TM
Excellence in Motion
FORCETM
POWER DRIVE
MICROSTEPPING
Operating
Instructions
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Table Of Contents
Getting Started: Microstepping MForce PowerDrive .................................................................1-1
Before You Begin....................................................................................................................... 1-1
Tools and Equipment Required................................................................................................. 1-1
Connecting the Power Supply ................................................................................................... 1-1
Connect Opto Reference and Logic Inputs................................................................................ 1-2
Connecting the Motor .............................................................................................................. 1-2
Part 1: Hardware Reference
Section 1.1: Introduction to the Microstepping MForce PowerDrive ...........................................1-5
Configuring .............................................................................................................................. 1-5
Features and Benefits................................................................................................................. 1-6
Section 1.2: Microstepping MForce PowerDrive Detailed Specifications ..................................1-7
General Specifications ............................................................................................................... 1-7
Setup Parameters....................................................................................................................... 1-8
Mechanical Specifications.......................................................................................................... 1-8
Pin Assignment and Description ............................................................................................... 1-9
P1 12-Pin Locking Wire Crimp Connector - Power, I/O and SPI Communications...... 1-9
P3 Connector - DC Power, 2-Pin Locking Wire Crimp................................................ 1-10
P4 Connector - Motor .................................................................................................. 1-10
Part 2: Connecting and Interfacing
Section 2.1: Mounting and Connection Guidelines .......................................................................3
Mounting Recommendations........................................................................................................3
Securing Power Leads and Logic Leads..........................................................................................4
Layout and Interface Guidelines....................................................................................................4
Rules of Wiring ..................................................................................................................5
Rules of Shielding ..............................................................................................................5
Recommended Wiring........................................................................................................5
Recommended Mating Connectors and Pins ......................................................................5
Section 2.2: Interfacing DC Power.................................................................................................7
Choosing a Power Supply for Your MForce PowerDrive................................................................7
DC Power Supply Recommendations............................................................................................8
Recommended IMS Power Supplies....................................................................................8
Basic DC Power Connection.........................................................................................................9
Recommended Power and Cable Configurations ..........................................................................9
Example A: DC Power Cabling Under 50 Feet....................................................................9
Example B: AC Power to Full Wave Bridge Cabling Over 50 Feet.....................................10
Example C – Cabling 50 Feet or Greater, AC Power to Power Supply...............................10
Section 2.3: Motor Selection and Interface ..................................................................................11
Selecting a Motor........................................................................................................................11
Types and Construction of Stepping Motors.....................................................................11
Sizing a Motor for Your System.........................................................................................11
Recommended IMS Motors .......................................................................................................12
IMS Inside Out Stepper Motors........................................................................................13
Connecting the Motor ................................................................................................................14
8 Lead Motors ..................................................................................................................14
6 Lead Motors...................................................................................................................15
4 Lead Motors...................................................................................................................16
Recommended Motor Cabling ...................................................................................................16
Example A: Motor Cabling Less Than 50 Feet..................................................................16
Example B: Motor Cabling Greater Than 50 Feet.............................................................17
Recommended Motor Cable AWG Sizes...........................................................................17
Section 2.4: Logic Interface and Connection ................................................................................19
Optically Isolated Logic Inputs....................................................................................................19
Isolated Logic Input Pins and Connections .................................................................................19
Isolated Logic Input Characteristics.............................................................................................19
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Enable Input.....................................................................................................................19
Clock Inputs.....................................................................................................................20
Optocoupler Reference................................................................................................................22
Input Connection Examples........................................................................................................23
Open Collector Interface Example........................................................................................
