MELDASMAGIC is a registered trademark of Mitsubishi Electric Corporation.
Microsoft and MS-DOS are registered trademarks of Microsoft Corporation U.S.A.
Windows is a registered trademark of Microsoft Corporation U.S.A.
IBM is a registered trademark of International Business Machines Corporation U.S.A.
Other company and product names are trademarks or registered trademarks of the
respective companies.
i
Introduction
This manual is the MELDASMAGIC64 Connection Manual.
MELDASMAGIC64 installation and connection methods are explained centered on the NC Card.
Refer to the materials below for explanations concerning functions.
MELDAS AC Servo and Spindle MDS-A/B Series Specifications Manual..................................... BNP-B3759
MELDAS AC Servo and Spindle MDS-C1 Series Specifications Manual...................................... BNP-C3000
MELDAS AC Servo and Spindle MDS-CH Series Specifications Manual.....................................BNP-C3016
MELDAS AC Servo MDS-B-SVJ2 Series Specification Manual....................................................BNP-B3937
MELDAS AC Servo MDS-B-SPJ2 Series Specification Manual....................................................BNP-B2164
General items
(1) Read this manual carefully before using MELDASMAGIC64. Please have a full understanding of
product functions and performance, and use this product correctly.
(2) All efforts possible have been made to describe any special handling in this manual. Items not
described in this manual must be interpreted as "Not Possible".
(3) When the details described in this instruction manual change, the sub-No. of the cover page instruction
manual No. (*, A, B) will be changed.
(4) The details described in this manual may change without notice. Mitsubishi may not be held respo nsible
for errors in the contents described.
About MELDASMAGIC64
(1) MELDASMAGIC64 includes the ISA NC Card compatible with the ISA bus, and the PCI NC Card
compatible with the PCI bus. Either card can be selected. The user can structure a custom-made NC
unit by inserting the NC Card supplied from Mitsubishi into the selected personal computer's expansion
slot (ISA bus or PCI bus).
NC Card
ISA NC CardPCI NC Card
(ISA bus specifications)
HR621
HR623
(2) The NC Card supplied by Mitsubishi realizes the equivalent environmental resistance (ambient
temperature, noise resistance and vibration resistance) as conventional NC units. However, some
environmental resistance equivalent to conventional NC units is not always guaranteed regarding
personal computers presumed to be normally used in an office. Therefore, when selecting a personal
computer, study this manual well and select an appropriate model responding to the required uses and
applications. When required, execute the appropriate countermeasures.
(PCI bus specifications)
FCU6-HR655
ii
(3) Take care to the working environment when using MELDASMAGIC64.
Working environment
PCI NC Card ISA NC Card
Applicable personal
computer
Compatible OS
• Windows 98SE
• Windows 2000
• Windows XP
• For Windows 95
IBM PC/AT or compatible machine
• Windows 95
• Windows 98
• Windows 98SE
• Windows NT Workstation 4.0
Pentium 100MHz or faster (Pentium 150MHz or faster recommended)
CPU
•For Windows 98, Windows 98SE, Windows NT Workstation 4.0
Pentium 200MHz or faster (Pentium 233MHz or faster recommended)
•For Windows 2000, Windows XP
Pentium 300MHz or faster
•For Windows 95, Windows 98
16MB or larger (24MB or larger recommended)
•For Windows 98SE, Windows NT Workstation 4.0
Memory
24MB or larger (32MB or larger recommended)
•For Windows 2000
64MB or larger (128MB or larger recommended)
•For Windows XP
128MB or larger
Hard disk 20MB or more open space recommended
Floppy disk One 3.5-type 1.44MB drive
Expansion slot
Electric
characteristics
+3.3V (*1) 0.2A or more
+5.0V 2.5A or more
PCI bus (PCI bus Standards 2.0 or
higher)
+12.0V 0.7A or more 0.5A or more
Power drop characteristics
Time for +5.0V power voltage to drop from +4.5V to +4.0V when the
power is turned OFF takes 1ms or more.
ISA bus
(*1) When using the PCI NC Card, always use a personal computer that supplies +3.3V power to the PCI
bus.
(4) Heat radiation-countermeasures for personal computer
A rise in the personal computer's internal temperature could cause NC Card damage or malfunction.
Select a personal computer with a fan for circulating the heat in the personal computer, or a personal
computer to which a fan can be mounted.
(5) Personal computer vibration
If the expansion slot on the personal computer vibrates greatly, a connector co nnection fault could occu r
and result in incorrect operations. Select a personal computer with a fitting for fixing the NC Card, or a
personal computer that can be fixed.
<Fixing example>
iii
Precautions for Safety
Always read the specifications issued by the machine maker, this manual, related manuals
and enclosed documents before starting installation, operation, programming, maintenance
or inspection to ensure correct usage. Thoroughly understand the basics, safety information
and precautions of this numerical controller before using the unit.
This manual ranks the safety precautions into "DANGER", "WARNING" and "CAUTION".
DANGER
WARNING
CAUTION
Note that even if the items is ranked as "
serious results. Important information is described in all cases, so please observe the items.
When there is a great risk that the user could be subject to
fatalities or serious injuries if handling is mistaken.
When the user could be subject to fatalities or serious injuries
if handling is mistaken.
When the user could be subject to injuries or when physical
damage
CAUTION
", incorrect handling could lead to
DANGER
Not applicable in this manual.
1. Items related to prevention of electric shocks
WARNING
Do not open the front cover while the power is ON or during operation. Failure to observe this could result
in electric shocks.
Do not operate the device with the front cover removed. The high voltage terminals and charged sections
will be exposed, and could result in electric shocks.
Do not remove the front cover even when the power is OFF except for wiring work or periodic
inspections. The controller and servo drive unit are charged internally and could result in electric shocks.
Always wait at least 15 minutes after turning the power OFF and check the voltage with a tester, etc.,
before starting wiring work or inspections. Failure to observe this could result in electric shocks.
Ground the 200V Series input controller, servo drive unit and servomotor with Class C or higher
protective grounding, and the 400V Series input with Class D or higher protective grounding.
All wiring work and inspections must be carried out by a qualified electrician.
Wire the controller, servo drive unit and servomotor after installation. Failure to observe this could result
in electric shocks.
Do not operate the switches with wet hands, as this may lead to electric shocks.
Do not damage, apply excessive stress, place heavy things on or sandwich the cables, as this may lead
to electric shocks.
iv
2. Items related to prevention of fires
CAUTION
Install the controller, servo drive unit, servomotor and regenerative resistor on non-combustible material.
Installation directly on or near combustible materials coul d result in fires.
If trouble occurs in the servo drive unit, shut off the power at the servo drive unit's input power side. Fires
could result if large current continues to flow.
When using the regenerative resistor, shut off the power with an error signal. The regenerative resistor
could abnormally overheat and cause fires due to a regenerative transistor fault, etc.
Incorrect wiring or connections could damage the device.
3. Items related to prevention of damage
CAUTION
Do not apply voltages other than those indicated in the Controller Connection Manual or Specifications
Manual for Servo Drive Unit. Failure to observe this could lead to rupture, or damage, etc.
Do not mistake the terminal connections. Failure to observe this could lead to rupture, or damage, etc.
Do not mistake the polarity (+, –). Failure to observe this could lead to rupture, or damage, etc.
Persons wearing medical devices, such as pacemakers, must not be near this unit. The medical device
could be affected by electromagnetic waves.
The servo drive unit fins, regenerative resistor and servomotor , et c., will be hot durin g operation an d for a
while after operation is stopped. Touching these sections could result in burns.
v
4. General Precautions
Always observe the following precautions. Incorrect handling could result in faults, injuries, or electric shocks,
etc.
(1) Transportation and installation
CAUTION
Correctly transport the product according to its weight.
Use servomotor's suspension bolts only to transport the se rvomotor.
Do not use suspension bolts of the servomotor on the machine to transport the machine.
Do not stack products above the indicated limit.
Do not hold cables, shaft or detector when transporting the servomotor.
Do not suspend or hold the controller or servo drive unit by the connected wires or cables when transporting.
Do not hold the front cover when transporting the controller or servo drive unit. The device could drop.
When installing, always observe the installation direction and install on a place which can withstand the
weight.
Do not get on the product, or place heavy objects on it.
Provide the specified distance between the controller, servo drive unit and inner surface of the control
panel and between other devices.
Do not install or operate a controller, servo drive unit or servomotor that is damaged or that has missing
parts.
Take care not to cut hands on the heat radiating fins or metal edges.
Do not block the intake/outtake ports of the servomotor with cooling fan.
Do not allow conductive foreign matter such as screws or metal chips or combustible foreign matter such
as oil enter the controller, servo drive unit or servomotor.
The controller, servo drive unit and servomotor are precision devices so do not drop or apply strong
impacts on them.
Do not install the controller operation board where it may be subject to cutting oil.
vi
(2) Wiring
CAUTION
Correctly wire this product. Failure to do so could result in servomotor runaway, etc.
Do not install a phase advancing capacitor, surge absorber or radio noise filter on the output side of the
servo drive unit.
Correctly connect the output side (terminals U, V, W). The servomotor will not operate if incorrectly
connected.
Do not directly connect a commercial power supply to the servomotor. Failure to observe this could lead
to faults.
When using an inductive load such as relays, always connect a diode in parallel to the load as a noise
measure.
When using a capacitive load such as a lamp, always connect a protective resistor serially to the load to
suppress rush currents.
Do not mistake the direction of the surge absorption diode installed on the DC relay for the control output
signal. The signal will not be output due to fault and the protective circuit, such as emergency stop, will be
disabled.
Do not connect or disconnect the connection cables between each unit while the power is ON.
Securely
dislocation during operation.
Always treat the shield cables indicated in this manual with grounding measures such as cable clamps.
Separate
Use wires and cables having a wire diameter, heat resistance level and bending capacity that match the
system.
Ground the device according to the requirements of the country where the device is to be used.
Wire the heat radiating fins and wires so that they do no contact.
(3) Adjustments
Check and adjust each parameter before staring o peration . Unpredic table operations c ould occu r depend ing
on the machine.
Do not make marked adjustments or changes as the operation could become unstable.
the signal wire from the drive line/power line when wiring.
the cable connector fixing screw or fixing mechanism. Insufficient fixing could result in
tighten
CAUTION
vii
(4) Usage methods
CAUTION
Install an external emergency stop circuit so that the operation can be stopped and the power turns OFF
immediately. A contactor, etc., must be used in addition to the shutoff function in the controller.
Turn OFF the power immediately if any smoke, abnormal noise or odor is generated from the controller,
servo drive unit or servomotor.
Only a qualified technician may disassemble or repair this product.
Do not modify this product.
Use a noise filter, etc., to reduce the effect of electromagnetic disturbances. Electronic devices used near
the servo drive unit could be affected by the electromagnetic disturbances.
Use the controller, servo drive unit, servomotor and regenerative resistor in the designated combination.
Failure to observe this could result in fires or faults.
The brakes (magnetic brakes) assembled in the servomotor are used for holding, and must not be used
for normal braking.
There may be cases when the magnetic brakes cannot hold the state because of the life or machine
structure (when ball screw and servomotor are coupled via a timing belt, etc.). Install a stopping device on
the machine side so that safety can be ensured.
After maintenance or inspection, always carry out a trial operation before starting actual operation.
Do not move the machine's movable range during automatic operation. Do not place hands, feet or face
near the spindle during rotation.
Use the power (input voltage, input frequency, tolerable instantaneous power failure time) under the power
specification conditions given in the Specifications.
Turn the NC Card's power ON before turning the base I/O unit's power ON.
If the base I/O unit's power is turned ON first, the current will be led to the NC Card from the connection
cable. This will prevent the personal computer or the cards in the personal computer from starting up
properly .
(5) Measures during a fault
CAUTION
If a hazardous situation could arise during a power failure or product fault, use the servomotor with
magnetic brakes or provide an external brake mechanism for holding purposes.
Use a double circuit structure for the magnetic brake's operation circuit so that the brakes will activate
even when the external emergency stop signal is issued.
If an alarm occurs, remove the cause, and secure surrounding safety before resetting the alarm and
restarting operation.
The machine could suddenly restart when power is restored after an instantaneous power failure. Do not
near the machine in this case. (Design the machine so that operator safety can be ensured even if the
machine restarts.)
viii
(6) Maintenance, inspection and part replacement
CAUTION
The electrolytic capacitor's capacity will drop due to deterioration. To prevent secondary damage due to
capacitor's faults, Mitsubishi recommends replacing the electrolytic capacitor after approx. five years
when used in a general environment. Contact the Service Center or Service Station for replacements.
Do not perform a megger test (insulation resistance measurement) during inspection.
Save the machining programs, tool data and parameters with an input/output device before replacing the
battery.
Do not short-circuit, charge, overheat, incinerate or disassemble the battery.
The hard disk unit has a service life, and must be replaced when the life is reached.
Always back up the customer's data stored on the hard disk u nit. The customer's data stored on the hard
disk unit cannot be guaranteed.
(7) Disposal
CAUTION
Handle this product as general industrial waste. Note that some of the MDS Series products use alternate
Freon. These corresponding models must not be handled as general industrial waste and must always be
returned to the Service Center or Service Station. (Corresponding models have heat radiating fins on the
back of the unit.)
Do not disassemble the controller, servo drive unit or servomotor parts.
Collect and dispose of the spent batteries according to local laws.
(8) General precautions
CAUTION
To explain the details, drawings given in this instruction manual, etc., may show the unit with the cover or
safety partition removed. When operating the product, always install the cover or partitions at their original
position, and operate as indicated in the instruction manual, etc.
HR621 NC Card installed in an ISA bus personal computer HR621 CPU PCB
HR623 NC Card installed in an ISA bus personal computer HR623 CPU PCB
2. I/O unit (1)
emergency stop switch input I/F
RS-232C uses only the DC code (X
ON/OFF) method handshake.
