive
When using Syntec drivers, the physical diagram of the dip switch on the preamp version is as follows.
The DIP switch has a total of 4 toggles, each toggle has two options: ON and OFF. Thus this DIP switch can
indicate 16 different primary station numbers.
The primary station number corresponding to the DIP switch toggle position is shown in the table below.
For example: If the primary station number is 1, the controller parameters should be set as follows:
ParameterValue
Pr211000
Pr221001
Pr231002
Pr241003
If the main station number is 2, then the parameters are changed as: Pr21=2000, Pr22=2001, Pr23=2002, and
Pr24=2003. Follow similar rule for other primary station numbers to set Pr21~Pr40.
•
EtherCAT
When using the ECAT drive, the station number cannot be set freely (DIP switches are invalid), and the drive
station number is defined by connection order as the diagram below.
This parameter can set the movement direction of motor on each axis:
0: do not reverse
1: reverse
•
If the bench movement direction is opposite to the command, change this parameter to correct polarity of
the axis card feed command; therefore to change the bench movement direction.
•
If the axis is the spindle and the spindle type (Pr1791~Pr1800) is one of the following three, this parameter
(Pr41~60) must be set to 0.
•
0: Inverter spindle
•
2: V speed control spindle
•
4: Syntec spindle
1.15 Pr61~Pr80 Axial encoder resolution
NoDescriptionsRangeUnitDefaultEffective
61~80Axis encoder resolution
(Encoder: pulse/rev; Scale:
pulse/mm)
•
Encoder resolution: When the sensor type (Pr20x) is rotary encoder, unit is Pulse/Rev; when the sensor type
is optical scale, the unit Pulse/mm (for rotary optical scale, this parameter is in units of Pulse/deg).
•
Please note that the parameter value is the single-phase (A or B-phase) signal resolution before scale factor.
•
Assume that the optical scale resolution is 1um/pulse (1mm/1000pulse), and the feedback scaling factor is
set to 4x (Pr8x=4). Set this parameter to 1000/4=250.;
•
Assume that the optical scale resolution is 10um/pulse (1mm/100pulse), and the feedbackscaling factor is
set to 4x (Pr8x=4). Please set this parameter to 100/4=25.
•
Compatibility change: From ver 10.116.10M/10.116.16D and later, the upper limit is increased from 2,500,000
to 67,108,864.
The scaling factor of the encoder feedback, can be set to 1x, 2x, and 4x.
1.17 Pr101~Pr120 Axial motor gain
NoNoRangeUnitDefaultEffective
101~120Axial motor gain[1~8000]RPM/V200Press Reset
•
The motor command gain, which is the motor RPM change per 1 volt of speed command change.
•
Note: Valid in voltage control mode
1.18 Pr121~Pr160 Axial screw side gear number/motor side gear number
NoDescriptionsRangeUnitDefaultEffective
121~160Axial screw side gear
number/motor side gear
number
•
To setup the gear ratio between the screw side to the motor side of transmission mechanism that allow
system to determine the speed ratio of the motor to the screw.
•
Number of gear tooth on screw side: Number of gear tooth on motor side = 2:1 → Motor speed: Screw speed
= 2:1.
[1~
999999999]
-1Press reset
1.19 Pr161~Pr180 Axial pitch amount (BLU)
NoDescriptionsRangeUnitDefaultEffective
161~180Axial pitch amount
(BLU)
•
Set the linear feed of the screw of one revolution.
•
If it is a rotary axis, this parameter represents the rotation feed of one revolution
•
When changing the control accuracy (Pr17), the set value must be corrected too.
•
The setting of this parameter will affect the spindle positioning angle (Pr1771~Pr1780 Spindle home
This parameter setting must be the same as the position loop gain value on the corresponding axial
drive (recommended for all feed axis).
b.
The system can calculate a reasonable servo tracking error through this parameter setting.
c.
When the output command is pulse (the drive is position control), this setting is only for the system
to monitor whether the motor motion is normal.
d.
When the output command is voltage (the drive is speed control), this set value is the position loop
control gain value of the servo system.
e.
When this parameter is greater than 1000, the system will divide this value by 1000 then input; and it
will remain unchanged when it is less than 1000 (EX: 78500 stands for78.5). Refer to System Data No.
352 to No. 367, these values are the actual position loop gain in steady state.
•
Under the pulse command mode(Pr381~ Pr400≠1), this parameter has two main functions:
a.
Use equationto calculate areasonable following error (System Data No. 32 to
No. 35), and compare with actual following error (System Data No. 8 to No. 11). When the difference
between the two is too large, a following error alarm will be triggered.
b.
When feed-forward compensation and SPA functions are enabled, the controller will use this
parameter to calculate the corresponding compensation to adjust the following and achieve better
control.
[1~1000000]1/sec30Press reset
•
Under the voltage command mode(Pr381~ Pr400=1), if the mechanical rigidity is better, the parameter can
be set higher to achieve better the machining accuracy. However, if the setting is too large, it may cause the
machine to vibrate.
•
In addition, the position loop gain of feed axes are generally set higher than the spindle. Therefore, to
achieve better accuracy during synchronous/fast tapping, the controller will automatically reduce servo
response of feed axes to match the position loop gain of spindle.
1.21 Pr201~Pr220 Axial sensor type
NoDescriptionsRangeUnitDefaultEffective
201~220Axis sensor type[0~4]-0Restart
•
Sensor Type:
a.
The Syntec controller can set the position feedback type to "0: General Encoder", "1: Optical Scale
(Ruler)", "2: No Feedback", "3:Absolute Encoder", or "4:Single Track Absolute Encoder".
To use absolute encoders, on pulse controllers (10 series, SUPER series, non-20 series) must use
Mitsubishi J2S/J3S/J4, and controller hardware required RS422 port; on serial controllers (20A/20B)
must use Yaskawa SIGMA-V.
c.
When this parameter is set 4 (to use single track absolute encoder), axis type(Pr221~) must be set to
5(rotary axis type E).
•
Notice:
a.
Under Absolute Encoder setting (Pr201~=3/4), dual feedback (PR241~≠0) function is not supported.
Only general encoder or optical scale (Pr201~=0/1) setting allow dual feedback function.
b.
When using the servo spindle, if the corresponding Pr201~Pr220Axial sensor type is "No Feedback"
and Pr1711~Pr1720 Spindle sensor existence is "Yes", then Pr1811~Pr1820 Spindle encoder mount
location have to be "Motor Side".
c.
The first soft stoke limit must be activated while using single-track absolute encoder; The parameter
setting of the First soft stoke limit must be less than the encoder resolution(BLU), relating toPr61~,
Pr121~, Pr161~. Otherwise, alarm MOT-072 will be triggered.
d.
Single Track Absolute Encoder is supported by the following communication protocol
In controller version from 10.116.15 to 10.116.16O, 10.116.24I, and10.116.29, Pr201~220 "Axis sensor
type" can be set to "4: Syntec Encoder (positive) " and "5: Syntec Encoder (reverse)". This function is
a special option dedicated to the chopping axis of the grinding machine which only applies to specific
machines. To avoid misuse, in 10.116.16P, 10.116.24J,10.116.30 and versions after, this parameter is
limited to [0-3]. Only the dedicated grinding software pack can use 4 and 5 to avoid user confusion.
b.
"4:Single Track Absolute Encoder" is supported from 10.118.28E and 10.118.32.
1.22 Pr221~Pr240 Axial type
NoDescriptionsRangeUnitDefaultEffective
221~240Axial type[0~5]-0Press Reset
•
Set to 0: Linear axis type
a.
Both the machine coordinates and the absolute coordinates are linear axis type.
b.
Accepts the metric/inch coordinate conversion function.
c.
The G28 and G30 reference point return commands are reset to the machine origin of the home
position return action.
d.
Support backlash compensation, pitch compensation and homing grid check function.
•
Set to 1: Rotary axis type A
a.
Both the machine coordinates and the absolute coordinates are in the rotary axis type.
b.
The coordinate value is always within 0 and +pitch.
c.
The absolute coordinate (G90) movement command +/- represents the position orientation.
d.
Unit is always in "degree" in the metric/inch unit system.
e.
The G28 and G30 reference point return commands will move the axis back to machine coordinate
zero in one revolution.
f.
Support backlash compensation, pitch compensation and homing grid check function.
g.
The absolute coordinate (G90) movement command supports automatic selection of the shortest
path function.
Both the machine coordinates and the absolute coordinates are in the rotary axis type.
b.