Switch Interface Example..................................................................................................24
Minimum Required Connections................................................................................................25
Section 2.5: Connecting SPI Communications .............................................................................26
Connecting the SPI Interface ......................................................................................................26
SPI Signal Overview....................................................................................................................26
SPI Pins and Connections...........................................................................................................27
Logic Level Shifting and Conditioning Circuit............................................................................27
SPI Master with Multiple Microstepping MForce PowerDrive ....................................................28
Section 2.6: Using the IMS SPI Motor Interface...........................................................................29
Installation..................................................................................................................................29
Configuration Parameters and Ranges.........................................................................................29
Color Coded Parameter Values....................................................................................................29
IMS SPI Motor Interface Menu Options.....................................................................................30
Screen 1: The Motion Settings Configuration Screen ..................................................................31
MSEL (Microstep Resolution Selection) ...........................................................................32
HCDT (Hold Current Delay Time) .................................................................................33
MRC (Motor Run Current)..............................................................................................33
MHC (Motor Hold Current)............................................................................................33
DIR (Motor Direction).....................................................................................................33
User ID.............................................................................................................................33
IMS SPI Motor Interface Button Functions......................................................................33
Screen 2: I/O Settings Configuration Screen ...............................................................................34
Input Clock Type..............................................................................................................34
Input Clock Filter .............................................................................................................34
Enable Active High/Low...................................................................................................34
Warning Temperature .......................................................................................................34
IMS Part Number/Serial Number Screen ....................................................................................35
Fault Indication...........................................................................................................................35
Upgrading the Firmware in the Microstepping MForce PowerDrive............................................36
The IMS SPI Upgrader Screen..........................................................................................36
Upgrade Instructions.........................................................................................................36
Initialization Screen.....................................................................................................................37
Port Menu.........................................................................................................................37
Section 2.7: Using User-Defined SPI............................................................................................38
SPI Timing Notes........................................................................................................................38
Check Sum Calculation for SPI...................................................................................................38
SPI Commands and Parameters...................................................................................................39
SPI Communications Sequence ........................................................................................40
Appendices
Appendix A: Optional Prototype Development Cables................................................................ A-3
MD-CC300-000: USB to SPI Parameter Setup Cable ..............................................................A-3
Adapter Cables..........................................................................................................................A-3
Installation Procedure for the MD-CC300-000 ........................................................................A-4
Installing the Cable/VCP Drivers....................................................................................A-4
Determining the Virtual COM Port (VCP) ....................................................................A-6
PD12-1434-FL3 — Power, I/O and SPI.........................................................................A-7
Prototype Development Cable PD02-2300-FL3 .......................................................................A-8
Prototype Development Cable PD04-MF34-FL3 .....................................................................A-8
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List of Figures
Figure GS.1: Minimum Logic and Power Connections ............................................................. 1-1
Part 1: Hardware Reference
Figure 1.1.1: Microstepping MForce PowerDrive...................................................................... 1-5
Figure 1.2.1: MForce PowerDrive Mechanical Specifications..................................................... 1-8
Figure 1.2.2: P1 — 12-Pin Locking Wire Crimp Pin Configuration ......................................... 1-9
Figure 1.2.3: P3 — 2-Pin Locking Wire Crimp Pin Configuration ......................................... 1-10
Figure 1.2.4: P4 — 4-Pin Locking Wire Crimp Pin Configuration ......................................... 1-10
Part 2: Connecting and Interfacing
Figure 2.1.1: Base Mounting the MForce PowerDrive...................................................................3
Figure 2.1.2: End Mounting the MForce PowerDrive ...................................................................4
Figure 2.2.1: IMS ISP300 Switch Mode Power Supply..................................................................7
Figure 2.2.2: MForce PowerDrive DC Power Connection.............................................................9
Figure 2.2.3: DC Cabling - Under 50 Feet....................................................................................9
Figure 2.2.4: AC To Full Wave Bridge Rectifier, Cabling over 50 Feet.........................................10
Figure 2.2.5: AC Cabling - 50 Feet or Greater - AC To Power Supply .........................................10
Figure 2.3.1 A & B: Per Phase Winding Inductance....................................................................12
Figure 2.3.2: 8 Lead Motor Series Connections...........................................................................14