With servo, RIO, SKIP, ENC I/F
FCU6-DX310 DI (sink/source)/DO (sink) = 80/64
FCU6-DX320 DI (sink/source)/DO (sink) = 80/64
FCU6-DX330 DI (sink/source)/DO (sink) = 48/48
FCU6-DX340 DI (sink/source)/DO (sink) = 48/48
FCU6-DX410 DI (sink/source)/DO (sink) = 96/80
FCU6-DX420 DI (sink/source)/DO (sink) = 96/80
FCU6-DX430 DI (sink/source)/DO (sink) = 64/64
FCU6-DX440 DI (sink/source)/DO (sink) = 64/64
FCU6-DX311 DI (sink/source)/DO (source) = 80/64
FCU6-DX321 DI (sink/source)/DO (source) = 80/64
FCU6-DX331 DI (sink/source)/DO (source) = 48/48
FCU6-DX341 DI (sink/source)/DO (source) = 48/48
FCU6-DX411 DI (sink/source)/DO (source) = 96/80
FCU6-DX421 DI (sink/source)/DO (source) = 96/80
FCU6-DX431 DI (sink/source)/DO (source) = 64/64
FCU6-DX441 DI (sink/source)/DO (source) = 64/64
With servo, RIO, SKIP, ENC I/F
With servo, RIO, SKIP, ENC I/F
Analog output 1 point
With servo, RIO, SKIP, ENC I/F
Manual pulse 2ch
With servo, RIO, SKIP, ENC I/F
Analog input 4 points, analog output
1 point
With servo, RIO, SKIP, ENC I/F
With servo, RIO, SKIP, ENC I/F
With servo, RIO, SKIP, ENC I/F
Analog output 1 point
With servo, RIO, SKIP, ENC I/F
Manual pulse 2ch
With servo, RIO, SKIP, ENC I/F
Analog input 4 points, analog output
1 point
With servo, RIO, SKIP, ENC I/F
With servo, RIO, SKIP, ENC I/F
With servo, RIO, SKIP, ENC I/F
Analog output 1 point
With servo, RIO, SKIP, ENC I/F
Manual pulse 2ch
With servo, RIO, SKIP, ENC I/F
Analog input 4 points, analog output
1 point
With servo, RIO, SKIP, ENC I/F
With servo, RIO, SKIP, ENC I/F
With servo, RIO, SKIP, ENC I/F
Analog output 1 point
With servo, RIO, SKIP, ENC I/F
Manual pulse 2ch
With servo, RIO, SKIP, ENC I/F
Analog input 4 points, analog output
1 point
Type Configuration elements Details
HR183 CPU PCB FCU6-HR655 NC Card instal led in an PCI bus personal computer
HR655 I/F PCB
Type
Configuration
elements
HR682 HR682 HANDLE, ENC, RS-232C,
HR325 FCU6-DX210 DI (sink/source)/DO (sink) = 48/48
Aluminum die cast
HR325
RX323-1
Aluminum die cast
HR325
RX323
Aluminum die cast
HR325
RX331
Aluminum die cast
HR325
RX341
Aluminum die cast
HR327 FCU6-DX220 DI (sink/source)/DO (sink) = 64/64
Aluminum die cast
HR327
RX323-1
Aluminum die cast
HR327
RX323
Aluminum die cast
HR327
RX331
Aluminum die cast
HR327
RX341
Aluminum die cast
HR335 FCU6-DX211 DI (sink/source)/DO (source) = 48/48
Aluminum die cast
HR335
RX324-1
Aluminum die cast
HR335
RX324
Aluminum die cast
HR335
RX331
Aluminum die cast
HR335
RX341
Aluminum die cast
HR337 FCU6-DX221 DI (sink/source)/DO (source) = 64/64
Aluminum die cast
HR337
RX324-1
Aluminum die cast
HR337
RX324
Aluminum die cast
HR337
RX331
Aluminum die cast
HR337
RX341
Aluminum die cast
With metal spacers. Add-on to FCU6-DX2**
possible.
Base PCB: DI (sink/source)/DO (sink) = 48/48
Add-on PCB: DI (sink/source)/DO (sink) = 32/16
Base PCB: DI (sink/source)/DO (sink) = 48/48
Add-on PCB: DI (sink/source)/DO (sink) = 32/16
Analog output 1 point
Base PCB: DI (sink/source)/DO (sink) = 48/48
Add-on PCB: Manual pulse generator 2ch
Base PCB: DI (sink/source)/DO (sink) = 48/48
Add-on PCB: Analog input 4 points,
analog output 1 point
Base PCB: DI (sink/source)/DO (sink) = 64/64
Add-on PCB: DI (sink/source)/DO (sink) = 32/16
Base PCB: DI (sink/source)/DO (sink) = 64/64
Add-on PCB: DI (sink/source)/DO (sink) = 32/16
Analog output 1 point
Base PCB: DI (sink/source)/DO (sink) = 64/64
Add-on PCB: Manual pulse generator 2ch
Base PCB: DI (sink/source)/DO (sink) = 64/64
Add-on PCB: Analog input 4 points,
analog output 1 point
Base PCB: DI (sink/source)/DO (source) = 48/48
Add-on PCB: DI (sink/source)/DO (source) =
32/16
Base PCB: DI (sink/source)/DO (source) = 48/48
Add-on PCB: DI (sink/source)/DO (source) =
32/16 Analog output 1 point
Base PCB: DI (sink/source)/DO (source) = 48/48
Add-on PCB: Manual pulse generator 2ch
Base PCB: DI (sink/source)/DO (source) = 48/48
Add-on PCB: Analog input 4 points,
analog output 1 point
Base PCB: DI (sink/source)/DO (source) = 64/64
Add-on PCB: DI (sink/source)/DO (source) =
32/16
Base PCB: DI (sink/source)/DO (source) = 64/64
Add-on PCB: DI (sink/source)/DO (source) =
32/16 Analog output 1 point
Base PCB: DI (sink/source)/DO (source) = 64/64
Add-on PCB: Manual pulse generator 2ch
Base PCB: DI (sink/source)/DO (source) = 64/64
Add-on PCB: Analog input 4 points,
analog output 1 point
Details
3
2. Configuration
g
g
g
g
2.2 List of Configuration Units
2. I/O unit (2)
Type
RX323-1 DI (sink/source)/DO (sink)=32/16 RX323-1 Add-on PCB
RX323 DI (sink/source)/DO (sink)=32/16
Analog output 1 point
RX324-1 DI (sink/source)/DO
(source)=32/16
RX324 DI (sink/source)/DO
(source)=32/16
Analog output 1 point
RX331 Manual pulse generator 2ch RX331 Add-on PCB
RX341 Analog input 4 points,
Analog output 1 point
FCUA-DX100 DI (sink/source)/DO (sink)=32/32 RX311 Base PCB: DI (sink/source)/DO (sink)=32/32
Case
FCUA-DX110 DI (sink/source)/DO (sink)=64/48
FCUA-DX120 DI (sink/source)/DO (sink)=64/48
Analog output 1 point
FCUA-DX130 DI (sink/source)/DO (sink)=32/32
Manual pulse 2ch
FCUA-DX140 DI (sink/source)/DO (sink)=32/32
Analog input 4 points,
Analog output 1 point
DO (source)=32/32
FCUA-DX111 DI (sink/source)/
DO (source)=64/48
FCUA-DX121 DI (sink/source)/
DO (source)=64/48
Analog output 1 point
FCUA-DX131 DI (sink/source)/
DO (source)=32/32
Manual pulse 2ch
FCUA-DX141 DI (sink/source)/
DO (source)=32/32
Analog input 4 points,
Analog output 1 point
3. Peripheral devices
Type
HD60C Manual pulse generator Without MELDAS logo
HD60C-1 Manual pulse generator With MELDAS logo
Grounding plate D Grounding plate D set
Grounding plate E Grounding plate E set
RX311Base PCB: DI (sink/source)/DO (sink)=32/32
RX321-1Add-on PCB: DI (sink/source)/ DO (sink)=32/16
Case
RX311Base PCB: DI (sink/source)/DO (sink)=32/32
RX321 Add-on PCB: DI (sink/source)/ DO (sink)=32/16
Case
RX311Base PCB: DI (sink/source)/DO (sink)=32/32
RX331Add-on PCB: Manual pulse generator 2ch
Case
RX311Base PCB: DI (sink/source)/DO (sink)=32/32
RX341 Add-on PCB: Analog input 4 points,
analo
Case
RX312Base PCB: DI (sink/source)/DO (source)=32/32FCUA-DX101 DI (sink/source)/
Case
RX312Base PCB: DI (sink/source)/DO (source)=32/32
RX322-1Add-on PCB: DI (sink/source)/ DO (source)=32/16
Case
RX312Base PCB: DI (sink/source)/DO (source)=32/32
RX322 Add-on PCB: DI (sink/source)/ DO (source)=32/16
Case
RX312Base PCB: DI (sink/source)/DO (source)=32/32
RX331Add-on PCB: Manual pulse generator 2ch
Case
RX312Base PCB: DI (sink/source)/DO (source)=32/32
RX341 Add-on PCB: Analog input 4 points,
analo
Case
Configuration
elements
Configuration
elements
Analo
Analo
Details
output 1 point
output 1 point
Details
Details
output 1 point
output 1 point
4
3. Installation
3.1 General Specifications
3. Installation
3.1 General Specifications
NC Card peripheral environment conditions
Type name HR621/HR623 FCU6-HR655 HR682
Unit name NC Card Relay card
Ambient
temperature
Ambient
humidity
General
Working atmosphere No corrosive gas or dust
specifications
Power voltage
consumption
Power specifications
Power drop characteristics Personal computer 5V: 4.5V
Heating value 19W 22W 12W
Unit size 248.9×107.6×20 (mm)
(*1) If these characteristics are not satisfied, the NC Card cannot back up the absolute position informati on of
the machine position when the power is turned OFF.
(*2) Excluding spacers
During operation 0~55°C
During storage -20~60°C
During operation 40~75% RH (with no dew condensation)
During storage 40~75% RH (with no dew condensation)
Type name FCU6-DX210, FCU6-DX211 FCU6-DX220, FCU6-DX221
Unit name Base I/O unit
Ambient
temperature
Ambient
humidity
Vibration resistance 4.9m/s2 or less (during operation)
Shock resistance 29.4m/s2 or less (during operation)
Working atmosphere No corrosive gas or dust
Heating value 90W (*3) 110W (*3)
Mass 2.0kg
Unit size 220×168×35 (mm)
(*3) When all DO points are ON
During operation 0~55°C
During storage -20~60°C
During operation 45~75% RH (with no dew condensation)
During storage 45~80% RH (with no dew condensation)
24VDC ± 5%
Ripple ± 5% (P-P)
5
3.2 General System Diagram
3.2 General System Diagram
RST
3-phase 200V-230VAC
No-f us e br eaker (N FB )
ON
MC
OFF
3. Installation
:
Machine t ool manu f act ur er
-prepared parts
MC
MC
No- f u s e br ak er
(NFB)
Perso nal com put er m ain un it
Transf ormer
200VAC: 100VAC
Stabilized
power s uppl y
NC Card
HR621/HR623/
FCU6-H R 655
(Note)
The pow er volta ge dep en ds
on the person a l c ompu t e r
specificat io ns.
FG
+24VDC
CF61
CF10
No-fu s e
braker
(NFB)
24VDC
24VDC
Noise
filter
FG
RS-232C devic e
F011
F010
F390
F070
(FCUA-R220)
Emer genc y st op swi tc h
Relay card
HR682
CF61
RS232C
DCIN EMG1
F070
(FCUA-R220)
Display u n i t
Keyboard
Pointin g devic e
(Note) Only the DC code (X ON /OF F) method
han dshake is possible for the RS-232C.
ENC#2
HANDLE
F040/F041
F020/F021/F022
Manu al pul s e gener ato r
(m ax. 3 chan n el s )
2nd s p i n dl e en c oder
R301
CF10
Base I/O unit
24VDC
F070
(FCUA-R220)
FCU6-DX2* *
(DX3**)
DCIN
(DX4**)
SV1
SV2
RIO1
Cable clamp
FG
NC servo/spi ndle drive un it
MDS- B-V1/ V 2
MDS-B-SVJ2
MDS-B-SP
MDS-B-SPJ2
MDS-C1-V1/V2
Auxiliary
axis
MR-J2-CT
CAUTION
Separate the signal wire from the drive line/power line when wiring.
SH21
SH21
CF31
CF32
CF33
CF34
ENC1
SKIP
RIO2
RIO
(for expansion)
Terminator
R-TM
SH41(FCUA-R211)
Note) The remote I/O u nit can be extended up to six stations.
Note that when an add-on PCB is mounted (DX3**, DX4**),
the remote I/O unit can be extended up to 5 stations.
DI
R301
DI
R301
DO
DO
R301
F040/F041
Remote I/O unit
FCUA-DX1**
DCIN RIO1
24VDC
RIO2
F070
(FCUA-R220)
Machine
electri c
cabinet
Sensor
contact,
max. 8 points
6
1st spindle
encoder
Machine control relay/contact
R
R
SH41
(FCUA-R211)
Terminato r
R-TM
To the next
remote
I/O unit
3. Installation
3.2 General System Diagram
Example of connection when using V1/V2 in the drive section
RST
Connection to base I/O unit
SV1 and SV2
Note (1)
SH21 cable
AC servomotor
SM
PG
Motor end detector
Servo drive un i t
MDS- B/ C1 Ser i es
CN1A
CN1B
P
N
R0
S0
AC servomotor
U
V
W
E
CN2
Motor end detector
Note (2)
SH21 cable
SM
PG
Servo drive unit
MDS - B/C 1 Ser i es
CN1B
CN1A
CN4
U
V
W
E
CN2
Terminator
A-TM
SH21 cable
CN4
P
N
R0
S0
MC1
Power
supply unit
RSTE
MC
Batter y
unit
MDS-A-BT-4 (4 axes)
MDS-A-BT-2 (2 axes)
B-AL
(Note) (1) Drive section connections differ according to the configuration of the servo drive unit and
motor used.
(2) When connecting the spindle drive unit, set the axis No. to the value after the last servo
axis.
(3) Connect the last axis (the axis to be connected to the battery unit) to the power supply unit.
(4) When using a terminator, connect to the last axis.
(5) Always wire the control unit's signal wire away from the drive section's drive lines/power
lines.
CAUTION
Separate the signal wire from the drive line/power line when wiring.
7
3. Installation
3.3 Installation
3.3 Installation
3.3.1 Installation Direction and Spacing
Each unit is installed in a sealed structure electric cabinet as a principle. Observe the following points
when installing into the electric cabinet.
(1) Install each unit vertically, so that it is visible from the front.
(2) Consider the heat radiation and wiring of each unit. Refer to the following drawing, and secure
space for ventilation.
(3) Install the personal computer main unit paying particular attention to the specification conditions of
the selected personal computer.