The coordinate value is always within 0 and +pitch.
c.
Absolute coordinates (G90) move command +/-, + means forward (turn to positive angle), represents reverse (turn to equivalent angle of the negative angle).
d.
Incremental (G91) movement command +/-, + means forward rotation, - represents reverse rotation
e.
Examples:
G90G91
Starting angleX=30.X=30.
ResultX=270. (equivalent to -90)X=300. (equivalent to -60)
Move commandX-90.X-90.
G90G91
Starting angleX=30.X=30.
ResultX90.X90.
Move commandX=90.X=120
f.
Unit is always in "degree" in the metric/inch unit system.
g.
The G28 and G30 reference point return commands will move the axis back to machine coordinate
zero in one revolution.
h.
Support backlash compensation, pitch compensation and homing grid check function.
•
Set to 3: Rotary axis type C
a.
Both the machine coordinates and the absolute coordinates are in the rotary axis type.
b.
The coordinate value is always within -pitch and +pitch.
c.
Unit is always in "degree" in the metric/inch unit system.
d.
The G28 and G30 reference point return commands will move the axis back to machine coordinate
zero in one revolution.
e.
Support backlash compensation, pitch compensation and homing grid check function.
f.
Absolute encoder does not support this type.
•
Set to 4: Rotary axis type D
a.
The machine coordinates are in rotary axis type and the absolute coordinates are linear axis type.
b.
The mechanical coordinate value is always within 0 and +pitch.
c.
Unit is always in "degree" in the metric/inch unit system.
d.
The G28 and G30 reference point return commands are reset to the machine origin of the home
position return action.
e.
Support backlash compensation, pitch compensation and homing grid check function.
•
Set to 5: (rotary axis type E)
a.
Both the machine coordinates and the absolute coordinates are linear axis types.
b.
Unit is always in "degree" in the metric/inch unit system.
The G28 and G30 reference point return commands are reset to the machine origin of the home
position return action.
d.
Support backlash compensation, pitch compensation and homing grid check function.
•
Note: pitch = Pr161~ / 1000 ( Ref.: Pr161~Pr180 Axial pitch amount (BLU)(see page 50) )
( The denominator 1000 in the above equation might vary according to the ratio between BLU and IU. Ref.:
Pr17 *Control precision(see page 41) )
Pr Value12453 (Note 1)
Absolute
Coordinate
Machine
Coordinate
Absolute
Command
0~+pitch0~±pitch * 10000~±pitch
beyond ±pitch back to
0°
0~+pitch0~±pitch *
1000
0~±pitch
beyond ±pitch back to
0°
The shortest
distance
(within 1/2
rev)
Use
command (+)
or (-) signs as
direction,
Same as linear axis motion,
move to command position
(maybe >1 rev)
Direct move to
command position
(within 2 rev)
move to the
closest
equivalent
angle
position of
command
(within one
circle)
Increment
Use command (+) or (-) signs as direction. Do increment movement.
Command
Reference Point
Return
Machine
Coordinate
Positioning
Move to mid-point by increment or absolute type command, then return to origin from
mid-point as Machine coordinate positioning.
The shortest distance (within 1/2 revolution)Same as
linear axis
motion,
move to
command
position
(maybe >1
rev)
Note1: Type C (parameter value = 3) is for special purpose machine, not for standard CNC.
1.23 Pr241~Pr260* Axial dual feedback related to port number
NoDescriptionsRangeUnitDefaultEffective
241~260Axis dual feedback related to port no.[0~20]-0Restart
•
This parameter sets the corresponding axis port number or subscription channel of the input signal of linear
scale or second encoder.
•
Setting specification limit
•
Pulse system, using dual feedback control mode, which is Pr681~ set as 0, this parameter sets the
port number of each axis, can refer to the description of Pr21~Pr40.
•
Serial system, using dual feedback detection mode, which is Pr681~ set as 1, this parameter sets the
subscription channel number 100+nnn, meaning as below;
•
nnn (001~004) choose the desired subscription channel, must confirm the subscribed data is
feedback info.
•
Dual feedback control mode is only for pulse board port , Pr681 should be set as 1 for serial
axis.
•
If parameter setting is not supported by the system, alarm OP-093 【Incorrect dual feedback setting】will be
issued.
1.24 Pr261~Pr280 Axial dual feedback resolution
NoDescriptionsRangeUnitDefaultEffective
261~280Axial dual feedback resolution[10~
2500000]
•
The dual feedback resolution is used to set the optical scale feedback resolution of each servo axis. Please
note that the parameter setting value is the single-phase (A-phase or B-phase) signal resolution before
scaling factor.
•
When the corresponding axis is a linear axis, the unit of this parameter is pulse/mm; if it is a rotary axis, the
unit is pulse/rev.
•
Example:
a.
Assume the optical scale resolution is 1um/pulse, i.e. 1mm/1000pulse, and the feedback scaling
factor is set to 4 times (Pr30x=4); then please set Pr26x to 1000/4=250;
b.
Assume the optical scale resolution is 10um/pulse, i.e. 1mm/100pulse, and the feedbackscaling
factor is set to 4 times (Pr30x=4); then please set Pr26x to 100/4=25.
c.
Assume the optical scale resolution is 1mdeg/pulse, i.e. 1 turn/360000pulse, and the feedbackscaling
factor is set to 4 times (Pr30x=4); then plelase set Pr26x to 360000/4=90000.
pulse/mm or
pulse/rev
250Press Reset
1.25 Pr281~Pr300 Axial dimension type (radius or diameter axis)
This parameter is for a specific axis of the lathe system is controlled as diameter positioning.
•
EX: Generally the X-axis of a standard lathe is controlled as diameter axis.
•
If the diameter positioning is turned on, the machine coordinate displayed on the main screen will be twice
of the actual movement distance. But System Data 72~ shows the coordinates of the actual movement.
•
EX: If the X axis is the diameter axis and a G01 X20. command is executed, System Data 72 and the
actual movement amount are both 10, but the machine coordinate is displayed as 20.
•
Pay more attention to pitch compensation of the lathe under diameter positioning. The correct
compensation amount should be entered according to the "actual movement distance" instead of using the
"machine coordinate" value directly.
These two parameters are for special functions. The system can change the resolution ratio between
"output command" and "encoder feedback" according to parameter ratio.
b.
Different setting value of two parameters will cause the number of command pulses and feedback
pulses unequal. For general machine without special purpose, it is recommended to set both
parameters to 1.
401Cutting acceleration and deceleration time[0~60000]ms300Press reset
•
Set the time required for each axis to accelerate to the maximum speed Pr405 in G01/G02/G03/G31 mode.
In other words, this parameter and Pr405 determine the maximum combined acceleration as:
1.31 Pr402 Acceleration accelerated to 1G time (Jerk)
NoDescriptionsRangeUnitDefaultEffective
402Time required for accelerate to
increase to 1G
•
Set the time required for the acceleration of each axis to increase to 1G in G01/G02/G03/G31 modes. In other
words, this parameter will determine the maximum combined jerk as:
This parameter can smoothen the speed command profile according to the current acceleration and
deceleration setting to reduce the fluctuation of speed command as well as machine shaking. The
recommended value is 10ms ~ 30ms.
•
Example:
The above figure shows the speed versus time diagram after the system acceleration profiling. If the acceleration/
deceleration time is set to zero, it means that this function is not activated. Non-zero value means that the
command profile is smoothened according to the specified time. Such as: Pr404 = 5ms (the command is averaged
5ms before and after)
Before turning from straight line to a corner, system can begin deceleration base on corner geometry and
slow down to a speed set by this parameter.
•
Before version 10.112.X, this reference speed is the maximum allowed turning speed for a 90 degree corner.
The recommended value was 500 mm/min.
•
After version 10.114.X , this reference speed is the maximum allowed turning speed for a 120 degree corner.
The recommended value is 200 mm/min.
•
After version 10.118.26, set this parameter to zero means disabling the corner speed limit function.
•
The higher the speed, the faster the machining program finishes; but the corners precision is worse. The
smaller the setting, the slower the corner speed is; but the corner precision is better.
•
Special Attention :
a.
If G61 or G09 in-position check are executed, the controller will automatically disable the corner
deceleration mechanism.
b.
If the corner deceleration function is not required, use maximum value for Pr406 and 408 to allow
machine to turn at a higher speed. But Pr404 Post-acceleration time need to be increased (i.e. for
Pr406=3000, increase Pr404 to 50 ms) to prevent excess acceleration & jerk to machine.
c.