Top
100mm or more
Remote I/O unit
(heat radiation space)
Servo drive unit
Spindle drive unit
Relay card
EMG2
EMG1
RS232C
DCIN
HANDLE
CF61
ENC#2
Base I/O u nit
10mm or more
CF31 CF32
MITSUB I SHI
0 0
ENC1
SKIP
SV2
CF10
SV1
CR31
CF34CF33
RI02
DCIN
RI01
10mm
or more
150mm or more
(heat r ad iat io n an d
wiring spac e)
10mm or more
10mm
or more
15mm or more
(wiring space)
10mm
or more
15mm or more
(wiring space)
MITSUB I SHI
30mm or more
Bottom
(Note) The relay card can be added on to the base I/O unit. Refer to "6.6 Installation to the Base I/O
Unit" for the installation method when adding on.
CAUTION
Always observe the direction of installation.
8
3. Installation
3.3 Installation
3.3.2 Prevention of Foreign Matter Entry
(1) The inside of each unit is densely mounted, and is sensitive to dust, etc. Always design a sealed
structure electric cabinet, and execute the following measures.
Carry out dust-proofing and oil-proofing measures such as sealing the cable inlets with pa cking.
Be particularly careful that outside air does not enter the electric cabinet through heat radiation
holes, etc.
Seal all gaps.
Securely install the door packing.
Always install packing around any back cover (when present).
Oil can easily accumulate in screw holes on top of the electric cabinet and penetrate into the
electric cabinet. Therefore, carry out special countermeasures such as using oil-proof packing.
Cable
Metal fittings
Pa cking
Cable inlet (example)
(2) After installing each unit, avoid any tool machining in the area surrounding those units. Cutting
chips, etc., may adhere to electronic parts and cause a failure.
(3) Design the electric cabinet so the internal temperature will rise no more than 10°C (target value
5°C or less) over the ambient temperature, and will stay within the temperature conditions of the
personal computer, NC Card, etc. (Refer to "3.3.3 Heat Radiation Countermeasures" for details.)
Use a panel cooler when required.
(4) The personal computer display unit may not operate normally due to external magnetic fields.
Separate magnetism producing sources (transformers, fans, magnetic switches, solenoid relays,
magnet stands, magnetic workpieces, power lines flowing a large current, etc.) from the display
unit by 200mm or more.
Note that the magnetism produced by these magnetism producing sources differs individually, and
will also differ according to the installation direction, etc. Therefore, the display unit may not
operate properly even when separated by 200mm or more from these sources. When determining
the layout of magnetism producing sources, also consider the direction, etc., of the magnetism
produced, and finally confirm by actual operation of the machine.
CAUTION
Make sure that conductive foreign matter (screws, metal pieces, etc.) and flammable
foreign matter (oil, etc.) does not enter inside any unit.
9
3. Installation
3.3 Installation
3.3.3 Heat Radiation Countermeasures
In normal NC units, the electric cabinet thermal design is so the electric cabinet ambient temperature is
a 0 to 45°C usage condition, and the electric cabinet internal temperature rise is 10°C. However, these
conditions do not necessarily apply in MELDASMAGIC64.
This is because the operation of all Mitsubishi-supplied units, including the NC Card, is guaranteed up
to 55°C, but the operation of the personal computer is not necessarily guaranteed up to 55°C.
Thus, the electric cabinet ambient temperature must first be determined as shown below.
(1) Determine the electric cabinet ambient temperature T
.
a
Ex. 0 to 35°C
(2) Determine the internal temperature rise ∆T.
Ex. 5°C
(3) Select a personal computer.
When T
max. = 35°C and ∆T = 5°C, the personal computer must have a guaranteed operating
a
temperature of 40°C or more (45°C or more for a margin of safety).
(4) In this example, the average temperature in the electric cabinet will be 40°C or less according to
(1) and (2).
(Note) 1. When heat accumulates in upper areas, etc., of the unit, circulate the air inside the electric
cabinet using a circulation fan.
2. Use an electric cabinet cooler when required.
Use an electric cabinet cooler type that does not take outside air into the electric cabinet.
3. If the personal computer's heat builds up in the personal computer, circulate the air in the
personal computer with a fan.
Back fan
Front fan
NC card
10
3. Installation
3.3 Installation
Please refer to following method for heat radiation countermeasures method.
Example of heat radiation countermeasures
<Hypothetical conditions>
(1) Electric cabinet ambient temperature : T
(2) Internal temperature rise value : ∆T
a
d
(The value for the conventional NC is 10°C, but this temperature must be set to 10°C or
less (target value 5°C) for the MELDASMAGIC64.)
(3) Average temperature in electric cabinet : T
Procedures for heat design and verification
+ ∆Td
a
<Supplement>
(1) Refer to "3.1 General Specifications" for the
Calculate total heat generation of
each mounted unit (W)
heat generated by each unit.
(2) Enclosed electric cabinet (thin steel plate)
cooling capacity calculation equation
W≤W1
Calculate electric cabinet’s
cooling capacity (W1)
Comparison of W and W1
W1 = U × A × ∆T
U : 6W/m2 × °C
with internal circulation fan
4W/m
without internal circulation fan
2
× °C
d
A : Effective heat radiation area (m2)
>
Selection of heat exchanger
(Area where heat can be radiated from
electric cabinet)
<Caution>
When calculating the effective heat
Mounting design
radiation area, do not include the parts that
contact other objects.
(3) Points of caution for heat radiation
Collection of internal temperature rise
distribution data
countermeasures when designing mounting
state
* Consider convection in electric cabinet
(eliminate heat spots)
≤
Evaluation
* Collect hot air at suction port in heat
exchanger panel.
(4) Evaluation standards for internal
Improvements
>
temperature rise distribution data
∆Tm (average value)
≤∆T
d
∆Tm max (maximum value)≤ (∆Td + 5) °C
R (inconsistency ∆T
max - ∆Tm min) ≤ 6°C
m
(Evaluate existence of heat spots)
Completion
∆T
: Internal temperature rise
m
measurement value
Mounting example and introduction to temperature (∆T) measurement locations (reference)
: Temperature rise measurement
points (example)
Rela y p an el, e tc.
Internal
air flow
Heat exchang er
Air inlet
Air outlet
External
air flow
11
3.3.4 Noise Countermeasures
(1) Connection of frame ground (FG)
The frame should basically be grounded at one earth point. When relaying through the grounding
plate in the middle of the connection route, separate the desktop personal comp uter/panel
personal computer from the remote I/O unit, and the base I/O unit from the servo drive unit/spindle
drive unit, etc.
The NC Card FG is connected to the personal computer electric cabinet with card installation met al
fittings.
Remote
I/O unit
3. Installation
3.3 Installation
Base I/O unit
HR682
Note 3
EMG2
EMG1
RS232C
DCIN
HANDLE
0 0
CF61
ENC#2
Desktop personal computer/
panel personal computer
Note 1
Spindle motor
Servomotor
Servo drive unit/spindle drive unit, etc.
Note 2
Note 2
Main gr ound
Note 1
Note 1: This is not required when directly connecting to the main ground.
Note 2: Connect the motor's grounding cable to the servo drive unit and spindle drive unit.
Note 3: A spacer is used when mounting the HR682 card on the base I/O unit, but when not mounting on the base
I/O unit, connect the card to the main ground using the FG terminal.
12
(2) Shield clamping of cables
The shield of the shield cable connected to the base I/O unit, servo drive unit and spindle drive unit
must be connected to the grounding plate to stabilize operation while preventing malfunctioning due to
noise.
The shield can be connected to the grounding plate with lead wires or clamp fittings. Refer to the
following drawings to treat the shield cable.
Example of lead wire treatment
Soldering
Signal wire
Caution
When soldering the grounding cable to the shield, if the soldered
section is close to the shield, the signal wire's sheath could melt
by the soldering heat resulting in a short-circuit.
Solder at a place 10 to 20mm away from the mesh section.
3. Installation
3.3 Installation
Example of connection with lead wire
Grounding cable
Shield
Cable
Cable
Example of connection with clamp fitting
Unit
Unit
Grounding
cable
Shield
Clamp fitting
(1) Peel part of the cable sheath and expose
the shield as shown in the drawing.
Press the exposed part against the grounding
plate with the cable clamp fittings.
(2) If the cable is thin, clamp several together
in a bunch.
(3) Use adequate force when tightening the cable
so that the wire material is not damaged.
(4) Connect each grounding plate together and
ground them at one point.
Cable
Grounding plate
Cable
Less than 0.8m
Shield
Clamp
fitting
Unit
Grounding
plate
When manufacturing the clamp fittings and grounding plate, refer to "Appendix 1.10 Grounding Plate
and Clamp Fitting Outline Drawings". These can also be ordered from Mitsubishi.
CAUTION
Execute ground treatment by cable clamps, etc., for the shielded cable indicated in this
instruction manual.
13
3. Installation
3.3 Installation
Cables which require shield clamp with a connector cases are shown following table.
<Shield clamp method>
Fold the wire material shield over the sheath, and wrap copper foil tape over it. Connect the wrapped
copper foil tape to the connector case GND plate.
Treatment of cable ends
Connection origin
Connection
destination
Not required
Not required
Not required
Not required
Not required
Not required
Not required
Not required
Not required
Not required
Not required
Not required
Not required
Unit name
NC Card
(HR621/HR623/
FCU6-HR655)
Base I/O unit
(FCU6-DX2
∗∗)
4
Relay card
(HR682)
∗∗, 3∗∗,
Connector
name
CF10
CF61
CF10
SV1
SV2
ENC1
SKIP
PI01
PI02
CF61
ENC#2
HANDLE
RS232C
Connection destination
Base I/O unit
Relay card
NC Card
Servo drive unit
Servo drive unit
Spindle encoder
Skip
Remote I/O unit
Remote I/O unit
(Note) RS-232C uses only the DC code (X ON/OFF) method handshake.
(3) Connecting Spark Killers
Connect a spark killer on the coil or relay contact in parallel for noise counterme asures.
Use spark killers which are 0.033~0.1µF, 10~120Ω.
Contact
SK
SK
E
Coil
14
4. NC Card (HR621/HR623/FCU6-HR655) Connection
4.1 NC Card Connection System Diagram
4. NC Card (HR621/HR623/FCU6-HR655) Connection
4.1 NC Card Connection System Diagram
The NC Card is connected to the personal computer with the expansion slot (ISA bus or PCI bus). The
base I/O unit and relay card are connected with a cable.
Expansion slot
(ISA bus/PCI bus)
Base I/O unit
(FCU6-DX2**/3**/4**)
Personal computer
NC Card
(HR621/HR623/
FCU6-HR655)
CF10
CF61
F010 cable
CF10
Relay card
(HR682)
F011 cable
CF61
CAUTION
Turn the NC Card's power ON before turning the base I/O unit's power ON.
If the base I/O unit's power is turned ON first, the current will be led to the NC Card from
the connection cable. This will prevent the personal computer or the cards in the
personal computer from starting up properly.
15
4. NC Card (HR621/HR623/FCU6-HR655) Connection
4.2 NC Card Part Names
4.2 NC Card Part Names
4.2.1 Names of HR621 Card Parts
CF62
BAT
(4)
(8)
TEST
(7)
S.O.DIMM2S.O.DIMM1
(9)
ISP
(6)
(1 5)
(1 3)
RWDG
NCLED
DPADR IOPADR
IRQ
(12 )
(3)
(10 )
(5)
(1 1)
CIO
SEMG
(1 4)
(1)
CF61CF10
(2)
ISABUSISABUS
List of connectors
No. Name Function details
(1) CF61 This is used in the connection with the relay card (HR682). An F011 cable is connected.
(2) CF10 This is used in the connection with the base I/O unit (DX2**, 3**, 4**). An F010 cable is connected.
(3) ISABUS This is connected to the personal computer expansion slot (ISA bus).
(4) BAT This is a battery holder. A Toshiba battery CR2450 is installed.
(5) CIO This is a connector for expansion.
(6) ISP Not used.
(7) TEST Not used.
(8) CF62 Not used.
(9) S.O. DIMM1, 2 This is the MAGIC 64 memory module connector. Do not remove the memory module.
List of rotary switches
No. Name Function details
(10) DPADR This is used in the address assignment setting of the personal computer expansion region.
(11) IOPADR This is used in the address assignment setting of the personal computer I/O port region.
(12) IRQ This is used in the level setting of the interrupt request signal to the personal computer CPU.
(Note) Refer to "4.4 ISA NC Card Mounting" for details on setting rotary switches.
LED list
No. Name Function details
(13) NCLED
(14) SEMG
(15) RWDG
This is the 7-segment LED for the NC status display. This LED changes when at startup, during
alarms, etc.
This is the chip LED for the NC system
emergency stop display.
This is the chip LED for the remote
communication watchdog display.
When lit (red) : System in emergency stop.
When not lit : Normal
When lit (red) : Watchdog alarm.
When not lit : Normal
CAUTION
Do not apply voltages on the connector other than those indicated in this manual. Doing
so may lead to destruction or damage.
Incorrect connections may damage the devices, so connect the cables to the specified
connectors.
Do not connect or disconnect the connection cables between each unit while the power
is ON.
Do not connect or disconnect any PCB while the power is ON.
CF61CF10
16
4. NC Card (HR621/HR623/FCU6-HR655) Connection
4.2 NC Card Part Names
4.2.2 Names of HR623 Card Parts
(16)(17)(18)
BAT
3VALM
5VSALM
3VSALM
ISP
TEST
(7)
(6)
(4)
(12)
ISABUSISABUS
(13)
(14)
SEMG
(11)
WDER
(15)
NCLD1
DPADRIOPADRIRQ
(3)
(5)
(10)
CIO
(1)
(2)
CF61CF10
CF61CF10
List of connectors
No. Name Function details
(1) CF61 This is used in the connection with the relay card (HR682). An F011 cable is connected.
(2) CF10 This is used in the connection with the base I/O unit (DX2**, 3**, 4**). An F010 cable is connected.
(3) ISABUS This is connected to the personal computer expansion slot (ISA bus).
(4) BAT This is a battery holder. A Toshiba battery CR2450 is installed.
(5) CIO This is a connector for expansion.
(6) ISP Not used.
(7) TEST Not used.
List of rotary switches
No. Name Function details
(10) DPADR This is used in the address assignment setting of the personal computer expansion region.
(11) IOPADR This is used in the address assignment setting of the personal computer I/O port region.
(12) IRQ This is used in the level setting of the interrupt request signal to the personal computer CPU.
(Note) Refer to "4.4 ISA NC Card Mounting" for details on setting rotary switches.
LED list
No. Name Function details
(13) NCLD1
(14) SEMG
(15) WDER
(16) 5VSALM
(17) 3VSALM
(18) 3VALM
This is the 7-segment LED for the NC status display. This LED changes when at startup, during
alarms, etc.
This is the chip LED for the NC system
emergency stop display.
This is the chip LED for the remote
communication watchdog display.
This is the chip LED for the circuit power
5VDC low alarm display.
This is the chip LED for the circuit power
3VDC low alarm display.
This is the chip LED for the circuit power
3VDC low alarm display.
When lit (red) : System in emergency stop.
When not lit : Normal
When lit (red) : Watchdog alarm.
When not lit : Normal
When lit (red) : 5VDC low
When not lit : Normal
When lit (red) : 3VDC low
When not lit : Normal
When lit (red) : 3VDC low
When not lit : Normal
CAUTION
Do not apply voltages on the connector other than those indicated in this manual. Doing
so may lead to destruction or damage.
Incorrect connections may damage the devices, so connect the cables to the specified
connectors.
Do not connect or disconnect the connection cables between each unit while the power
is ON.
Do not connect or disconnect any PCB while the power is ON.
17
4. NC Card (HR621/HR623/FCU6-HR655) Connection
4.2 NC Card Part Names
4.2.3 Names of FCU6-HR655 Unit Parts
(11)(12)(13)(14)(15)(16)
SEMG
(1)
CF61CF10
CF61
(2)
CF10
NCLD
WDER
3VALM
5VSALM
3VSALM
(9)
PCIBUS
(3)
PCIBUS
(4)
(10)
BAT
SW1
BAT
BAT
(7)
TEST
CF63
CF62
(5)
(8
)
ISP
(6)
List of connectors
No. Name Function details
(1) CF61 This is used in the connection with the relay card (HR682). An F011 cable is connected.
(2) CF10 This is used in the connection with the base I/O unit (DX2**, 3**, 4**). An F010 cable is connected.
(3) PCIBUS This is connected to the personal computer expansion slot (PCI bus).
(4) BAT This is a battery holder. A Toshiba battery CR2032 is installed.
(5) CF62 This is used to input AC FAIL from an external source. (Note 1)
(6) CF63 This is used to supply power from an external source. (Note 1)
(7) TEST Not used.
(8) ISP Not used.
(Note 1) When multiple FCU6-HR655 cards are inserted, the power supplied from the personal computer or panel compute r
may be insufficient. Supply the power from an external source to CF63 in this case. Input a FAIL signal to CF62 when
using an external power supply.
List of switches
No. Name Function details
(9) CDNO This is used to set the PCI NC Card's station No.
(10) SW1
(Note 2) Refer to "4.5 PCI NC Card Mounting" for details on setting rotary switches.
This sets the power supply method. Set "L" when supplying from the PCI bus, and set "M" when
supplying power to CF63 from an external power supply.
LED list
No. Name Function details
(11) SEMG
(12) WDER
(13) 5VSALM
(14) 3VSALM
(15) 3VALM
(16) NCLD
This is the chip LED for the NC system
emergency stop display.
This is the chip LED for the remote
communication watchdog display.
This is the chip LED for the circuit power
5VDC low alarm display.
This is the chip LED for the circuit power
3VDC low alarm display.
This is the chip LED for the circuit power
3VDC low alarm display.
This is the 7-segment LED for the NC status display. This LED changes when at startup, during
alarms, etc.
When lit (red) : System in emergency stop.
When not lit : Normal
When lit (red) : Watchdog alarm.
When not lit : Normal
When lit (red) : 5VDC low
When not lit : Normal
When lit (red) : 3VDC low
When not lit : Normal
When lit (red) : 3VDC low
When not lit : Normal
CAUTION
Do not apply voltages on the connector other than those indicated in this manual. Doing
so may lead to destruction or damage.
Incorrect connections may damage the devices, so connect the cables to the specified
connectors.
Do not connect or disconnect the connection cables between each unit while the power
is ON.
Do not connect or disconnect any PCB while the power is ON.
(2) Insert a battery to the ISA NC Card as shown below.
+
45°
-
Insert at a 45° angle.
The positive (+) polarity side
should face up.
Press in horizontally.
The insertion should complete
smoothly.
Do not press in from above.
A reverse insertion prevention
function is attached so the battery
can only be inserted with the proper
polarity in the holder.
Battery holder
ISA NC Card (HR621)
Insert in the direction
of the arrow.
ISA NC Card (HR623)
Insert in the direction
of the arrow.
Battery holder
CAUTION
Do not short-circuit, charge, overheat, incinerate or disassemble the battery.
Dispose of the spent battery according to local laws.
20
23
4. NC Card (HR621/HR623/FCU6-HR655) Connection
4.4 ISA NC Card Mounting
4.4.2 ISA NC Card Mounting Procedure
Install the software and mount the NC Card following the Setup Instruction Manual (BNP-B2191).
The software will not be installed correctly if the soft ware installation and NC Card mounting procedure
are mistaken.
Mount the NC Card onto the personal computer with the following procedures.
(1) Set the DPADR, IOPADR and IRQ rotary switches according to the personal computer memory
region, I/O port region and interrupt request signals designated when installing the software.
(Note) Before touching the NC Card, touch an exposed metal section of the personal computer to
discharge any static electricity.
Pay attention not to touch the NC Card, personal computer chip or circuit.
Location of ISA NC Card (HR621) rotary switches
DPADRIOPADRIRQ
Location of ISA NC Card (HR623) rotary switches
DPADR
IOPADR
IRQ
Roles of each rotary switch
DPADR : This is used in the address setting of the personal computer expansion region.
IOPADR : This is used in the address setting of the personal computer I/O po rt region.
IRQ : This is used in the level setting of the interrupt request signal to the personal computer CPU.
DPADR setting IOPADR setting IRQ setting
Switch Expansion region SwitchI/O port regionSwitch
9 RESERVED 9 h0240-h0243
A RESERVED A h0260-h0263
B RESERVED B h0280-h0283
C RESERVED C h02A0-h02A3
D RESERVED D h02C0-h02C3
E RESERVED E h02E0-h02E3
F RESERVED F h0300-h0303
Interrupt
request signal
24
4. NC Card (HR621/HR623/FCU6-HR655) Connection
4.4 ISA NC Card Mounting
(2) Following the instructions in the personal computer manual, remove the personal computer cover.
(Note) Follow the precautions instructed in the personal computer manual. Confirm that the
personal computer power is OFF, and that the power cable is disconnected.
(3) After confirming that there is a vacant ISA bus slot, remove the slot cover of the selected ISA bus
slot.
(Note) Do not misplace the slot cover screw as it is used to fix the ISA NC Card onto the personal
computer.
(4) Holding the card installation metal fittings and the ends of the ISA NC Card, so as to push in the
NC Card upper end, insert the card all the way into the personal computer ISA bus slot.
(Note) The ISA BUS slot insertion orientation is predetermined. Insert the card so that the card
mounting fitting comes to the slot cover position.
Press in
Press in
Card mounting
ISA NC Card
fitting
Personal computer ISA bus slot
(5) Using the fixing screw of the slot cover removed in mounting step 3, fix the ISA NC Card to the
personal computer.
(Note) Securely tighten the screw.
Screw
N
C
C
a
r
d
25
4. NC Card (HR621/HR623/FCU6-HR655) Connection
4.4 ISA NC Card Mounting
(6) Following the instructions in the personal computer manual, install the personal computer cover
removed in mounting step 2.
(7) Reconnect the personal computer power cables.
(Note) Do not turn the personal computer ON yet.
(8) Connect the two relay cables (F010 and F011) to the two connectors (CF10 and CF61) on the card
installation metal fitting section of the ISA NC Card.
(Note) Connect the F010 cable to the CF10 connector, and the F011 cable to the CF61 connector.
(9) Connect the F010 and F011 cables to the base I/O unit and relay card.
(Note) Connect the F010 cable to the CF10 connector on the base I/O unit, and the F011 cable to
the CF61 connector on the relay card.
This completes the ISA NC Card (HR621/623) mounting.
(10) Install the MELDASMAGIC64 software into the personal computer while the ISA NC Card is
mounted.
(Note) Install the software and mount the NC Card following the Setup Instruction Manual
(BNP-B2191).
26
4. NC Card (HR621/HR623/FCU6-HR655) Connection
4.5 PCI NC Card Mounting
4.5 PCI NC Card Mounting
4.5.1 Before Mounting the PCI NC Card
(1) Before mounting the PCI NC Card, confirm that the control section items below are present.
FCU6-HR655 unit (PCI bus-compatible NC Card): 1 pc.
FCU6-DX2**, DX3** or DX4** unit
(2) Insert a battery to the PCI NC Card as shown below.
+
-
Insert with t he + pola rity
fac ing upward , and
catch with the hook.
Insert in the direction
of the arrow.
Battery holder
+
-
-
+
CAUTION
Do not short-circuit, charge, overheat, incinerate or disassemble the battery.
Dispose of the spent battery according to local laws.
Press in vertically.
Check the battery's
polarity indicated on
the holder's metal
section before inserting.
PCI NC Card (HR183+655)
BAT
BAT
27
4. NC Card (HR621/HR623/FCU6-HR655) Connection
4.5 PCI NC Card Mounting
4.5.2 PCI NC Card Mounting Procedure
Install the software and mount the NC Card following the Setup Instruction Manual (BNP-B2191).
The software will not be installed correctly if the soft ware installation and NC Card mounting procedure
are mistaken.
Mount the NC Card onto the personal computer with the following procedures.
(1) Set the rotary switch CDNO and slide switch SW1.
(Note) Before touching the NC Card, touch an exposed metal section of the personal computer to
discharge any static electricity.
Pay attention not to touch the NC Card, personal computer chip or circuit.
Location of PCI NC Card (FCU6-HR655) switches
CDNO
Roles of each switch
CDNO (rotary switch): Use to set the PCI NC Card's station No.
SW1 (slide switch): Use to set the PCI NC Card's power supply (internal/external).
9 10th card
A 11th card
B 12th card
C 13th card
D 14th card
E 15th card
F 16th card
The default setting is "0".
BAT
BAT
CF62
CF63
SW1
SW1 setting
SwitchSupply methodDetails
L Internal supply
M External supply
The default setting is "L".
+5V/+12V is supplied by
PCI bus.
+5V/+12V is supplied by
stabilized power supply.
BAT
BAT
AC FAIL
CF62
L
M
SW1
Connect a stabilized power supply to the CF62 and CF63 connectors
when using an external power supply.
CF63
+12V/+5V
Stabilized
power supply
28
4. NC Card (HR621/HR623/FCU6-HR655) Connection
4.5 PCI NC Card Mounting
(2) Following the instructions in the personal computer manual, remove the personal computer cover.
(Note) Follow the precautions instructed in the personal computer manual. Confirm that the
personal computer power is OFF, and that the power cable is disconnected.
(3) After confirming that there is a vacant PCI bus slot, remove the slot cover of the selected PCI bus
slot.
(Note) Do not misplace the slot cover screw as it is used to fix the PCI NC Card onto the personal
computer.
(4) Holding the card installation metal fittings and the ends of the PCI NC Card, so as to push in the
NC Card upper end, insert the card all the way into the personal computer PCI bus slot.
(Note) There is a set orientation for inserting the PCI NC Card into the PCI bus slot. Insert the card
so that the card installation fitting comes to the slot cover's position.
Pre ss in
Press in
Card mounting
fitting
PCI NC Card
Personal computer PCI bus slot
(5) Using the fixing screw of the slot cover removed in mounting step 3, fix the PCI NC Card to the
personal computer.
(Note) Securely tighten the screw.
Screw
N
C
C
a
r
d
29
4. NC Card (HR621/HR623/FCU6-HR655) Connection
4.5 PCI NC Card Mounting
(6) Following the instructions in the personal computer manual, install the personal computer cover
removed in mounting step 2.
(7) Reconnect the personal computer power cables.
(Note) Do not turn the personal computer ON yet.
(8) Connect the two relay cables (F010 and F011) to the two connectors (CF10 and CF61) on the card
installation metal fitting section of the PCI NC Card.
(Note) Connect the F010 cable to the CF10 connector, and the F011 cable to the CF61 connector.
(9) Connect the F010 and F011 cables to the base I/O unit and relay card.
(Note) Connect the F010 cable to the CF10 connector on the base I/O unit, and the F011 cable to
the CF61 connector on the relay card.
This completes the PCI NC Card (FCU6-HR655) mounting.
(10) Install the MELDASMAGIC64 software into the personal computer while the PCI NC Card is
mounted.
(Note) Do not change the personal computer's station No. or the power supply method while
installing the software.
Install the software and mount the NC Card following the Setup Instruction Manual
(BNP-B2191).
30
5. Base I/O Unit (FCU6-DX2**/3**/4**) Connection
5.1 Base I/O Unit Outline
5. Base I/O Unit (FCU6-DX2**/3**/4**) Connection
5.1 Base I/O Unit Outline
The base I/O unit is used in the connection of the machine input/output (DI/DO), servo drive unit,
spindle encoder, skip and remote I/O unit. There must be one base I/O unit for each NC Card.
Depending on the base I/O unit type, connection is possible with analog input, analog output and a
manual pulse generator.
The following shows a list of base I/O units and add-on PCBs.
Name Type
Base I/O
unit
Add-on
PCB
FCU6-DX210 DI (sink/source)/DO (sink)=48/48
FCU6-DX211 DI (sink/source)/DO (source)=48/48
FCU6-DX220 DI (sink/source)/DO (sink)=64/64
FCU6-DX221 DI (sink/source)/DO (source)=64/64
FCU6-DX310 DI (sink/source)/DO (sink)=80/64
FCU6-DX311 DI (sink/source)/DO (source)=80/64
FCU6-DX410 DI (sink/source)/DO (sink)=96/80
FCU6-DX411 DI (sink/source)/DO (source)=96/80
FCU6-DX320 DI (sink/source)/DO (sink)=80/64
FCU6-DX321 DI (sink/source)/DO (source)=80/64
FCU6-DX420 DI (sink/source)/DO (sink)=96/80
FCU6-DX421 DI (sink/source)/DO (source)=96/80
FCU6-DX330 DI (sink/source)/DO (sink)=48/48
FCU6-DX331 DI (sink/source)/DO (source)=48/48
FCU6-DX430 DI (sink/source)/DO (sink)=64/64
FCU6-DX431 DI (sink/source)/DO (source)=64/64
FCU6-DX340 DI (sink/source)/DO (sink)=48/48
FCU6-DX341 DI (sink/source)/DO (source)=48/48
FCU6-DX440 DI (sink/source)/DO (sink)=64/64
FCU6-DX441 DI (sink/source)/DO (source)=64/64
RX323-1 DI (sink/source)/DO (sink)=32/16 None
RX323 DI (sink/source)/DO (sink)=32/16 Analog output 1 point
RX324-1 DI (sink/source)/DO (source)=32/16 None
RX324 DI (sink/source)/DO (source)=32/16 Analog output 1 point
RX331 None HANDLE2ch
RX341 None
SV1, SV2, ENC1, SKIP, RIO1, RIO2,
Analog input 4 points, analog output
1 point
Add-on PCB: RX341
Analog input 4 points, analog output
1 point
(Note) Refer to "7. Remote I/O Unit Connection" for add-on PCB connections.