If a program block includes auxiliary axis or rotary axis, user must set proper Pr601~620 to avoid
machine shaking due to excess acceleration. Suggested setting: 500 ms.
d.
Pr406 =0 means disabling the "combined" corner speed limit function,user must also set proper
Pr601~620 to avoid machine shaking due to excess acceleration. Suggested setting: 500 ms.
[6~ 3600000]mm/min500Press reset
1.35 Pr407 HPCC smoothing tolerance(um)
NoDescriptionsRangeUnitDefaultEffective
407HPCC smoothing tolerance[2~20]um3Press Reset
•
This parameter is valid only for G05, G06.2, and Smooth RTCP.
The user needs to enable the Option 11. This parameter is used to set the maximum tolerance between the
new path and the original path after the Nurbs fitting.
1.36 Pr408 Arc cutting reference speed of radius 5mm
NoDescriptionsRangeUnitDefaultEffective
408Arccutting reference speed of
radius 5mm
•
When cutting in a circular arc, the servo lag will cause the radius to shrink. The amount of shrinkage is:
[0~
3600000]
mm/
min
500reset
(T is the servo system time constant; V is the tangent speed; R is the radius)
•
With this relationship, the feed rate of any radius can be found under fixed internal shrinkage and the servo
characteristics. The relationship is as follows:
(The arc speed is direct proportional to the square root of the arc radius)
•
The reference circle radius of the controller is R
R
On the path with large curvature, the servo lag will decrease due to the deceleration; therefore the path
error is reduced, and the high precision is achieved.To meet higher need of precision, consider using SPA or
HPCC to further reduce errors or adjusting paths.
•
When using SPA (Pr3808), the command output of the controller contains the compensation of the servo lag,
so the machine will have larger acceleration. It is recommended to prolong the acceleration/deceleration
time (Pr401).
•
When moving on arc, the excess centrifugal force due to high turning speed often cause the structure to
skew and create wavy texture. Therefore, please check the rigidity of the structure before setting Pr408 to
prevent low surface quality.
1.37 Pr409 Thread cutting acceleration time of 1m/min (ms)
NoDescriptionsRangeUnitDefaultEffective
409Thread cutting acceleration
time of 1m/min
•
The parameter defines how much time required to accelerate to 1m/min speed under threading.
•
The acceleration setting during threading (G33 command) is defined by this parameter instead of Pr401 or
Pr541~.
When G28 or G53 commands are executed, system will do machine coordinate positioning (cancel tool
length compensation). If Pr412 is 0, the next block will cancel the tool length compensation; if Pr412 is 1, the
next block will restore the tool length compensation.
[0,1]-0Press Reset
1.41 Pr413 G92 coordinate persist mode
NoDescriptionsRangeUnitDefaultEffective
413G92 coordinate persist mode[0~2]-0Press Reset
•
This parameter is used to set the G92 (G92.1) coordinate persist mode:
•
0: Press "Reset" does not preserve the work coordinate offset defined by G92 (G92.1);
•
1: Press "Reset" preserves the work coordinate offset defined by G92 (G92.1), but reset after reboot
(power off);
•
2: Pressing "Reset" or power off will not reset the work coordinate defined by G92 (G92.1).
This parameter is used to set the workpiece coordinate persist mode:
•
0: Press "Reset" will switch to default workpiece coordinate system (G54);
•
1: Press "Reset" preserves the current workpiece coordinate system but switch to G54 when reboot
(power off);
•
2: Pressing "Reset" or power off will preserve current workpiece coordinate system
1.43 Pr415 Reserve current tool length after reset
NoDescriptionsRangeUnitDefaultDefault
415*Reserve current tool length
after reset
•
This parameter is used to set the current tool length data persist mode:
•
0: Pressing "Reset" or power OFF will reset the current tool length data
•
1: The current tool length data is preserved after pressing "Reset" or Power OFF.
[0~1]-0Restart
1.44 Pr416 Rigid tapping coupling time
NoDescriptionsRangeUnitDefaultEffective
416Rigid tapping coupling
time
•
This parameter is only applicable to inverter tapping (Pr1791=0). It determine the number of spindle
revolutions required for the feed axis to catch up with the spindle speed during tapping. The smaller the
parameter value, the higher the acceleration of the feed axis is, and more machine shaking can happen.
Otherwise, large set value reduces the accuracy of synchronous movement when entering the thread.
This parameter is for "following tapping" (Pr1791<3), its purpose is to adjust the feed axis following strength
(velocity loop gain) when spindle is in constant speed. The smaller the value, the more the feed axis falls
behind the spindle; otherwise, the feed axis fall behind less or even ahead of spindle axis.
1.46 Pr418 Rigid tapping acceleration/deceleration gain
NoDescriptionsRangeUnitDefaultEffective
418Rigid tapping acceleration
loop gain
•
This parameter is for "following tapping" (Pr1791<3) beforeversion 9.x, its purpose is to adjust the feed axis
following strength (acceleration loop gain) when spindle accelerates or decelerates. The smaller the value,
the more the feed axis falls behind the spindle; otherwise, the feed axis fall behind less or even ahead of
spindle axis.
[0~200]-0Press Reset
1.47 Pr419 Rigid tapping spindle deceleration time
NoDescriptionsRangeUnitDefaultEffective
419Rigid tapping spindle
deceleration time
•
This parameter for inverter tapping (Pr1791=0), its purpose is to adjust the depth of the feed axis of the
tapping. The larger the setting value, the shallower the depth; otherwise, depth overcut can occur.
•
In version 10.111.3 and before, this parameter applies to non-inverter tapping (Pr1791≠0). It is used to
calculate constant acceleration (A
[0~6000]ms0Press Reset
) limit profiling when tapping, the definition is:
max
1.48 Pr421~Pr440 Axial cutting in-position window
NoDescriptionsRangeUnitDefaultDefault
421~440Axial cutting in-position
window
•
This parameter sets the cutting position detection range defined by G09 or G61 blockswhen machining.
•
Within 2 seconds after the system stops the output command of the block, the system will continuously
check if the encoder feedback position is in the setting range. If within the range, system will immediately
send out the movement command of the next block; if outside the range after 2 seconds, system will trigger
alarm COR-75 "Exact Stop wait timeout".
1.49 Pr441~Pr460 Axial rapid travel (G00) acceleration time
NoDescriptionsRangeUnitDefaultEffective
441~460Axial rapid travel (G00)
acceleration time
•
Set the time required for each axis to accelerate to its maximum speed Pr461~ in G00 mode. I.e., this
parameter and Pr461~ decide the maximum acceleration when each axis G00 accelerates as:
•
The deceleration time in G00 mode (time required to decelerate from maximum speed Pr461~ to zero) is
based on Pr1521~ setting, factory setting of deceleration time is the same as acceleration time.
[0~60000]ms200reset
•
This parameter set the time required for each axis to accelerate to Pr461~ under Jog, Incremental jog, and
Homing mode. The maximum acceleration equals to the acceleration of G00.
Note: Acceleration and deceleration share this same maximum acceleration
•
The PLC axis control component calculates the acceleration and deceleration of Move Component also
refers to this parameter, but does not consider Pr461~.
Note: Acceleration and deceleration share this same maximum acceleration
1.50 Pr461~Pr480 Axial maximum rapid travel (G00) feedrate
This parameter sets the cutting position detection range defined by G09 or G61 blockswhen machining.
•
Within 2 seconds after the system stops the output command of the block, the system will continuously
check if the encoder feedback position is in the setting range. If within the range, system will immediately
send out the movement command of the next block; if outside the range after 2 seconds, system will trigger
alarm COR-75 "Exact Stop wait timeout".
Set the maximum travel speed of each axis in JOG mode.
•
When in MPG mode and Pr661~680 are 0, the MPG movement will also be limited by this speed.
•
For rotary axis, the unit is deg/min
6000Press Reset
1.54 Pr541~Pr560 Axial cutting acceleration time
NoDescriptionsRangeUnitDefaultDefault
541~560Axial cutting acceleration
time
•
Set each axis to accelerate to its maximum speed Pr621~ under G01/G31 mode. I.e., this parameter and
Pr621~ decide the maximum acceleration of each axis as:
[0~5000]ms50Press Reset
1.55 Pr561~Pr580 Axial loss pulse check window
NoDescriptionsRangeUnitDefaultEffective
561~580Axial loss pulse check
window
•
After the controller stops sending movement command for 1 sec, system will check if the error between
position feedback and the command exceeds the range set by this parameter. If it is, MOT-008 "Lost Pulse"
alarm will be triggered.
The controller will use parameter value to adjust speed command to improve motor's tracking of command,
then to reduce the servo error. The larger the set value, the smaller the error is; but notice it may cause the
machine to resonate.
1.57 Pr601~Pr620 Axial maximum corner reference feedrate
NoDescriptionsRangeUnitDefaultEffective
601~620Axial maximum corner
reference feedrate
•
Before turning into a corner from straight movement, system can decelerate according to corner geometry
and turn at the speed set by this parameter.
•
Before version 10.112.X, this reference speed was the maximum allowed turning speed at a 90 degree
corner. The recommended value was 500 mm/min.
•
After version 10.114.X, this reference speed is the maximum allowed turning speed at a 120 degree corner.
The recommended value is 500 mm/min.
•
The higher the speed, the faster the machining program finishes; but the corners precision is worse. The
smaller the setting, the slower the corner speed is; but the corner precision is better.
•
If it is a rotary axis, the unit is deg/min
•
Special Attention :
a.
If G61 or G09 in-position check are executed, the controller will automatically disable the corner
deceleration mechanism.
b.
If the corner deceleration function is not required, use maximum value for Pr406 and 408 to allow
machine to turn at a higher speed. But Pr404 Post-acceleration time need to be increased (i.e. for
Pr406=3000, increase Pr404 to 50 ms) to prevent excess acceleration & jerk to machine.
c.
If a program block includes auxiliary axis or rotary axis, user must set proper Pr601~620 to avoid
machine shaking due to excess acceleration. Suggested setting: 500 ms.
d.
Pr406 =0 means disabling the "combined" corner speed limit function,user must also set proper
Pr601~620 to avoid machine shaking due to excess acceleration. Suggested setting: 500 ms.
[6~3600000]mm/min360000Press Reset
1.58 Pr621~Pr640 Axial maximum cutting feedrate
NoDescriptionsRangeUnitDefaultEffective
621~640Axial maximum cutting feedrate[6~3600000]mm/min5000reset
•
Set the maximum cutting feedrate of each axis under G01/G31 mode.
1.59 Pr641~Pr660 Axial acceleration accelerated to 1G time (Jerk)
NoDescriptionsRangeUnitDefaultEffective
641~660Axial acceleration
accelerated to 1G time (Jerk)
•
Set the time required for the acceleration of each axis to increase to 1G in G01/G02/G03/G31 modes. In other
words, this parameter will determine the maximum jerk of a single axis as:
When moving with MPG, this parameter defines the maximum speed of the axis movement. When the
parameter is set to 0, the maximum speed will be defined by Pr521~540 (axial JOG speed).
•
For rotary axis, the unit is deg/min.
1.61 Pr681~Pr700 *Axis Dual Feedback Mode
NoDescriptionsRangeUnitDefaultEffective
681~700*Axis Dual Feedback Mode[0~1]-0Restart
•
This parameter determines the way in which the secondary feedback (if any) is treated:
0:CONTROL. The controller brings the secondary feedback into the control loop and hence the axis will be
under dual-feedback control.
1:DETECTION. The controller only takes the secondary feedback as an additional information (e.g. for
detection) and does NOT use it in the control loop.
Set the axis group (path) to which each axis belongs, where each axis group is represented in binary:
Bit 0 is the 1st axis group
Bit 1 is the 2nd axis group
Bit 2 s the 3rd axis group
Bit 3 s the 4th axis group
•
For example, Pr701=1 means that the X axis is only controlled by the 1st axis group; Pr701=3 means that the
X axis is controlled by the 1st/2nd axis group.
•
Notes:
•
When an axis belongs to multiple axis groups, prevent the case of multiple axis groups controlling
one axis at the same time when all axis groups are in Running state. The preferred case is to allow
only one axis group in Running state at once. For example, the X axis is controlled by 1st and 2nd axis
groups, first assign R21=1 and only run 1st axis group until it finish; then assign R21=2 and run 2nd
axis group.
•
If the axis group independent function is enabled (That is, Pr732 *MST channel rules of multi-
programs(see page 73) is set to 2), the system will not allow one axis to belong to multiple axis groups,
otherwise the alarm OP-099 Illegal Setting for Independent Axis Groups (Pr732=2)3 will be triggered.
1.63 Pr721~Pr730 Axis group MST channel No.
NoDescriptionsRangeUnitDefaultEffective
721~730*Axis group MST channel
No.
•
Set the MST channel corresponding to each axis group:
Note: This parameter is only valid when Pr732 *MST channel rules of multi-programs(see page 73) is set to zero.
If Pr732 is not zero, the Nth axis group is fixed to correspond to the Nth MST channel.
1.64 Pr731 *The number of axis group in CNC
NoDescriptionsRangeUnitDefaultEffective
731*The number of axis group in
CNC
•
Set the number of axis groups (paths) controlled by CNC main system. Other axis groups controlled by the
non-CNC main system can only be enabled by the PLC.
•
For example: Pr731=2 means that the CNC main system controls the 1st and 2nd axis groups, and the user
should follow the rules below to program:
•
In NC program, $1 and $2 are required to distinguish the sections for each axis group.
•
For the need of synchronizing two axis groups, G04.1 is the command.
[1~4]-2Restart
1.65 Pr732 *MST channel rules of multi-programs
NoDescriptionsRangeUnitDefaultEffective
732*MST channel rules of multi-
programs
•
Set the rules for the multi-program MST channels.
•
When the parameter is 0, the MST channels of axis groups are "Pr721~Pr730 * MST channel corresponding to
the axis group"; the details are as follows:
a.
Only the 1st MST channel supports M00/M01/M02/M30.
b.
When the 1st MST channel executes M00/M01 and become Block Stop state, the state is valid for all
main system axis groups.
c.
When the 1st MST channel executes M02/M30 and Reset, the state is valid for all axis groups.
d.
When the main program executes M99, it returns to the program start; but multi main system axis
groups return separately. To have them return together, use G04.1 to synchronize.
[0~2]-0Restart
•
When the parameter is 1, each axis group has independent MST channel:1st MST channel for 1st axis group,
and 2nd MST channel for 2nd axis group, and so on. The detailsares as follows:
a.
All MST channels support M00/M01/M02/M30.
b.
When the 1st MST channel executes M00/M01 and become Block Stop state, only the axis group of the
1st MST channel is affected. Same to other channels.
c.
Each channel's M01 uses the same C44 signal.
d.
When the 1st MST channel performs M02/M30 and Reset, only the axis group of the 1st MST channel is
affected. and so on.Same to other channels.
e.
The 2nd to 4th MST channels support M00/M01/M02/M30 read flags:
•
M00 read flag of 2nd to 4th MST channels: R615.12/R619.12/R623.12。
•
M01 read flag of2nd to 4th MST channels: R615.13/R619.13/R623.13。
•
M02 read flag of2nd to 4th MST channels: R615.14/R619.14/R623.14。
•
M30 read flag of2nd to 4th MST channels: R615.15/R619.15/R623.15。
When C15 is ON, the main program M30 will support the function to return to start and
continue.
g.
Notice:
•
Multiple main system axis groups can use different program ending M codes (e.g. $1 uses M30,
$2 uses M99); but it is not recommended to program in this way. In more complex cases, each
axis group may have unexpected actions.
•
[Example] There are two main system axis groups, 1st axis group ends with M30, 2nd axis
group ends with M99; Pr3804 workpiece count M code number is 30, enable C039 to enter
Bock Stop with workpiece count M code.
•
Case 1: If C15 is OFF, M30 performs "Reset" and "C039 to enter Block Stop with
workpiece count M code" is disabled. When the 1st axis group executes M30 to reset
the 1st axis group, The 2nd main system axis group will still resume program
processing.
•
Case 2: If C15 is ON, M30 executes "Return program start", use G04.1 to have axis
groups wait for each other before the ending M code; when the first main system axis
group executes M30 to enter Block Stop state with workpiece counts M code, the Block
Stop position of the 2nd axis group may not be as expected.
•
It is not supported when the Halted point return function is enabled (Pr3852=1), i.e., the M
code in pause point return Macro (O888801) is invalid.
•
When the parameter value is 2, whether it is the main system axis group or the non-main system axis group,
each axis group will operate completely independently. The detailed description is as follows:
a.