31
5. Base I/O Unit Connection
5.2 Base I/O Connection System Dra wing
5.2 Base I/O Connection System Drawing
Base I/O unit
NC card
CF10
F010 cable
SV1
CF10
SV2
ENC1
SKIP
RIO1
RIO2
CF31
CF32
CF33
CF34
CR31
SW1 SW2
>
>
DCIN
1
0
(Note) Refer to "7. Remote I/O Unit Connection" for add-on PCB connections.
CAUTION
Turn the NC Card's power ON before turning the base I/O unit's power ON.
If the base I/O unit's power is turned ON first, the current will be led to the NC Card from
the connection cable. This will prevent the personal computer or the cards in the
personal computer from starting up properly.
SH21 cable
SH21 cable
F040 cable
SH41 (FCUA-R211) cable
SH41 (FCUA-R211) cable
R301 cable
R301 cable
R301 cable
R301 cable
Enclosed cable
F070 (FCUA-R220) cable
Servo drive unit
(spindle and NC servo axis)
Servo drive unit
(auxiliary axes)
Encoder 1ch
(1st spindle encoder)
Sensor signal (skip)
Remote I/O unit, part system 1
Remote I/O unit, part system 2
(future expansion)
DI (machine input)
DI (machine input)
DO (machine output)
DO (machine output)
Add-on PCB
(1) CF10 This is used in the connection with the NC Card. An F010 cable is connected.
(2) SV1 This is connected to the servo drive unit 1st part system (for spindles and NC servo axes).
(3) SV2 This is connected to the servo drive unit 2nd part system (for auxiliary axes).
(4) ENC1 This is connected to the encoder 1st channel (1st spindle encoder).
(5) SKIP This is the sensor signal (skip) input connection. Up to eight points can be used.
This is connected to the remote I/O unit 1st part system. The max. No. of occupied stations is eight. Because two stations are
(6) RIO1
(7) RIO2
(8) CF31
(9) CF32
(10) CF33
(11) CF34
occupied in the base I/O unit, the remaining six occupied stations can be used. Note that when an add-on PCB is used, the
remaining five occupied stations can be used.
This is connected to the remote I/O unit 2nd part system. The max. No. of occupied stations is eight. Eight occupied stations can
be used. For future expansion.
This is used in the connection of the station No. (normally station No. 0) machine input signal set by the CS1 rotary switch.
This is used in the connection of the station No. (normally station No. 1) machine output signal set by the CS2 rotary switch.
DO: 16 (sink type) DO: 16 (source type) DO: 32 (sink type) DO: 32 (source type)
(12) CR31 This is a connector for an add-on PCB. It cannot be used unless using an add-on PCB.
(13) DCIN 24VDC must be supplied by external power. Refer to "3.1 General Specifications" for power specifications.
Unit name
CAUTION
Do not apply voltages on the connector other than those indicated in this manual. Doing
so may lead to destruction or damage.
Incorrect connections may damage the devices, so connect the cables to the specified
connectors.
Do not connect or disconnect the connection cables between each unit while the power
is ON.
Do not connect or disconnect any PCB while the power is ON.
33
5. Base I/O Unit Connection
5.3 Base I/O Unit Part Names
List of rotary switches
No. Name Function
(14)
CS1 This is used in the station No. setting of the CF31 and CF33 machine input/output signals.
(15)
CS2 This is used in the station No. setting of the CF32 and CF34 machine input/output signals.
The values in parentheses are used
only for DX220 and DX221.
(Note) I/O in the table is from the viewpoint of
the base I/O unit.
37
5. Base I/O Unit Connection
5.5 Base I/O Unit Input/Output Specifications
5.5 Base I/O Unit Input/Output Specifications
5.5.1 Rotary Switch (CS1 and CS2) Settings
Normal settings
CS1 0
CS2 1
The base I/O unit No. of occupied stations is two (when an add-on PCB is not used).
(Note) Also refer to "7.14 Setting of Channel No. When Using Multiple Remote I/O Units" for rotary
switch (CS1 and CS2) settings of the base I/O unit.
Relation between rotary switches and DI/DO connectors
CS1 DI: CF31, DO: CF33
CS2 DI: CF32, DO: CF34
Relation between rotary switches and device assignments
When using an add-on PCB, set the station No. using the rotary switch on the ad d-on PCB. This
rotary switch corresponds to connectors CR21 and CR22 of the ad d-on PCB.
The setting values, station Nos. and device assignments are as shown in the table above.
No. of I/O
points (max)
(Note) Refer to "5.1 Base I/O Unit Outline" for types of add-on PCBs.
One station is occupied when using RX331 (manual pulse generator) and RX341 (analog
input/output) also.
5.5.2 RIO1 Terminator
Connect a terminator to the final end of the remote I/O unit connected to the RIO1.
When not using any remote I/O unit, connect a terminator to the base I/O unit RIO1.
Terminator type: R-TM
Recommended manufacturer: Tyco Electronics AMP
X
AMP
D-3
38
5. Base I/O Unit Connection
5.5 Base I/O Unit Input/Output Specifications
5.5.3 CF31, CF32 Input Circuit
Refer to "7.4 Outline of Digital Signal Input Circuit" for the base I/O unit CF31 and CF32 input circuits.
1 Unit name FCU6-DX210 FCU6-DX211 FCU6-DX220 FCU6-DX221
2 Card name HR325 HR335 HR327 HR337
3 Input type Sink/source Sink/source Sink/source Sink/source
4 COM pin connection +24V/GND +24V/GND +24V/GND +24V/GND
5 No. of input points 48 points 48 points 64 points 64 points
6 Pin used for input X00~X2F X00~X2F X00~X3F X00~X3F
5.5.4 CF33, CF34 Output Circuit
Refer to "7.5 Outline of Digital Signal Output Circuit" for the base I/O unit CF33 and CF34 output
circuits.
1 Unit name FCU6-DX210 FCU6-DX211 FCU6-DX220 FCU6-DX221
2 Card name HR325 HR335 HR327 HR337
3 Output type Sink type Source type Sink type Source type
4 Output current 60mA/point 60mA/point 60mA/point 60mA/point
5 No. of output points 48 points 48 points 64 points 64 points
6 Pin used for output Y00~Y2F Y00~Y2F Y00~Y3F Y00~Y3F
5.5.5 Specifications of ADD ON PCB Connected to CR31
Refer to "7. Remote I/O Unit Connection" for add-on PCB specifications. One add-on PCB can be
installed on the base I/O unit, and it occupies one station. Reference items are as in the following table.
Name Reference item Reference connector name
1 RX323-1
2 RX323
3 RX324-1
4 RX324
5 RX331
6 RX341
Refer to "7.6 Outline of Analog Signal Output Circuit" for the analog output specifications.
Refer to "7.7 Outline of Analog Signal Input Circuit" for the analog input specifications.
7.9 Connection of FCUA-DX11* unit and
machine control signal
7.10 Connection of FCUA-DX12* unit and
machine control signal
7.9 Connection of FCUA-DX11* unit and
machine control signal
7.10 Connection of FCUA-DX12* unit and
machine control signal
7.11 Connection of FCUA-DX13* unit and
handle
7.13 Connection of FCUA-DX14* unit and
analog input/output signal
FCUA-DX110: DI-R, DO-R
FCUA-DX120: DI-R, DO-R
FCUA-DX111: DI-R, DO-R
FCUA-DX121: DI-R, DO-R
FCUA-DX13*: HANDLE
FCUA-DX14*: AIO
39
5. Base I/O Unit Connection
5.5 Base I/O Unit Input/Output Specifications
5.5.6 Connection of Base I/O Unit Power Supply
Supply the +24V power to the base I/O unit from the DCIN connector.
Base I/O unit
Sta bilized po wer
+24V
GND
FG
(Prepare separately.)
DCIN
+24V
GND
NC
(Note) A +24V power supply must be input for both the sink type and source type.
CAUTION
Do not apply voltages other than those indicated in this manual on the connector. Doing
so may lead to destruction or damage.
Incorrect connections may damage the devices, so connect the cables to the specified
connectors.
40
5. Base I/O Unit Connection
5.5 Base I/O Unit Input/Output Specifications
5.5.7 Examples of DI/DO Connection
There are two types of MELDASMAGIC64 DI/DO; the base I/O unit and remote I/O unit. Normally, one
base I/O unit is used, a remote I/O unit is connected to RIO1 or RIO2 (for future expansion), and the No.
of I/O points is configured in combination with the user specifications.
Refer to "7. Remote I/O Unit Connection" for information about remote I/O units.
<Connection example 1> When not using an add-on PCB
SH41(FCUA-R211)
RIO1
cable
Bas e I/O unit
FCU6-DX2
No. of occupied
stations: 2
(dependent on RIO1)
**
RIO2
Remote I/O unit: FCUA-DX11
No. of occupied
stations: 2
Total No. of occupied stations (RIO1): Base I/O unit (2 stations) + 3 remote I/O units
(2 stations + 2 stations + 2 stations) = 8 stations
SH41(FCUA-R211)
cable
Remote I/O unit: FCUA-DX11
No. of occupied
stations: 2
Total No. of occupied stations (RIO2): Remote I/O unit (2 stations + 2 stations
+ 2 stations + 2 stations) = 8 stations
No. of occupied
stations: 2
No. of occupied
stations: 2
<Connection example 2> When using an add-on PCB
SH41(FCUA-R211)
RIO1
Base I/O unit
FCU6-DX3
No. of occupied
stations: 3
(dependent on RIO1)
**/4**
RIO2
cable
Remote I/O unit: FCUA-DX10
No. of occupied
stations: 1
Total No. of occupied stations (RIO1): Base I/O unit (3 stations) + remote I/O unit
(1 station + 2 stations + 2 stations) = 8 stations
SH41(FCUA-R211)
cable
*×1 unit + Remote I/O unit: FCUA-DX11*/12*/13*/14*
No. of occupied
stations: 2
*/12*/13*/14*×3 units
No. of occupied
stations: 2
(For future expansion)
*/12*/13*/14*×4 units
No. of occupied
stations: 2
No. of occupied
stations: 2
(For future expansion)
Maximum configuration
Maximum
configuration
No. of occupied
stations: 2
Maximum configuration
×2 units
Maximum
configuration
Remote I/O unit: FCUA-DX11
No. of occupied
stations: 2
Total No. of occupied stations (RIO2): Remote I/O unit (2 stations + 2 stations
+ 2 stations + 2 stations) = 8 stations
CAUTION
Do not apply voltages other than those indicated in this manual on the connector. Doing
No. of occupied
stations: 2
*/12*/13*/14*×4 units
No. of occupied
stations: 2
No. of occupied
stations: 2
so may lead to destruction or damage.
Incorrect connections may damage the devices, so connect the cables to the specified
connectors.
41
5. Base I/O Unit Connection
5.5 Base I/O Unit Input/Output Specifications
5.5.8 Connection of Servo Drive Unit
Connect the servo drive unit to the base I/O unit SV1 (for spindles and NC servo axes) and SV2 (for
peripheral axes).
Base I/O unit
Servo drive unit
SV1
SV2
SH21 cable
SH21 cable
Servo drive unit
CN1A
CN1A
(Spindles and
NC servo axes)
(For auxiliary axes)
Refer to "MELDAS AC Servo and Spindle MDS-A/B Series Specifications Manual (BNP-B3759)
MDS-C1 Series Specifications Ma nual (BNP-C3000)" for servo drive unit details.
<Related sections>
Cable manufacturing drawing: “Appendix 2.1 SH21 cable”
Connector pin assignment: “5.4 Base I/O unit connector pin assignment” - servo drive unit (SV1, SV2)
5.5.9 Connection of Spindle Encoder
Connect the spindle encoder to ENC1 on the base I/O unit. When connecting two channels, connect
the second channel to ENC#2 on the relay card (HR682).
Connect the sensor signal (skip) to SKIP on the base I/O unit. The sensor signal is used for processing
the high-speed signals. Always shield the cable.
(1) Sensor signal (skip) cable
Base I/O unit
SKIP
Sta bilized p ower
+24V
GND
FG
(2) Input conditions
FG
2
10
3
11
5
13
6
14
1,8,9,15
SKIP IN1
2.2kΩ
SKIP IN2
2.2kΩ
SKIP IN3
2.2kΩ
SKIP IN4
2.2kΩ
SKIP IN5
2.2kΩ
SKIP IN6
2.2kΩ
SKIP IN7
2.2kΩ
SKIP IN8
2.2kΩ
Control circuit
Use the input signal within the following condition range.
1 Input voltage when external contact is ON 25.2V or more
2 Input current when external contact is ON 9mA o r more
3 Input voltage when external contact is OFF 4V or less
+24V
Ton
4 Input current when external contact is OFF1mA or less
5 Input signal hold time (Ton) 2ms or more
6 Internal response time 0.08ms or less
7 Machine side contact capacity
+30V or more,
16mA or more
GND
_
Ton 2ms
>
<Related section>
Connector pin assignment: “5.4 Base I/O unit connector pin assignment” – sensor signal
(SKIP)
CAUTION
Do not apply voltages other than those indicated in this manual on the connector. Doing
so may lead to destruction or damage.
Incorrect connections may damage the devices, so connect the cables to the specified
connectors.
t
43
6. Relay Card (HR682) Connection
6.1 Relay Card Outline
6. Relay Card (HR682) Connection
6.1 Relay Card Outline
The relay card is used in the connection of the spindle encoder, manual pul se ge nerato r, RS-2 32C a nd
external emergency stop.
There must be one relay card for each NC Card.
Name Type
Relay
HR682 No DI/DO
card
6.2 Relay Card Connection System Diagram
No. of machine input/
output points
Relay card
Other interfaces
EMG, ENC#2, HANDLE 3ch and
RS-232C.