The first axis group uses the first MST channel; the second axis group uses the second MST channel,
and so on.
b.
All MST channels support M00/M01/M02/M30.
c.
When the Nth MST channel executes M00/M01 and enters the single-block stop state, only the axis
group of the Nth MST channel is valid.
d.
Each channel has its own interface control M01 selective stop (the first to fourth axis groups are C44,
R530.8, R540.8, R550.8 in order).
e.
When the Nth MST channel executes M02/M30 and Reset, only the axis group of the Nth MST channel
is valid.
f.
The second to fourth MST channels support M00/M01/M02/M30 reading flags:
•
The M00 read flag of the second to fourth MST channels: R615.12/R619.12/R623.12.
•
The M01 reading flags of the second to fourth MST channels: R615.13/R619.13/R623.13.
•
The M02 reading flags of the second to fourth MST channels: R615.14/R619.14/R623.14.
•
The M30 reading flags of the second to fourth MST channels: R615.15/R619.15/R623.15.
g.
The mode of each axis group is independent. (The first to fourth axis groups use R13, R537, R547, and
R557 to switch modes respectively)
h.
The status of each axis group is independent.
•
Processing/pause/single block stop of the first axis group: S0, S1, S2.
•
Processing/pause/single block stop of the second axis group: R531.0, R531.1, R531.3.
•
The third axis group is processing/pause/single block stop: R541.0, R541.1, R541.3.
•
Processing/pause/single block stop of the fourth axis group: R551.0, R551.1, R551.3.
i.
The auto mode magnification of each axis group is independent. (The first to fourth axis groups use
R16, R533, R543, and R553 respectively to control G00 magnification; use R18, R534, R544, R554 to
control G01/G02/G03 magnification)
j.
The workpiece counts of each axis group are independent.
k.
The alarms of each axis group are independent: an alarm occurs in the A axis group, and only the A
axis group will be affected (enter Feedhold or not ready), and other axis groups continue to operate.
When this parameter is set to 2, the system will ignore the setting of Pr741 *non-primary
system axis group rule. That is, the main system axis group and the non-main system axis
group will operate independently.
•
One axis is not allowed to belong to multiple axis groups, otherwise the alarm OP-099
independent axis group check error will be skipped.
•
It is not allowed to use the axis exchange and axis coupling functions across axis groups,
otherwise the alarm OP-099 independent axis group check error will be skipped.
m.
Supported version: 10.118.41M, 10.118.47 and later versions. If you use the 10.118.41M, 10.118.47
version and set the parameter to 2, and then return to the old version, there will be no axis group
independent function, and Pr732 will be changed back to the default value 0.
HC &FC (11 Models):HC-8A、HC-10A、HC-8C、HC-10C、HC-15C、 HC-8E、HC-10E、
HC-15E、FC-A、FC-B、FC-C。
iv.
Robot (1 Model):81RG。
v.
Wood (5 Models):60W-E、600WA、60WA、610WA-H、610WB-H。
vi.
GlassGrind (1 Model):21GA-E。
1.66 Pr733~Pr734 *Loader axis group
NoDescriptionsRangeUnitDefaultEffective
733~734*Loader axis group[0~4]-0restart
•
This parameter assigns axis groups to the Loader axis groups. If value is 0, then disable Loader axis group
function.
•
Example: When Pr733 or Pr734 is 2, the 2nd axis group is assigned as Loader axis group.
•
Before using the Loader axis group, Option-20 must be activated to enable the five additional axes in the
parameter screen. But the max number of controller axes is still 18.
•
Example: The controller already has 14 axes. Only 18 axis are visible in parameters after activating
Option-20, not 19.
•
The Loader axis group can be the main system axis group or the non-main system axis group, and the setting
is the same as the multiple main axis groups.
•
If the Loader axis group is a non-main system axis group, use PLC to trigger its action.
•
If the axis belongs to Loader axis group is shared with the general system axis group, and the number of axes
exceeds the upper limit the model can have, "OP-029 CNC axis over system support" alarm will be triggered.
•
Example: The 21TA supports four axes in main axis group, and the 2nd axis group is assigned as the
Loader axis group. When the main system has four axes (Pr701~704=1), if any axis in the Loader axis
group is shared by both 1st and 2nd axis groups (Pr705=3), the OP-029 alarm will be triggered.
•
Loader axis group has limits as follows:
•
Only G00, G01, G02, G03, G04, G04.1, G09, G10, G17/18/19, G22/23, G31, G52, G53, G54.x/
55/56/57/58/59/59.x, G90/91, G92 are supported.
•
The default is G94 mode (feed per minute)
•
Does not support High Speed and High Precision related functions
•
G code MACRO function not supported
•
If this parameter is not displayed in the parameter screen, then this model does not support Loader
function.
This parameter determines which axis group is set as the woodworking labeling axis group. If parameter is 0,
the woodworking labeling axis group function is disabled.
•
Example: When Pr737 is 2, it means the 2nd axis group is designated as the woodworking labeling
axis group.
•
The woodworking labeling axis group can be used with Option-37 "Woodworking Automatic Labeling
Function" to enable the additional two-axis, but notice the controller's max number of axes is still 18.
•
Example: The controller has been expanded to 18 axes. After Option-37 is enabled, there are still 18
usable axes, not 20.
•
The woodworking labeling axis group can be a main system axis group or the non-main system axis group,
and the setting is the same as the multi-axis group.
•
If the woodworking labeling axis group is set to a non-main system axis group, use PLC to trigger
relevant action
•
If an axis belongs to the woodworking labeling axis group is shared with other general system axis group
(Pr701~Pr720 Axis associated axis group), and exceeds the max allowed axis number of the model, alarm
"OP-029 The number of CNC axes exceed system specification" will be triggered.
•
Example: The 21TA supports four general axes, and the 2nd axial group is designated as a
woodworking labeling axis group. Set axis 1~4 as the main system axis group (Pr701~704=1), and
then set any axis in the woodworking labeling axis group (assume axis 5) to be shared by the 1st and
2nd axis groups (Pr705=3), OP-029 alarm will be triggered.
•
The Woodworking Labeling Axis Group has limits are as follows
•
Only G00, G01, G02, G03, G04, G04.1, G09, G10, G17/18/19, G22/23, G31, G52, G53, G54.x/
55/56/57/58/59/59.x, G90/91, G92 are provided.
•
The default is G94 mode (feed per minute)
•
Does not support High Speed and High Precision related functions
•
Milling machine G code MACRO function is not provided
•
If Pr737 is not displayed in the parameter page, then this function is not supported by this model.
•
The following controller models support the woodworking labeling axis group function:
Remainthe original rule. When the system has normal axis type (including servo driver type) alarm, it
will stop all axis group movement. Furthermore, if the system has critical alarm, then the system
status will be not ready.
•
1: Independent loader (woodworking labeling) axis group; the details are as follows:
a.
This parameter value allows loader (woodworking labeling) axis group of non-primary to be
independent operation, and others remained following theoriginal rule.
Normal axis groupOriginal ruleOriginal rule
Loader (woodworking labeling)
axis group
b.
The "loader (woodworking labeling) axis group of non-primary" has normal axis type (including servo
driver type) alarm, it will stop only itself axis group movement. Furthermore, if independent axis
group has critical alarm, then only itself status will be not ready. The independent axis group do not
impact on others axis group status, and others axis group also do not impact on its status.
c.
Attention note
i.
The axis group of independent operation is inhibited to do "one axis for multiple axis groups",
"axis exchange", "axis coupling", "spindle synchronization" applications, and is also inhibited
to use setpoint axis. Otherwise, the system triggers 【OP-097 Independent axis group check
error】alarm.
ii.
The axis group of independent operation do not use R791~ to select machining spindle for axis
group. In the other word, the R791~ setting is not effective.
iii.
The axis group of independent operation, which command and state reference "R520~
Command Register" and "R521~ State Register".
iv.
The ready, not ready and busy status... for system display, which only represents current
status of primary axis group, excluding the axis group of independent operation. The user has
to write PLC ladder for independent axis group, and use Rbit of above description to make a
decision and perform.
v.
When the axis group of independent operation has alarm, only display alarm message box.
The alarm light at bottom right corner of system main page, which only represents "Primary
axis group + Normal axis group of Non-primary" whether has in alarm or warning, excluding
independent axis group.
1.
e.g.When Pr741 is 1, there may be alarm message box for axis group of independent
operation, but coordinates of primary axis group are still updatingand status is busy.
During Homing, this parameter will determine the direction of Home Switch.
1.73 Pr881~Pr900 Axial home offset
NoExplanationRangeUnitDefaultEffective
[0,1]0Press Reset
881~900Axial home offset[-99999999
~99999999]
•
This parameter must be used with Pr961~Pr980 Axial home search method.
a.
Pr961~Pr980 is 0, 1, 5: When a axis finds the encoder index signal, the system will move the axis to the
position according to the home offset, and then set Machine Coordinateas "Zero" at this position.
b.
Pr961~Pr980 is 2: When a axis finds the encoder index signal, the system will move the axis to the
encoder index signal position, and then set Machine Coordinates according to the offset.
c.
Pr961~Pr980 is 3: When a axis leaves the Home Switch (DOG),the system will move the axis to the
position according to the home offset, and then set Machine Coordinateas "Zero" at this position.
For serial drives, note the home offset of the spindle and C axis (Pr1771~, Pr881~) must be the same. For
example, when axis 6 is is used as 1st spindle, the value of Pr886 must be the same as Pr1771. Otherwise the
position the spindle positioning (C61) and the axis homing will be different.
•
For absolute encoders, if Pr961~Pr980 is 4, this function is invalid; ifPr961~Pr980 is 5, the corresponding axis
needs to redo homing again after modifying this parameter;
•
For incremental encoders, the corresponding axis needs to redo homing after modifying this parameter. (for
ver. 116.26D, 116.36O and later, the corresponding S16~ and S140~ will be cleared).
1.74 Pr901~Pr920 Axis zero speed check window
NoDescriptionsRangeUnitDefaultEffective
901~920Axis zero speed check window (count)[3~10000]Pulse3Press Reset
Controller will check if the motor is at zero speed after all position commands are finished, and its check
standard is based on the parameter setting range. If the encoder feedback value is within this range, the
motor is judged as stationary; If it is exceeded, system will trigger an alarm and stop the subsequent action.
•
The resolution of the pulse-feedback and serial encoders are different, and the unit of this parameter is
pulse. Therefore the parameter value should match different encoder resolution, and the conversion
formula is as follows:
a.
(Spindle) Pr901 of Serial= Pr901 of Pulse * Serial encoder resolution / 4096
b.
(Axial) Pr901 of Serial = Pr901 of Pulse * Serial encoder resolution / 10000
Note: The resolution of the encoder is fixed. The parameters are often set as : Axis encoder resolution
(Pr61~) * Axial feedback scaling factor (Pr81~), i.e. the resolution after scaling factor.
•
The following is a general-to-serial conversion table:
Example:
The pulse feedback initial value of Pr901=3, how to set the corresponding value of Pr901 if converted to
serial encoders?
a.
If the drive is Yaskawa M2 Sigma 5 as general axis, the encoder resolution is 1048576. The
corresponding Pr901 = 314 ( = 3 *1048576 / 10000 ) from table above.
b.
If the drive is Syntec M2 as spindle, 124-pole magnet ring encoder, the resolution is 507904. The
corresponding Pr901 = 372 ( = 3 *507904 / 4096 ) from the table above.
1.75 Pr921~Pr940 Home dog polarity
NoDescriptionsRangeUnitDefaultEffective
921~940Home dog polarity (0: positive;
1: negative)
•
Set HOME DOG polarity, normal mechanical switches are usually NORMAL CLOSE, but proximity switches are
NORMAL OPEN.
[0~1]-0reset
1.76 Pr941~Pr960 Enable axis home grid function
NoDescriptionsRangeUnitDefaultEffective
941~960Enable axis home grid
function
•
Enable axis home grid function
0: Disable
1: Enable
•
After enabling axis home grid function, if the grid value is smaller than 50% (half rev of motor), controller
will ignore this index signal and find the next index as axis home position.
•
Definition of Home Grid:
The revolution number of motor when it leaves Home Dog and reaches the first index. It is shown on System
Data 56~59, unit is %. That is, 25 is 1/4 rev and 50 is 1/2 rev.
•
When home search method (Pr961~) is 3, this function is disabled.
This parameter decides the home search (homing) method of each axis:
0: With Home Dog switch, suitable for linear axis or rotary axis with integer gear ratio. After reaching Index
signal, the axis is moved to a position according to Home Offset, and then set Machine Coordinate to zero.
1: With Index Signal, suitable for linear axis with gear ratio of 1; or rotary axis with table-motor gear ratio is a
integer≥1. After reaching Index signal,the axis is moved to a position according to Home Offset, and then
set Machine Coordinate to zero after position arrived.
2: With Home Dog switch, suitable for linear axisor rotary axis with integer gear ratio.After reaching Index
signal, the axis will stay on Index position and set corresponding Machine Coordinate according to Home
Offset value.
3: With Home Dog switch but no Index signal, suitable for rotary axis with gear ratio ≠ 1.After reaching
Home Dog switch,the axis is moved to a position according to Home Offset, and then set Machine
Coordinate to zero.
4: Absolute encoder index. Users have to move the axis to the marked position made beforehand before
triggering home searching.After reaching Index signal, the axis will stop at the index signal. The Machine
Coordinate will then be set to zero. Note that the Home Offset is INVALID.
5: Absolute encoder with Home Dog switch.After reaching Index signal, the axis is moved to a position
according to Home Offset, and then set Machine Coordinate to zero after offset position arrived.
6: Absolute encoder index with offset supported. Users have to move the axis to the marked position made
beforehand before triggering home searching. Afterreaching Index signal, the axis will continue to move by
the amount of Home Offset. The Machine Coordinate will then be set to zero.
[0~6]-0Press Reset
•
In 116.10K, 116.16B and later versions, if encoder type is absolute (Pr201~=3), the axial homing action
mentioned above will NOT be executed.
•
Home searching with an absolute encoder is supported in the following versions. In these cases Pr201~
MUST be set to 3 and the home searching process can ONLY be triggered by pressing F1-Search/Set
Machine Zeroon page "Absolute Home Setup". Fore more information, please refer to 5. Serial Parameter
Screen (10.116.54L~)4:
a.
Case 4 (Setting Pr961~ to 4) is supported in 116.54L, 118.0G, 118.7 and later.
b.
Case 5 (Setting Pr961~ to 5) is supported in 116.54S, 118.12 and later.
c.
Case 6 (Setting Pr961~ to 6) is supported in118.28A and later.
This parameter is used to determine the number of protective revs of the second travel of axis homing. If the
axis has not left Home Dog switch after the number of revolutions during second travel of homing, alarm
MOT-036 "Can't leave home dog" will be triggered.
•
This parameter is only valid under the following parameter settings:
•
Pr201~Pr220 Axial sensor type is 0 (encoder), and the Pr961~Pr980 home searching method is set to
0, 2, 3 (with DOG switch)
•
Pr201~Pr220Axial sensor type is 3 (absolute encoder), and the Pr961~Pr980 homing method is set to
5 (absolute type DOG switch)
•
After version 10.114,homing 2nd protect revolution is no longer checked when the Pr201~ Axial sensor type
is set to 1 (optical scale).
[1~999999]Rev5Press Reset
1.79 Pr1001~Pr1020 Axial fast return home
NoDescriptionsRangeUnitDefaultEffective
1001~1020Axial fast return home (0:
OFF; 1: ON)
[0~1]-0Restart
•
This parameter is used to determine whether the fast return home function is enabled for each axis. The
default is OFF for the compatibility of homing function. The action specifications of enabling fast return
home function (Pr100x=1) is as follows:
a.
Before the machine has executed the first homing, i.e. when the machine zero is not established
(S16~S19/S140~S151 Off), if homing is triggered (in Home mode R13=7 and press JOG), then the
controller will perform homing based on home searching method (Pr961~) setting and first & second
homing speeds (Pr821~ and Pr841~ respectively).
b.
After the machine has executed the first homing, i.e. when the machine zero is established (S16~S19/
S140~S151 On), if homing is triggered (in Home mode R13=7 and press JOG), the machine will not
repeat homing action to return to machine zero again, but will return directly to the machine zero at
the G00 rapid travel speed (Pr461~), and this speed is affected by the G0 override.
1.80 Pr1021~Pr1040 Position offset check window during power off (BLU)
This parameter will take effect only when the absolute zero has been set. If it is set to 0, it will not be
checked.
•
If the movement of the CNC axis during power off exceeds the range set by this parameter, the
corresponding bit of R940 will be ON when controller boots up, and the bit can only be turn release by
triggering C84.