With metal spacers. Add-On to
FCU6-DX2** possible.
RS-232C uses only the DC code
(X ON/OFF) method handshake.
NC Card
CF61
F011 cable
CF61
ENC#2
HANDLE
RS232C
EMG1
DCIN
F040 cable
F020 cable
F390 cable
F070 cable
F070 cable
Encoder 2ch (2nd spindle encoder)
Manual pulse generator 3ch
RS-232C 1ch
Emergency stop switch
External power (24VDC)
(Note) RS-232C uses only the DC code (X ON/OFF) method handshake.
44
6. Relay Card (HR682) Connection
6.3 Relay Card Part Names
6.3 Relay Card Part Names
Relay card
(7)
DCIN
(8)
(9)
(10)
(11)
LED3 LED1
EMG LED2 5VON
(6)
(3)
HANDLE
(5)
CF61
EMG1
RS232C
(1)
ENC#2
(2)
(4)
List of connectors
No. Name Function details
(1) CF61 This is used in the connection with the NC Card. An F011 cable is connected.
(2) ENC#2 This is connected to the encoder 2nd channel (2nd spindle encoder).
(3) HANDLE This is connected to the manual pulse generator. Up to 3 channels can be connected.
(4) RS232C
(5) EMG1 This is connected to the external emergency stop switch.
(6) DCIN 24VDC is supplied by external power. Refer to "3.1 General Specifications" for power specifications.
This is connected to the RS-232C. One channel can be connected. Note that only the DC code (X ON/OFF)
method handshake is possible.
LED list
No. Name Function details
(7) 5VON
(8) LED1 Not in use
(9) LED2 Not in use
(10)
LED3 Not in use
(11)
EMG
This is the LED for the circuit power
5VDC output display.
This is the LED for the NC system
emergency stop display.
When lit (green): Outputting 5VDC. When not lit: 5VDC output OFF.
When lit (red): System in emergency stop When not lit: Normal
CAUTION
Do not apply voltages on the connector other than those indicated in this manual. Doing
so may lead to destruction or damage.
Incorrect connections may damage the devices, so connect the cables to the specified
connectors.
Do not connect or disconnect the connection cables between each unit while the power
is ON.
Do not connect or disconnect any PCB while the power is ON.
(Note) I/O in the table is from the viewpoint of the relay card.
This connector shows the minimum required pin assignment
for the RS-232C interface. Refer to "Appendix 2.18 F390
Cable" for details on manufacturing the cable.
1
2
3
4
5
6
7
8
9
10
11
12
13
3
(Note) I/O in the table is from the viewpoint of
FG
TD
O
RD
I
DR
O
GND
14
15
16
17
18
19
I
20
21
22
23
24
25
DC
1
2
3
+24V
GND
FG
the rela
card.
3
I
1
2
3
(Note) I/O in the table is from the viewpoint of
EMG
GND
FG
the rela
card.
Do not apply voltages other than those indicated in this manual on the connector. Doing
so may lead to destruction or damage.
Incorrect connections may damage the devices, so connect the cables to the specified
connectors.
47
6. Relay Card (HR682) Connection
6.5 Relay Card Input/Output Specifications
6.5 Relay Card Input/Output Specifications
6.5.1 Relay Card Power Connection
Supply the external power (24VDC) input by the DCIN connector.
Relay card
DCIN
24VDC
GND
NC
6.5.2 Emergency Stop Connection
The emergency stop input is connected to the EMG1 connector.
Emergency stop switch
2.2kΩ
EMG1
1
R
Stabilized power supply
24VDC
GND
FG
(Prepare separately)
Stabilized power supply
24VDC
2
3
GND
FG
FG
(Prepare separately)
Input conditions
Input voltage when external contact is ON 18V or more
Input current when external contact is ON 9mA or more
Tson
+24V
Input voltage when external contact is OFF4V or more
Input current when external contact is OFF1mA or more
Input signal hold time (Tson) 40ms or more
Machine side contact capacity
CAUTION
Do not apply voltages other than those indicated in this manual on the connector. Doing
+30V or more,
16mA or more
GND
_
>
Tson 40ms
so may lead to destruction or damage.
Incorrect connections may damage the devices, so connect the cables to the specified
connectors.
t
48
6. Relay Card (HR682) Connection
6.5 Relay Card Input/Output Specifications
6.5.3 Connection of Spindle Encoder
Refer to "5.5.9 Connection of Spindle Encoder" for details.
6.5.4 Manual Pulse Generator Connection
Connect the manual pulse generator to the relay card HANDLE connector. The manual pulse generator
can be connected to a max. of three channels.
Connect the RS-232C device to the RS-232C connector on the relay card using an F390 cable.
The pin assignment for the RS-232C connector differs from a commercially-available RS-232C cable.
Refer to the following related sections for details on manufacturing the cable.
Note that only the DC code (X ON/OFF) method handshake is possible.
Do not apply voltages other than those indicated in this manual on the connector. Doing
so may lead to destruction or damage.
Incorrect connections may damage the devices, so connect the cables to the specified
connectors.
49
6. Relay Card (HR682) Connection
6.6 Installation on the Base I/O Unit
6.6 Installation on the Base I/O Unit
A relay card (HR682) can be added on to the base I/O unit. When adding on, install the card using the
following procedure.
Adding on is only possible with the FCU6-DX2** base I/O unit.
Note that adding on is not possible with the FCU6-DX3** and 4**.
1. Remove screw 1 from the base I/O unit. (Fig. 1)
2. Remove screw 2 of the relay card and spacer 1 (screw holes at both ends are female). (Fig. 2)
3. Install the attached spacer 2 (screw holes on one side are male) to the hole of screw 1 that was
removed from the base I/O unit. (Fig. 3)
4. Mount the relay card on the base I/O unit, and fix with screw 1 that was removed in step 1. (Fig. 4)
5. Turn the unit over, and fix the screws at the three holes to the three spacer locations. (Fig. 5)
This completes the installation of the relay card to the base I/O unit.
00
CF31CF32
CF31CF32
CF34CF33
Remove screw 1.
Fig. 1
0 0
CF34CF33
Install spacer 2.
CF31CF32
CF34CF33
Fig. 2
Remove screw 2
and spacer 1.
0 0
Install screw 1.
Fig. 3Fig. 4
Turn the unit over,
and fix the screws
at the three locations.
Fig. 5
50
7. Remote I/O Unit Connection (FCUA-DX1**)
7.1 Outline of Remote I/O Unit
7. Remote I/O Unit Connection (FCUA-DX1**)
7.1 Outline of Remote I/O Unit
The eight types of signals that can be input/output from the remote I/O unit (FCUA-DX1**) are shown
below according to the type and No. of contacts. Use with serial link connections (MC link B) to the NC
Card.
When the remote I/O unit is connected with serial links, multiple units can be used as long as the total
No. of occupied stations (channels) is within 8 channels. (Refer to "7.14 Setting of Channel No. When
Using Multiple Remote I/O Units" for station No. setting details.)
Unit name Machine control signals that can be input/output
FCUA-DX100
FCUA-DX101
FCUA-DX110
FCUA-DX111
FCUA-DX120
FCUA-DX121
FCUA-DX130
FCUA-DX131
FCUA-DX140
FCUA-DX141
Digital input signal (DI) : 32 points (photo coupler insulation) sink/source type
Digital output signal (DO) : 32 points (non-insulation) sink type
Digital input signal (DI) : 32 points (photo coupler insulation) sink/source type
Digital output signal (DO) : 32 points (non-insulation) source type
Digital input signal (DI) : 64 points (photo coupler insulation) sink/source type
Digital output signal (DO) : 48 points (non-insulation) sink type
Digital input signal (DI) : 64 points (photo coupler insulation) sink/source type
Digital output signal (DO) : 48 points (non-insulation) source type
Digital input signal (DI) : 64 points (photo coupler insulation) sink/source type
Digital output signal (DO) : 48 points (non-insulation) sink type
Analog output (AO) : 1 point
Digital input signal (DI) : 64 points (photo coupler insulation) sink/source type
Digital output signal (DO) : 48 points (non-insulation) source type
Analog output (AO) : 1 point
Digital input signal (DI) : 32 points (photo coupler insulation) sink/source type
Digital output signal (DO) : 32 points (non-insulation) sink type
Handle input : 2 channels
Digital input signal (DI) : 32 points (photo coupler insulation) sink/source type
Digital output signal (DO) : 32 points (non-insulation) source type
Handle input : 2 channels
Digital input signal (DI) : 32 points (photo coupler insulation) sink/source type
Digital output signal (DO) : 32 points (non-insulation) sink type
Analog input (AI) : 4 points
Analog output (AO) : 1 point
Digital input signal (DI) : 32 points (photo coupler insulation) sink/source type
Digital output signal (DO) : 32 points (non-insulation) source type
Analog input (AI) : 4 points
Analog output (AO) : 1 point
For changeove r of transfer speed.
Normally set to left side.
No t used
Selection of channel No.
(11)
(3)
Bottom
view
(6) RIO2 (serial connection connector #2)
(7) DCIN (+24VDC power input connector)
(8) DI-R (machine input signal connector)
(9) DO-R (machine output signal connector)
(10) HANDLE (manual pulse generator signal
input connector)
(11) AIO (analog signal input/output connector)
52
Enlarged drawing of DS and CS
(Note) Baud rate changeover
Left side : 2.8Mbps
Right side : 1.4Mbps
7. Remote I/O Unit Connection (FCUA-DX1**)
7.3 Connection of Remote I/O Power
7.3 Connection of Remote I/O Power
+24VDC is required to run the remote I/O unit. Prepare a stabilized power supply that satisfies the
following conditions.
Output voltage +24V ±5%
Ripple ±5% (P-P)
Max. output
current
The +24VDC power for the control circuit is supplied from the connector DCI N on the bottom of the unit
or from connectors DI-L, DI-R, DO-L or DO-R on the front. When supplying from the front connector,
supply to all corresponding pins.
When manufacturing the R300 cable, use the single-end connector CN300 (optional, with one end),
and when manufacturing the R301 cable, use the connector set CS301 (optional, with two ends).
Machine control panel,
electric cabinet, etc.
FCUA-DX10* 2.4A or more
FCUA-DX11* 3.8A or more
FCUA-DX12* 3.8A or more
FCUA-DX13* 3.4A or more
FCUA-DX14* 3.4A or more
Front
Remote I/O unit
R300 cable
or R301
cable
DI-L DI-R
<Connection outline>
DI-L
B1
B2
A1
A2
DI-R
B1
B2
A1
A2
+24VDC
0V
FG
Stabilized power
(prepare separately)
CAUTION
Do not apply voltages other than those indicated in this manual on the connector. Doing
so may lead to destruction or damage.
Incorrect connections could damage the device, so always connect the cable to the
designated connector .
RA
PL
Supply to either method
R220 cable
+24VDC
0V
DO-L DO-R
(Front)
YY
Base
(Rear)
1
2
3
B1
B2
A1
A2
DO-L
DCIN
+24VDC
0V
FG
B1
B2
A1
A2
DO-R
53
7. Remote I/O Unit Connection (FCUA-DX1**)
7.4 Outline of Digital Signal Input Circuit
7.4 Outline of Digital Signal Input Circuit
The input circuit can be selected from sink type or source type in card units.
Input circuit
(Machine side)
DI-R/DI-L
2.2k
0V
2.2k
0V
2.2k
0V
2.2k
0V
2.2k
0V
+24VDC
(Machine side)
+24VDC
+24VDC
+24VDC
+24VDC
A3,B3
Control
circuit
COM
Sink type
DI-R/DI-L
2.2k
2.2k
2.2k
2.2k
+24VDC
0V
A3,B3
COM
54
2.2k
Source type
Control
circuit
7. Remote I/O Unit Connection (FCUA-DX1**)
7.4 Outline of Digital Signal Input Circuit
Input conditions
The input signals must be used within the following condition ranges.
Sink type
Input voltage at external contact ON 6V or less
Input current at external contact ON 9mA or more
Input voltage at external contact OFF 20V or more, 25. 2V or l ess
Input current at external contact OFF 2mA or less
Tolerable chattering time (T1) 3ms or less
Input signal hold time (T2) 40ms or mo re
Input circuit operation delay time (T3, T4)
3ms ≤ T3
T4 ≤ 16ms
Machine side contact capacity +30V or more, 16mA or more
Source type
Input voltage at external contact ON 18V or more, 25.2V or less
Input current at external contact ON 9mA or more
Input voltage at external contact OFF 4V or less
Input current at external contact OFF 2mA or less
Tolerable chattering time (T1) 3ms or less
Input signal hold time (T2) 40ms or mo re
Input circuit operation delay time (T3, T4)
3ms ≤ T3
T4 ≤ 16ms
Machine side contact capacity +30V or more, 16mA or more
T2
T2
T1T1
T3
T4
T1T1
T3T4
Sink type Source type
55
7. Remote I/O Unit Connection (FCUA-DX1**)
7.5 Outline of Digital Signal Output Circuit
7.5 Outline of Digital Signal Output Circuit
The digital signal output circuit uses a sink type (DX1*0) or source type (DX1*1). Use within the
specification ranges shown below.
Output circuit
(Machine side)
DO-R/DO-L
+24VDC
(Machine side)
RA
PL
R
R
DO-R/DO-L
RA
PL
Control
circuit
Sink type (DX1*0)
+24VDC
Control
circuit
Output conditions
Source type (DX1* 1)
Insulation method Non-insulation
Rated load voltage +24VDC
Max. output current 60mA/1 point (fixed value)
Output delay time 40µs
(Note) An output voltage of more than 60mA per point cannot be flowed.
* When using an inductive load such as a relay, always connect a diode (voltage
resistance 100V or more, 100mA or more) in parallel to the load.
* When using a capacity load such as a ramp, always connect a protective resistor
(R=150 ) serially to the load to suppress rush currents. (Make sure that the
<CAUTION>
current is less than the above tolerable current including the momentary current.)
CAUTION
When using an inductive load such as a relay, always connect a diode in parallel to the
load.
When using a capacity load such as a ramp, always connect a protective resistor serially
to the load to suppress rush currents.
56
7. Remote I/O Unit Connection (FCUA-DX1**)
7.6 Outline of An alog Signal Output Circuit
7.6 Outline of Analog Signal Output Circuit
The analog signal output circuit can be used only for the FCUA-DX120/DX121/DX140/DX141.