•
The parameter unit is BLU. Modifying Pr17 or switching metric/imperial unit will also affect the actual
protection range.
•
Valid version starts at 10.116.36I
Examples:
1.
Confirm that the absolute zero has been set and functions normally.
2.
Set Pr1021~Pr1040 for each axis according to machine condition, this function will be automatically valid
after parameter set. The position offset will be checked according to the setting at next boot up.
3.
Monitor the R940 value with PLC. If it is non-zero when system boot up, it means that the axis has excess
movement during power off. For the details of R940 value, please refer toPLC Interface.
4.
Please re-confirm the zero position and confirm its position is normal. Trigger C84 to clear R940 value.
Setting Reference (select one from below):
SettingSuitable ConditionCalculation
[0~99999999]BLU0Press Reset
5
1Equal to axial screw pitch
setting
Machines which always ServoOff and completely stop before
Pr1021~ = Pr161~
power off.
2Equal to G00
deceleration distance
Machines that may power off
during machining
Use constant acceleration equation
to estimate the distance to
decelerate to zero. Example: a
metric linear axis:
Pr1021~ = Precision Factor
(Note)
*
0.5 * Pr441~ * Pr461~ / 60
3Custom rangeMachine may be moved by
external forces after power off
Pr1021~ Please set according to the
possible movement distance after
the power off.
Because the encoder feedback position is stored in 32-bit (ULONG) variable, this setting value should not exceed
half of 32-bit otherwise protection is not effective. The calculation is as follows:
If parameter is not 0, when an abnormal drive power off (not an "Not Rdy" state), the axial retract will be
performed, and the +/- signs represent the retract direction.
•
If the power is turned off at "Not Rdy" state, retract will not happen.
•
Axis will be stopped before performing retract .
•
Only Syntec M3 drives support this function, and the firmware version must be 2.10, 1, 2.11.0 or above.
•
If this function is enabled on an unsupported drive, MOT-65 alarm will be triggered but will not enter "Not
Rdy” state.
•
The power-off retract speed profile is defined by 0.1 times of M3 drive parameter Pn-306 Max Acceleration
and Pn-307 Max Jerk.
in cutting mode (G01/G02/G03) or JOG movement, compensates at the moment of reverting direction
with additional Pr1261~ amount.
•
Description of Box Way Compensation Mechanism
•
A relative displacements can happen when machine decelerates and stops.
When an axis decelerate and stop under cutting mode (G01), almost no relative displacement
between screw and bench has occurred due to the lower inertia.
When an axis decelerate and stop under rapid traverse mode (G00), the bench will move an extra
distance after motor stop due to the higher inertia.
•
An excessively large relative displacement is regarded as same directional backlash, this case can be
treated with Box Way Compensation.
•
The backlash compensation amount of different direction under "Rapid Traverse" and "Cutting"
modes are in the table below: Assume No1241 = B, No1261 = A
As figure above, assuming the machine completed homing and start movement or machining.
G01 mode, moves in the same direction as the homing, no compensation needed due to lower speed
and stopping inertia
G01 mode, moves in theoppositedirection as homing, A amount compensation is required to
overcome backlash.
G00 mode, moves in the same direction as homing,position command should subtract 0.5*(A-B)
amount to avoid excess movement due to higher speed and stopping inertia.
G00 mode, moves in theoppositedirection as homing,a compensation amount of A-0.5*(A-B) =
0.5*(A+B) is applied to overcome backlash and inertia.
P.s. Notice Pr1241~ is not the compensation value, but to be calculated by Pr1261 and the excess
movement caused by inertia. E.g. Pr1261=10, excess movement =2, then Pr1241 =6.
•
Compatibility
•
From version 10.112.0 to 10.116.23, the relation between backlash compensation and speed is
exponential. High speed (G00) backlash is Pr1241~, low speed (F10) backlash is Pr1261~, and
exponential conversion constant is Pr1281~.
•
In version 10.112.45 and earlier, Pr1261~ and Pr1281~ must be set 0 for Linear Way Compensation
Mechanism so controller only uses Pr1241~ to compensate.
When Linear Way Compensation Mechanism is enabled, Pr1241~ is used to compensate backlash of Rapid
Traverse, Cutting or Jog movements.
•
When Box Way Compensation Mechanism is enabled, the backlash compensation is calculated base on
Pr1241~, Pr1261~, and movement direction. Refer ro Pr1221~ for detail.
•
Compatibility
•
From version 10.112.0 to 10.116.23, this parameter is the amount of backlash compensation when
axis movement reverts under high speed (G00).
When Box Way Compensation Mechanism is enabled, this parameter is the amount of movement to
compensate backlash when axis movement reverts under cutting mode (G01/G02/G03).
•
Conmpatibility
•
From version 10.112.0 to 10.116.23, this parameter is the amount of backlash compensation when
axis movement reverts at low speed (F10).
The backlash and the speed is a exponential relation, this parameter decides backlash converge speed. If the
value is bigger, the converge speed is faster.
•
When Pr1281~ are zero, controller will still follow default value 800 to process compensation amount
estimation. But other values will not.
•
Compatibility:
•
Valid from version 10.112.0.
•
In version 10.116.24 and later, this parameter no longer affects backlash compensation.
This parameter determines the unit length of pitch compensation, and also the maximum compensation
length of this axis. Because each axis can have up to 100 pitch compensation intervals.
•
Example: Assume Pr1321=20000, Pr17=2, it means the interval between each compensation is 20mm.
Therefore the pitch compensation of first axis can cover a screw length of 20000um*100 points=2m.
•
In version 10.114.15 and before, only 6 axes are supported; in version 114.16 and after, it is expanded to 10
axes.
[1000~ 99999999]BLU25000Press Reset
1.88 Pr1341~Pr1360 Table index for reference (home)
NoDescriptionsRangeUnitDefaultEffective
1341~1360Table index for reference
(home)
•
This parameter determines the corresponding number of the axis zero in the pitch compensation table.
Default value is 50, it means cell 50~100 are positive and 1~49 are negative.
•
Syntec controller provides 100 points (cells) for compensation in each axis, please adjust table index number
when table cells are insufficient.
•
Example: If Pr1341=1, then cell 2~100 are positive. Therefore, 99 cells can be used for compensation.
•
In version 10.114.15 and before, only 6 axes are supported; after 10.114.16, it is expanded to 10 axes.
[1~100]-50Press Reset
1.89 Pr1361~Pr1380 Axis quad-peak error compensation from negative
to positive direction
NoDescriptionsRangeUnitDefaultEffective
1361~1380Axis quad- peak error
compensation from negative to
positive direction
[0~9999]BLU0Reset
•
This parameter defines the compensation amount which controller sends out at the moment when the axis
moves from negative to positive. The larger the value, the quad-peak is suppress more; but excess value will
cause concave.
1.90 Pr1381~Pr1400 Axis quad-peak error second hold time
NoDescriptionsRangeUnitDefaultEffective
1381~1400Axis quad-peak error
second hold time
•
The quad-peak error second hold time prevent the 2nd time stopping occurs at the moment when quadpeak compensation command finishes. Notice excess value will cause concave, the suggest the value is
10ms.
[0~60000]ms100Press Reset
1.91 Pr1401~Pr1420 Axis mechanical compensation time constant
No.DescriptionRangeUnitDefaultEffective
1401~1420Axis mechanical
compensation time
constant
•
Mechanical compensation (backlash, pitch, temperature) commands is profiled as an exponential curve,
this parameter determines the time constant (ms) of the curve.
•
The lower the value, the less time needed to complete the compensation, but the machine is more likely to
shake. The suggested setting value is 10ms.
•
When set to 0, the compensation will be completed immediately, won't beprofiled as an exponential curve.
This parameter defines the maximum allowed error between 1st and 2nd feedback of an axis in static state.
1.93 Pr1441~Pr1460 Axis quad-peak error compensation from positive to
negative direction
NoDescriptionsRangeUnitDefaultEffective
1441~1460Axis quad-peak error
compensation from positive to
negative direction
•
This parameter defines the compensation amount which controller sends out at the moment when the axis
moves from positive to negative. The larger the value, the quad-peak is suppress more; but excess value will
cause concave.
[0~9999]BLU0Reset
1.94 Pr1461~Pr1480 Axis quad-peak error hold time
NoDescriptionsRangeUnitDefaultEffective
1461~1480Axis quad-peak error
hold time
•
The quad-peak error hold time defines the 1st hold time of quad-peak compensation. The larger the value,
the more quad-peak error is suppressed. Notice excess value will cause concave, the suggested value is
1000/Pr18~ (axis servo loop gain).