The analog signal output circuit can be used only for the FCUA-DX140/DX141.
Input circuit
AI
150
AI*
ADC
Input conditions
Max. input voltage rating ±15V
Resolution (polarity included) 12 bit (±10V × n/2048) (n = 20 to 211)
Precision Within ±25mV
AD input sampling time (conversion delay)14.2ms (AI0)/42.6ms (AI1~3)
58
7. Remote I/O Unit Connection (FCUA-DX1**)
7.8 Connection of FCUA-DX10*/13*/14* Unit and Machine Control Signal
7.8 Connection of FCUA-DX10*/13*/14* Unit and Machine Control Signal
Type of machine input/output
signal and No. of points
R300 cable/
R301 cable
Machine signal
R300 cable/
R301 cable
Machine signal
Input Output
32 points32 points
DI-L
DO-L
FCUA-DX10*
or
FCUA-DX13*
or
FCUA-DX14*
DCIN
RIO2
RIO1
The single-end connector CN300 (optional, with one end) includes the DI-L and DO-L connectors. The
connector set CS301 (optional) includes the DI-L and DO-L connectors, and two connectors for
connection with the terminal block
∗
.
∗ IDEC IZUMI Corporation I/O terminal BX1F-T40
<Outline of connection>
FCUA-DX101/131/141
A3
B3
B1
B2
A1
A2
B1
B2
A1
A2
COM
2.2k
RIO1
Input cir cu it
source type
Output circuit
source type
RIO2
Control
circu it
DCIN
12
0V+24V DCFG
3
+24VDC
0V
+24VDC
RA
PL
Machine
contr ol pan el
DI-L
A3
B3
B1
B2
A1
A2
DO-L
B1
B2
A1
A2
Stabi liz ed power
FCUA-DX10 0/1 30 /14 0
RIO1
COM
2.2k
Output circuit
sink type
RIO2
Input cir cu it
sink type
Control
circu it
DCIN
3
12
0V+24VDCFG
DI-L
0V
+24VDC
DO-L
RA
PL
0V
Machine
contr ol p anel
Stabi liz ed power
CAUTION
Incorrect connections could damage the device, so always connect the cable to the
designated connector.
Do not connect or disconnect the connection cables between each unit while the power
is ON.
59
7.8 Connection of FCUA-DX10*/13*/14* Unit and Machine Control Signal
<Signal assignment table>
When using more than two remote
I/O units, the signal assignments will
Machine side
control panel, etc.
7.9 Connection of FCUA-DX11* Unit and Machine Control Signal
7.9 Connection of FCUA-DX11* Unit and Machine Control Signal
Type of machine input/output signal
and No. of points
R300 c able/
R301 cable
Machine signal
Input Output
64 points48 points
DI-L
DI-R
FCUA-DX11*
Mach ine si gnal
R300 cable/
R301 cable
DO-L
DO-R
RIO1
DCIN
RIO2
The single-end connector CN300 (optional, with one end) includes the DI-L (DI-R) and DO-L (DO-R)
connectors. The connector set CS301 (optional) includes the DI-L (DI-R) and DO-L (DO-R) co nnectors,
and two connectors for connection with the terminal block
∗
.
∗ IDEC IZUMI Corporation I/O terminal BX1F-T40
<Outline of connection>
FCUA-DX1 11
COM
2.2kΩ
RIO2
RIO1
Input cir cu it
source type
Outpu t c ir cu it
source type
Control
circu it
DCIN
3
12
0V+24VDCFG
+24VDC
0V
+24VDC
RA
PL
Machin e
control panel
CAUTION
DI-L/ R
A3
B3
B1
B2
A1
A2
DO-L/ R
B1
B2
A1
A2
RIO1
Stabi liz ed power
FCUA-DX1 10
COM
2.2kΩ
RIO2
Input cir cu it
sink type
Outpu t ci rc ui t
sink type
Control
circu it
DCIN
3
12
0V+24VDCFG
0V
+24VDC
RA
PL
0V
Machin e
contr ol pan el
DI-L/ R
A3
B3
B1
B2
A1
A2
DO-L/ R
B1
B2
A1
A2
Stabi liz ed power
Incorrect connections could damage the device, so always connect the cable to the
designated connector.
Do not connect or disconnect the connection cables between each unit while the power
is ON.
61
7.9 Connection of FCUA-DX11* Unit and Machine Control Signal
<Signal assignment table>
<CAUTION>
When using two or more remote
I/O units, the signal allocation will
differ. Refer to the "P LC i nterface
manual" for details.
Crimp type connector:
7940-6500SC
Manufacturer:
Sumitomo 3M
Manufacturer:
Tyco Electronics AMP
62
7. Remote I/O Unit Connection
7.10 Connection of FCUA-DX12* Unit and Machine Control Signal
7.10 Connection of FCUA-DX12* Unit and Machine Control Signal
Type of machine input/output
signal and No. of points
Input Output
Analog
output
64 points48 points1 point
FCUA-DX12*
R300 cable/
R301 cable
Mach ine si gnal
R300 cable/
R301 cable
Mach ine si gnal
DI-L
DO-L
DI-R
DO-R
DCIN
RIO2
RIO1
The single-end connector CN300 (optional, with one end) includes the DI- L (DI-R) and D O-L (DO-R) connectors.
The connector set CS301 (optional) includes the DI-L (DI-R) and DO-L (DO-R) connectors, and two connectors for
connection with the terminal block
∗
.
∗ IDEC IZUMI Corporation I/O terminal BX1F-T40
<Outline of connection>
FCUA-DX1 21
COM
2.2kΩ
R
Ω
220
Input cir cu it
source type
Output circuit
source type
Control
circu it
R
DAC
+24VDC
0V
+24VDC
RA
PL
Machine
contr ol pan el
DI-L/ R
A3
B3
B1
B2
A1
A2
DO-L/R
B1
B2
A1
A2
DO-R
B4Analog o u t
A4
FCUA-DX120
COM
2.2kΩ
R
R
Ω
220
Input cir cu it
sink type
Outpu t ci rc ui t
sink type
Control
circu it
DAC
0V
+24VDC
RA
PL
0V
Machi ne
contr ol pan el
Analog out
DI-L/ R
A3
B3
B1
B2
A1
A2
DO-L/R
B1
B2
A1
A2
DO-R
B4
A4
RIO1
CAUTION
Incorrect connections could damage the device, so always connect the cable to the
RIO2
Stabilized power
DCIN
12
3
0V+24VDCFG
RIO1
Stabilized power
RIO2
designated connector.
Do not connect or disconnect the connection cables between each unit while the power
is ON.
63
DCIN
12
3
0V+24V DCFG
7.10 Connection of FCUA-DX12* Unit and Machine Control Signal
<Signal assignment table>
When using two or more rem ote I/O
units, the signal allocation will differ.
Refer to the "PLC interface manual"
for details.
Crimp type connector:
7940-6500SC
Manufacturer:
Sumitomo 3M
Manufacturer:
Tyco Electronics AMP
64
7. Remote I/O Unit Connection
7.11 Connection of FCUA-DX13* Unit and Handle
7.11 Connection of FCUA-DX13* Unit and Handle
To connect the manual pulse generator, the R041 or R042 cable is connected to "HANDLE". Up to two
manual pulse generators can be connected. When manufacturing the R041 or R042 cable, use the
connector set CS000 (optional, with two ends). (Refer to Appendix 2.4 R041 Cable, and Appendix 2.5
R042 Cable for cable details.)
To Connect one manual pulse generator
Manual pulse generator
FCUA-HD60
Rear view
NO.1
HANDLE
12V A0VB
FCUA-DX13*
4-M3
R041 cable
To connect two manual pulse generators
Manual pulse generator
FCUA-HD60
Rear view
NO.2
12V A0VB
NO.1
12V A0VB
20
11
Pin No.
HANDLE
4-M3
R042 cable
SEL*
FCUA-DX13*
When connecting the second manual pulse generator, connect the SEL* signal to the No. 1's 0V.
CAUTION
10
1
Incorrect connections could damage the device, so always connect the cable to the
designated connector.
Do not connect or disconnect the connection cables between each unit while the power
is ON.
65
7. Remote I/O Unit Connection
7.12 Outline of FCUA-DX13* Unit Pulse Input Circuit
7.12 Outline of FCUA-DX13* Unit Pulse Input Circuit
When connecting a device (pulse generator) other than the manual pulse gen erator to the
FCUA-DX13* unit, use within the following specifications.
Input/output conditions
Input pulse signal format
Input voltage H level 3.5V or more, L level 1.0V or less
Max. frequency of input pulse 100kHz
Output voltage 12V ± 10%
Max. output current 300mA
Input waveform
The difference of the input waveform potential must be ± 45 degrees or less.
2 signals of A -phase and B-phase potential difference 90
degrees (Refer to waveform below)
A(B) phase
e: Rising edge potential difference of A-phase
or B-phase
B(A) phase
e
T
T: A or B-phase cycle (min. 10µs)
Input/output circuit
FCUA-DX13*
Connector pin No.
+5V
470Ω
HA2
3
220Ω
4700pF
+5V
470Ω
HB2
Input
HA1
13
4
470Ω
220Ω
+5V
220Ω
4700pF
4700pF
Control
circuit
+5V
470Ω
HB1
+12V6
Output
14
220Ω
4700pF
HC14 phase
or equivalent
10V
The R041-3M (for one unit) and R042-3M (for two units) are available for the handle cables.
66
7. Remote I/O Unit Connection
7.13 Connection of FCUA-DX14* Unit and Analog Input/Output Signal
7.13 Connection of FCUA-DX14* Unit and Analog Input/Output Signal
For the analog input/output signal, the R031 cable is connected to "AIO". Up to four input points and
one output point of the analog input/output signal can be connected. When manufacturing the R031,
use the connector set CS000 (optional, with two ends). (Refer to the Appendix 2.3. R031 cable.)
FCUA-DX14
AIO
R031 cable
Input/output circuit
Connector pin No.
Input
Output
AI0
AI1
AI2
AI3
AO
GND
GND
GND
GND
2
12
3
13
1
11
5
15
20
10
11
1
Pin No.
FCUA-DX14*
150Ω
150Ω
150Ω
ADC
150Ω
R
Ω
7
220
R
DAC
CAUTION
Incorrect connections could damage the device, so always connect the cable to the
designated connector.
Do not connect or disconnect the connection cables between each unit while the power
is ON.
67
7. Remote I/O Unit Connection
7.14 Setting of Channel No. when Using Multiple Remote I/O Units
7.14 Setting of Channel No. when Using Multiple Remote I/O Units
When the remote I/O unit is connected with serial links (MC link B), multiple units can be used as long
as the total No. of occupied channels is within 8 channels.
When using multiple remote I/O units, a characteristic station No. must be set for each unit. The
FCUA-DX10* unit has one station No. setting switch, and FCUA-DX11*, DX12*, DX13* and DX14*
units have two switches. Each of these switches must be set to a characteristic station No.
The device address in each unit is determined according to the station No. Use the station No. setting
switch to set the device address.
Relation between rotary switches and device assignments
(Note) Refer to the next page for a configuration example.
Station
No.
Device assignment
DI DO
68
7. Remote I/O Unit Connection
7.14 Setting of Channel No. when Using Multiple Remote I/O Units
Configuration for <Device assignment example 1> on the previous page
FCU6-DX22* unit
CS1CS2
1
0
FCUA-DX10* unit
FCUA-DX11* unit
or
FCUA-DX12* unit
+
2
No. of occupied channels: 2No. of occupied channels: 1
Configuration for <Device assignment example 2> on the previous page
FCU6-DX21* unit
FCUA-DX11* unit or FCUA-DX12* unit: 3 units
+
3
No. of occupied channels: 2
Total No. of occupied cannels: 5
+++
4
0 12 34 56 7
No. of occupied
channels: 2
(Note) In MELDASMAGIC64, the base I/O unit normally occupies station Nos. 0 and 1.
Both of the examples above are configuration examples when connected to RIO1 (Part
system 1) connectors.
No. of occupied
channels: 2
No. of occupied
channels: 2
No. of occupied
channels: 2
T
otal No. of occupied channels: 8
(Max. configuration)
69
7. Remote I/O Unit Connection
7.15 Remote I/O Unit Input/Output Signal Cables
7.15 Remote I/O Unit Input/Output Signal Cables
There are two types of remote I/O unit digital input/output signal cables; the R300 and R301. The R300
cable has one end cut off. The R301 cable is a cable for connecting to the terminal block
R300-3M and R301-3M are available
If a cable longer than 3m is required, use the connector set CN300 or CS301.
The R041-3M (for one unit) and R042-3M (for two units) are available for the handle cables.
For the analog input/output cable, the R031 cable must be manufactured by the user.
∗
IDEC IZUMI Corporation I/O terminal BX1F-T40A
Machine control panel,
power distribution
panel, etc.
Appendix 1.10 Grounding Plate and Clamp Fitting Outline Drawings
Appendix 1.10 Grounding Plate and Clamp Fitting Outline Drawings
The shield wire generally only needs to be
grounded to the connector's case frame.
However, the effect can be improved by
directly grounding to the grounding plate as
shown on the right.
Install the grounding plate near each unit.
Peel part of the cable sheath as shown on
the right to expose the shield sheath. Press
that section against the grounding plate
with the clamp fitting. Note that if the cable
is thin, several can be clamped together.
Install the grounding plate directly onto the
cabinet or connect a grounding wire so that
sufficient frame grounding is achieved.
If the AERSBAN-SET, containing the
grounding plate and clamp fitting, is
required, please contact Mitsubishi.
• Outline drawing
Grounding plate
outline drawing
2-Ø5 hole
Installation hole
Presser
Clamp fitting
(Fitting A,B)
Shield sheath
Clamp section drawing
Presser outline drawing
17.5
12
3
40
24
Cable
0
-0.2
Grounding
plate
7
+0.3
0
20
3
29
Clamp metal fitting outline drawing
30
MAX L
10
b ± 0.3
7
Note 1 M4 screw
c
0
6
3
6
22
35
11
a
-0.2
24
35
+0.3
Note 1) Screw hole for wiring to cabinet's grounding plate
24
0
Note 2) The grounding plate thickness is 1.6mm
a b c Enclosed fittings L
AERSBAN-DSET 100 86 30 Two clamp fittings A Clamp fitting A 70
AERSBAN-ESET 70 56 – One clamp fitting B Clamp fitting B 45
(Note) a, b and c in the table are symbols in the outline drawing of (Note) L in the table is a
the grounding plate. symbol in the
outline drawing
of the clamp
metal fittings.