[0~60000]ms0Press Reset
1.95 Pr1481~Pr1490 *Straightness offset moving axis number and
A set of straightness compensation is composed of a moving axis and a compensation axis. A total of 5 sets
of straightness compensation are available.
•
Note:
a.
A moving axis cannot be a compensating axis.
b.
A compensation axis can correspond to only 1 moving axis.
[0~20]-0Restart
1.96 Pr1521~Pr1540 Axial rapid traverse (G00) deceleration time ratio
NoDescriptionsRangeUnitDefaultEffective
1521~1540Axial rapid traverse
deceleration time ratio
•
The time required for each axis to be decelerated to zero from the maximum speed Pr461~ in G00 mode is
called deceleration time, and the parameter defines ratio relative to acceleration time Pr441~.
•
Example:
Taking the acceleration and deceleration of the first axial direction as an example
If Pr441 = 100 (ms); Pr1521 = 50 (%), deceleration time = 100 (ms) * 50 (%) = 50 (ms), deceleration is twice as
fast as acceleration
If Pr441 = 100 (ms); Pr1521 = 300 (%), deceleration time = 100 (ms) * 300 (%) = 300 (ms), deceleration is three
times slower than acceleration
[50~500]%100Press Reset
1.97 Pr1621~Pr1630 Axis ID or Port Number for Spindle
NoDescriptionsRangeUnitDefaultEffective
1621~1630*Axis ID or Port Number
for Spindle
•
When the spindle motor type is set to inverter spindle mode (Pr1791~ = 0), set this parameter to the
corresponding port number on the axis card:
•
For serial controllers, acceptable values of this parameter are 17~20. Setting this parameter to 1~16 is
NOT allowed.
•
Fore more information about the setting of DA ports, please refer to2DA双电压主轴6.
•
When the spindle motor type is set to the non-inverter spindle mode (Pr1791~ = 1~4), set this parameter as
axis number corresponding to the spindle
•
For Pr1791~=2, it is also allowed to use DA port to output command. Please refer to2DA双电压主轴7.
When the spindle motor type is set to M3 inverter spindle mode (Pr1791~=5), set this parameter as the
combination of corresponding M3-IO expansion card station number and DA port numbers:
(Supported controller version: 10.116.54H, 10.118.0E, 10.118.5 and later; and the Syntec multi-axis drive
version 2.7.0 and later)
•
When using a Syntec multi-axis drive (SCD, see picture below) and sending spindle command through
the DA port on the M3-IO expansion card, the parameter is set toMMnnnOO
•
MM: Primary station number (1~16), the setting refer toPr21~Pr40 * Axis corresponding axis
card port number(see page 43)
•
nnn: Secondary number (000~010), the setting depends on the secondary station number
specification of the drive.
•
OO: DA port number (01~02), the setting refer to the following picture, set 1 for DA1, and set 2
for DA2.
Example:
•
Parameter Setting:16 010 02
1 2 3
a.
Drive primary station number (1~16)
b.
Drive secondary station number (5~6)
c.
DA port number (1~2)
•
First 5 Digits:
•
Represent drive station number
•
Has only n005 and n006, 1st extended IO card at primary station number n &
secondary station 5; and the 2nd extended IO card at primary station number n
& secondary station number 6 respectively.
•
Last 2 Digits:
•
Represents the DA port number on the extended IO card.
•
An IO card has only 2 DAs, so only 01 and 02 can be set.
When the spindle motor type is set to M3 serial rotary spindle mode (Pr1791~=6), set this parameter as the
corresponding axis card port number on the axis card.
(Supported controller version: 10.118.8 and after)
For Example:
•
Parameter Range:0~16 003
1 2
i.
Drive primary station number(1~16)
ii.
Drive secondary station number (0~3)
•
5 Digit:
•
Represents drive station number
•
When the spindle motor type is set to SRI DA spindle (Pr1791~=7), set this paramerter as the register number
of FC-PWR-2DA module.
•
This register position must not be written by PLC, otherwise it will cause spindle speed
abnormal.
•
Register position must same as theregister number of FC-PWR-2DA module, please setup the
parameter ofmodule in customized I/O chart or SRI Parameter.
•
If you want to setup customized I/O chart or SRI Parameter, please refer to Customized I/O Chart
Manual8 and SRI Parameter Setting9.
•
Register position must locate in user-define region. An alert will occur (OP-018 Port configuration
error) if it exceeds the user-defined region.
1.98 Pr1631~Pr1640 Spindle bias for zero speed
NoDescriptionsRangeUnitDefaultEffective
1631~1640Spindle bias for zero
speed
•
For Inverter spindle or V type spindle, if spindle speed is not zerowhile S0 command is executed,use this
When spindle motor type is Inverter spindle (Pr1791=0), this parameter can change spindle encoder polarity.
Other spindle motor types are not affected.
1.100 Pr1651~Pr1660 Spindle encoder resolution
NoDescriptionsRangeUnitDefaultEffective
1651~1660Spindle encoder
resolution(pulse/rev)
•
Set the Spindle encoder resolution, i.e. the total pulses of one revolution. Notice that the value is the
resolution of before scaling factor (A pulse or B pulse only).
Example:
Pr1671 = 600.When a 600RPM spindle command is executed, controller will send 1.00 V; when1200RPM
command is sent, controller will send 2.00 V.
•
When spindle motor type is NOT inverter type (Pr1791≠0), the parameter still defines the RPM change per 1
volt, but the max spindle RPM will be limited to 10*Pr1671~RPM.
1.103 Pr1681~Pr1700 Spindle 1st gear number at screw side and motor
side
NoDescriptionsRangeUnitDefaultEffective
1681~1700Spindle 1st gear number at
screw side and motor side
•
Set the gear ratio between screw (spindle side) and motor. The controller support 4 gear ratios for one
spindle. PLC Registers are used to select gear.
•
Spindle gear selection value of each Register:
1: 1st gear;
2: 2nd gear;
3: 3rd gear;
4: 4th gear;
9: No gear selected;
•
R024 is for first spindle gear selection; R782~R790 are for second to tenth spindles gear selection.
[1~ 999999999]-1Press Reset
1.104 Pr1711~Pr1720 *Spindle pos. sensor exist or not
This parameter is used to set if spindle side encoder exist or not:
0: No;
1: Yes.
[0~1]-0reset
1.105 Pr1721~Pr1730 Spindle zero floating speed(RPM)
NoDescriptionsRangeUnitDefaultEffective
1721~1730Spindle zero floating
speed(RPM)
•
When flag C60 of PLC is on, the spindle RPM will change to the parameter value. Spindle override R15 and
Spindle minimum speed Pr173x~ are neglected at this moment.
•
1stspindle zero floating flag: C60;
2ndspindle zero floating flag: R585.2;
3rdspindle zero floating flag: R585.3;
4thspindle zero floating flag: R585.4;
5thspindle zero floating flag: R585.5;
6thspindle zero floating flag: R585.6.
[0~1000]RPM10Press Reset
1.106 Pr1731~Pr1740 Spindle minimum speed
NoDescriptionsRangeUnitDefaultEffective
1731~1740Spindle minimum
speed
[0~80000]RPM100reset
•
Set the spindle minimum speed.
1.107 Pr1741~Pr1750 Spindle speed for orientation stop
This parameter is used with the PLC flag; when the corresponding flag is ON, the spindle positioning
(orientation stop) function is executed. Flag of 1st spindle: C61, flags of 2nd to 10th spindle: R586.2~R586.10.
•
When the flag is ON, the positioning will be performed at the speed set by this parameter, and the index
signal detection will begin after the positioning speed is reached.
※This speed neglects R15 Spindle Override and Pr173x~ Spindle minimum speed setting.
This parameter is invalid for a Syntec serial drive, the spindle positioning offset is determined by Pr177x.
Set Pr175x to 0, otherwise alarm SPD-26 will be triggered.
•
The spindle will be positioned to the angle of the "spindle S.O.S reference offset (Pr175x)" after the Index
angle is found.
[-360000~
360000]
0.001
deg
0reset
•
The spindle positioning offset is affected byPr17* Control precision(see page 41) and Pr161~Pr180 Axial pitch
amount (BLU)(see page 50), same as the value ofPr1771~Pr1780 Spindle home reference offset(see page 101).
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