79
Appendix 2 Cable Manufacturing Drawings
Appendix 2 Cable Manufacturing Drawings
Cable type name table
No. Appendix No. Cable type Application Max. length Remarks
* For the cables marked with * in the Max. length column:
The cable length (L1) is the length from the NC Card to the base I/O unit and relay card. The cable
length (L2) is the length from the base I/O unit and relay card to each unit. Keep the total cable length
(L1 + L2) within the maximum cable length.
Maximum cable length
NC card
L1
F010
F011
Base I/O unit
SV1
SV2
RIO1
RIO2
ENC1
Relay card
ENC#2
L2
SH21
SH41
(R211)
F040/041
F040/041
Servo drive unit
Remote I/O unit
Spindle encoder
Spindle encoder
Symbols for writing cable manufacturing drawing
The following symbols are used in the cable manufacturing drawing.
1.
2.
3.
4. In the cable manufacturing drawings, the partner of the twisted pair cable is given a priority, so the pin Nos. of the
connectors at both end are not necessary in number of order.
5. Equivalent parts can be used for the connector, contact and wire material.
indicates twist.
indicates the shield sheath.
indicates shield clamping to the ground plate.
80
Appendix 2 Cable Manufacturing Drawings
As a rule, the cables used with this product are not available from Mitsubishi, excluding the cables
connected between the Mitsubishi devices. Thus, manufacture the required cables using the cable
manufacturing drawings on the following pages as a reference. Note that the cable-compatible
connectors are available from Mitsubishi as the cable set (Appendix 2.20).
If crimp tools are not available when manufacturing the power supply cable (F070, R220) and RIO
communication cable (SH41, R211), the cables can be manufactured by soldering a wire and
connector as shown in the following procedure.
1. Carry out preparatory soldering.
(Remove 3.5mm of the sheath.)
2. Insert the wire into the contact.
Hold the sheath keep.
Soldering iron
Contact
Wire
Solder
3. Lightly press down one side of
the wire barrel using radio pliers.
Wire barrel
Radio pliers
This is a barrier to prevent
mis-insertion. Do not bend.
5. Firmly press down the sheath
keeps in the same manner
as the wire barrel.
Sheath keep
4. Firmly press down the other side of the
wire barrel.
(Press firmly enough that the wire will
not come out when pulled lightly.)
6. Apply the soldering iron, and melt
the preparatory solder inside.
Better results will be achieved if an
additional, small amount of solder is
applied then.
Soldering iron
7. Lastly, insert the soldered contact
into the housing.
Pay attention to the
insertion direction.
Be careful that the solder does
not flow into the contact section.
Contact section
81
Appendix 2 Cable Manufacturing Drawings
2.1 SH21 Cable (Servo drive unit)
Cable type name: SH21 cable Appendix 2.1
Application: Base I/O unit – Servo drive unit connection
Servo drive unit – Servo drive unit connection, etc.
Assembly drawing
(1)(2)
(3)
SH21
(1)(2)
No. Part nameRecommended part type Qty
1Plug
2Shell
Wire
3
material
List of parts used
Sumitomo 3M
10120-6000EL
Sumitomo 3M
10320-3210-000
Toyokuni Electric Cable
UL20276 AWG28 × 10P
SH21
2
2
(1)
Connection diagram
1
11
2
12
3
13
4
14
5
15
6
16
7
17
8
18
9
19
10
20
Maximum cable length: 30m
1
11
2
12
3
13
4
14
5
15
6
16
7
17
8
18
9
19
10
20
Case frame
FG
Case frame
FG
Manufacturing precautions
(1) The wire material shall be a shielded, 10-pair stranded cable equivalent to UL20276 Standard
AWG28 (0.08mm
2
).
(2) The parts used shall be Mitsubishi recommended parts. Equivalent parts may be used
providing they are compatible with the specifications.
(3) Attach the nameplate with protective cover stamped with the cable name in the position
designated in the assembly drawing.
(4) Fold the wire material shield over the sheath, and wrap copper foil tape over it. Connect the
copper foil tape wrapped around the sheath to a connector GND plate.
(5) Part No. 1 (plug) and part No. 2 (shell) are solderless types. If soldering types are required,
use parts equivalent to 10120-3000VE for the plug and 10320-52FO-008 for the shell (both
parts manufactured by Sumitomo 3M).
82
Appendix 2 Cable Manufacturing Drawings
2.2 SH41 Cable (Remote I/O unit)
Cable type name: SH41 cable Appendix 2.2
Application: Base I/O unit – Remote I/O unit connection
Remote I/O unit – Remote I/O unit connection
Assembly drawing
(1)(2)
(3)
SH41
(1)(2)
No. Part nameRecommended part type Qty
1Connector
2Contact
X
Wire
3
material
List of parts used
Tyco Electronics AMP
1-178288-3
Tyco Electronics AMP
1-175218-2
Takeuchi Densen
MVVS 3C × 0.3mm
(MIC 3C × 0.3 mm
2
2
)
SH41
Connection diagram
Maximum cable length: 50m
2
6
(1)
TXRX
1
TXRX*
2
3
GND
TXRX
TXRX*
GND
1
2
3
Manufacturing precautions
(1) The wire material shall be a shielded, 3-core cable equivalent to AWG22 (0.3mm
2
).
(2) The parts used shall be Mitsubishi recommended parts. Equivalent parts may be used
providing they are compatible with the specifications.
(3) Attach the nameplate with protective cover stamped with the cable name in the position
designated in the assembly drawing.
(4) Protect both ends of the wire with an insulating bush.
83
Appendix 2 Cable Manufacturing Drawings
2.3 R031 Cable (Analog signal input/output)
Cable type name: R031 cable Appendix 2.3
Application: Analog signal input/output
Assembly drawing
Remote I/O unit side
(1)(2)
(3)
R031
Analog input/output signal
(4)
Option (compatible connector set)
FCUA-CS000
(Note that this is only compatible with the
remote I/O unit side.)
List of parts used
No. Part nameRecommended part type Qty
1Plug
2Shell
Wire
3
material
Crimp
4
terminal
Sumitomo 3M
10120-3000VE
Sumitomo 3M
10320-52F0-008
UL1061-2464
AWG22 × 6P
J.S.T. Mfg
V1.25-4
R031
Connection diagram
Maximum cable length: 30m
1
1
(1)
10
Remote I/O unit side
2
1
12
11
3
5
13
15
7
FG
Case frame
Analog input/output signal
AI0
GND
AI1
GND
AI2
GND
AI3
GND
AO
GND
Manufacturing precautions
(1) The wire material shall be a shielded, 6-pair stranded cable equivalent to UL1061-2464
Standard AWG22 (0.3mm
2
).
(2) The parts used shall be Mitsubishi recommended parts. Equivalent parts may be used
providing they are compatible with the specifications.
(3) Attach the nameplate with protective cover stamped with the cable name in the position
designated in the assembly drawing.
(4) Fold the wire material shield on the remote I/O unit side over the sheath, and wrap copper foil
tape over it. Connect the copper foil tape wrapped around the sheath to a connector GND
plate.
(5) Stamp the name of each signal on the crimp terminal side mark tube and install.
(6) Insulate the crimp terminals of unused signal wires with vinyl tape, etc.
(7) Part 1 (plug) is usually used for wire material of AWG 24 (0.2mm2) or less in the catalog
specifications, but AWG 22 (0.3mm
2
) can also be used.
84
Appendix 2 Cable Manufacturing Drawings
2.4 R041 Cable (Manual pulse generator)
Cable type name: R041 cable Appendix 2.4
Application: Remote I/O unit – Manual pulse generator connection
(when one manual pulse generator is connected)
Assembly drawing
Remote I/O unit side
(1)(2)
Manual p ulse gener ator side
(3)
R041
(4)
R041
Option (compatible connector set)
FCUA-CS000
(Note that this is only compatible with the
remote I/O unit side.)
List of parts used
No. Part nameRecommended part type Qty
1Plug
2Shell
Wire
3
material
Crimp
4
terminal
Sumitomo 3M
10120-3000VE
Sumitomo 3M
10320-52F0-008
UL1061-2464
AWG22 × 6P
J.S.T. Mfg
V1.25-4
Connection diagram
Maximum cable length: 30m
1
1
(1)
5
Remote I/O unit side
1
11
4
14
5
15
6
16
Manual p ulse generator s ide
GND
HA1
HB1
GND
+12V
Case frame
FG
Manufacturing precautions
(1) The wire material shall be a shielded, 6-pair stranded cable equivalent to UL1061-2464
Standard AWG22 (0.3mm
2
).
(2) The parts used shall be Mitsubishi recommended parts. Equivalent parts may be used
providing they are compatible with the specifications.
(3) Attach the nameplate with protective cover stamped with the cable name in the position
designated in the assembly drawing.
(4) Fold the wire material shield on the remote I/O unit side over the sheath, and wrap copper foil
tape over it. Connect the copper foil tape wrapped around the sheath to a connector GND
plate.
(5) Stamp the name of each signal on the crimp terminal side mark tube and install.
(6) Part 1 (plug) is usually used for wire material of AWG 24 (0.2mm2) or less in the catalog
specifications, but AWG 22 (0.3mm
2
) can also be used.
85
Appendix 2 Cable Manufacturing Drawings
2.5 R042 Cable (Manual pulse generator)
Cable type name: R042 cable Appendix 2.5
Application: Remote I/O unit – Manual pulse generator connection
(when two manual pulse generator is connected)
Assembly drawing
Remote I/O unit side
(1)(2)
Manual p ulse gener ator s ide
(4)
Option (compatible connector set)
FCUA-CS000
(Note that this is only compatible with the
remote I/O unit side.)
List of parts used
(3)
R042
R042
No. Part nameRecommended part type Qty
1Plug
2Shell
Wire
3
material
Crimp
4
terminal
Sumitomo 3M
10120-3000VE
Sumitomo 3M
10320-52F0-008
Wire material
UL1061-2464
AWG22 × 6P
J.S.T. Mfg
V1.25-4
Connection diagram
Maximum cable length: 30m
1
1
(1)
9
Remote I/O unit side
1
11
2
3
13
4
14
5
15
6
16
Manual p ulse gener ator side
GND
SEL*
HA2
HB2
HA1
HB1
GND
+12V
Channel 2
Channel 1
Case frame
FG
(When using channel 2, connect the SEL* signal to the GND.)
Manufacturing precautions
(1) The wire material shall be a shielded, 6-pair stranded cable equivalent to UL1061-2464
Standard AWG22 (0.3mm
2
).
(2) The parts used shall be Mitsubishi recommended parts. Equivalent parts may be used
providing they are compatible with the specifications.
(3) Attach the nameplate with protective cover stamped with the cable name in the position
designated in the assembly drawing.
(4) Fold the wire material shield on the remote I/O unit side over the sheath, and wrap copper foil
tape over it. Connect the copper foil tape wrapped around the sheath to a connector GND
plate.
(5) Stamp the name of each signal on the crimp terminal side mark tube and install.
(6) Part 1 (plug) is usually used for wire material of AWG 24 (0.2mm2) or less in the catalog
specifications, but AWG 22 (0.3mm
2
) can also be used.
86
Appendix 2 Cable Manufacturing Drawings
2.6 R211 Cable (Remote I/O unit)
Cable type name: R211 cable Appendix 2.6
Application: Base I/O unit – Remote I/O unit connection
Remote I/O unit – Remote I/O unit connection
Assembly drawing
(1)(2)
(1)(2)
(3)
Option (compatible connector set)
FCUA-CN211
(Note that there is a single-end connector
and contact, with no crimp terminal.)
List of parts used
X
(5)
R211
R211
(4)
No. Part nameRecommended part type Qty
1Connector
2Contact
Wire
3
material
Crimp
4
terminal
Crimp
5
terminal
Tyco Electronics AMP
1-178288-3
Tyco Electronics AMP
1-175218-2
Takeuchi Densen
MVVS 3C × 0.5 mm
(MIC 3C × 0.5 mm
J.S.T. Mfg
V1.25-3
J.S.T. Mfg
V1.25-5
2
2
)
Connection diagram
Maximum cable length: 50m
2
6
(1)
1
1
TXRX
TXRX*
GND
1
2
3
FGFG
TXRX
1
TXRX*
2
3
GND
Manufacturing precautions
(1) The wire material shall be a shielded, 3-core cable equivalent to AWG20 (0.5mm
2
).
(2) The parts used shall be Mitsubishi recommended parts. Equivalent parts may be used
providing they are compatible with the specifications.
(3) Attach the nameplate with protective cover stamped with the cable name in the position
designated in the assembly drawing.
(4) Protect both ends of the wire with an insulating bush.
(5) Connect the crimp
terminal attached to the shield to the frame ground of the base I/O unit or
remote I/O unit.
Note that for noise resistance improvement, in some cases only one end is connected, both
ends are connected or neither end is connected.
87
Appendix 2 Cable Manufacturing Drawings
2.7 R220 Cable (+24VDC input)
Cable type name: R220 cable Appendix 2.7
Application: +24V supply to the base I/O unit, relay card and remote I/O unit
Input of emergency stop signal to the relay card
Assembly drawing
(1)(2)
(3)
(4)
Option (compatible connector set)
FCUA-CN220
(Note that this is only compatible with the
base I/O unit, relay card and remote I/O unit
side connectors.)
Y
R220
R220
No. Part nameRecommended part type Qty
1Connector
2Contact
Wire
3
4
material
Crimp
terminal
List of parts used
Tyco Electronics AMP
1-178288-3
Tyco Electronics AMP
2-175218-5
DDK
JPVV-SB 1P × 0.5 mm
J.S.T. Mfg
V1.25-3
Connection diagram
Maximum cable length: 30m
1
3
(1)
2
3
+24V
GND
FG
1
2
3
+24V
GND
FG
Manufacturing precautions
(1) The wire material shall be a shielded, 1-pair stranded cable equivalent to AWG18 (0.75mm
If the cable length exceeds 15m, select wire material equivalent to AWG16.
(2) The parts used shall be Mitsubishi recommended parts. Equivalent parts may be used
providing they are compatible with the specifications.
(3) Attach the nameplate with protective cover stamped with the cable name in the position
designated in the assembly drawing.
(4) Stamp the name of each signal on the crimp terminal side mark tube and install.
(5) Protect both ends of the wire with an insulating bush.
(6) Use shield processing wire material equivalent to AWG18 (0.75mm
2
).
2
).
88
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