Figure 2.3.3: 8 Lead Motor Parallel Connections........................................................................14
Figure 2.3.4: 6 Lead Half Coil (Higher Speed) Motor Connections ...........................................15
Figure 2.3.5: 6 Lead Half Coil (Higher Speed) Motor Connections ...........................................15
Figure 2.3.6: 4 Lead Motor Connections.....................................................................................16
Figure 2.3.7: Motor Cabling Less than 50 Feet............................................................................16
Figure 2.3.8: Motor Cableing Greater than 50 Feet.....................................................................17
Figure 2.4.1: Isolated Logic Pins and Connections ......................................................................19
Figure 2.4.2: Input Clock Functions ...........................................................................................20
Figure 2.4.3: Clock Input Timing Characteristics........................................................................21
Figure 2.4.4: Optocoupler Input Circuit Diagram.......................................................................22
Figure 2.4.5: Open Collector Interface Example..........................................................................23
Figure 2.4.6: Switch Interface Example .......................................................................................24
Figure 2.4.7: Minimum Required Connections...........................................................................25
Figure 2.5.1: MD-CC300-000 Parameter Setup Cable................................................................26
Figure 2.5.2: SPI Pins and Connections, 12-Pin Wire Crimp......................................................27
Figure 2.5.3: Logic Level Shifting and Conditioning Circuit.......................................................27
Figure 2.5.4: SPI Master with a Single Microstepping MForce PowerDrive.................................28
Figure 2.5.5: SPI Master with Multiple Microstepping MForce PowerDrives ..............................28
Figure 2.6.1: SPI Motor Interface Color Coding.........................................................................30
Figure 2.6.2: SPI Motor Interface File Menu...............................................................................30
Figure 2.6.3: SPI Motor Interface View Menu.............................................................................30
Figure 2.6.4: SPI Motor Interface Recall Menu ...........................................................................31
Figure 2.6.5: SPI Motor Interface Upgrade Menu .......................................................................31
Figure 2.6.6: SPI Motor Interface Help Menu and About Screen ................................................31
Figure 2.6.7: SPI Motor Interface Motion Settings Screen...........................................................32
Figure 2.6.8: SPI Motor Interface I/O Settings Screen.................................................................34
Figure 2.6.9: SPI Motor Interface Part and Serial Number Screen...............................................35
Figure 2.6.10: SPI Motor Interface Upgrade Utility ....................................................................36
Figure 2.6.11: SPI Motor Interface Initialization.........................................................................37
Figure 2.6.12: SPI Motor Interface Port Menu............................................................................37
Figure 2.7.1: SPI Timing.............................................................................................................38
Figure 2.7.2: Read/Write Byte Order for Parameter Settings (Default Parameters Shown)...........40
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Appendices
Figure A.1: MD-CC300-000 ....................................................................................................A-3
Figure A.2: MD-CC300-000 Mechanical Specifications............................................................A-3
Figure A.3: Typical Setup, Adapter and Prototype Development Cable ....................................A-4
Figure A.4: Hardware Update Wizard .......................................................................................A-4
Figure A.5: Hardware Update Wizard Screen 2 .........................................................................A-5
Figure A.6: Hardware Update Wizard Screen 3 .........................................................................A-5
Figure A.7: Windows Logo Compatibility Testing.....................................................................A-5
Figure A.8: Hardware Update Wizard Finish Installation...........................................................A-6
Figure A.9: Hardware Properties................................................................................................A-6
Figure A.10: Windows Device Manager ....................................................................................A-6
Figure A.11 PD12-1434-FL3....................................................................................................A-7
Figure A.12: PD02-3400-FL3...................................................................................................A-8
Figure A.13: PD04-MF34-FL3 .................................................................................................A-8
List of Tables
Part 1: Hardware Reference
Table 1.2.1: Electrical Specifications.......................................................................................... 1-7
Table 1.2.2: Thermal Specifications........................................................................................... 1-7
Table 1.2.3: I/O Specifications .................................................................................................. 1-7
Table 1.2.4: Communications Specifications............................................................................. 1-7
Table 1.2.5: Motion Specifications ............................................................................................ 1-7
Table 1.2.6: Setup Parameters.................................................................................................... 1-8
Table 1.2.7: P1 Connector – Power, I/O and SPI Communications.......................................... 1-9
Table 1.2.8: P3 Connector ...................................................................................................... 1-10
Table 1.2.9: P4 Connecter....................................................................................................... 1-10
Part 1: Interfacing and Configuring
Table 2.2.1: Recommended Wire Gauges ...................................................................................10
Table 2.3.1: Recommended Wire Gauges....................................................................................17
Table 2.4.1: Input Clocks Timing Table ......................................................................................21
Table 2.4.2: Optocoupler Reference Connection.........................................................................22
Table 2.6.1: Setup Parameters and Ranges...................................................................................29
Table 2.6.2: Microstep Resolution Settings..................................................................................32
Table 2.6.3: Hold and Run Current Percentage Equivalents........................................................33
Table 2.6.4: Input Clock Filter Settings.......................................................................................34
Table 2.6.5: Microstepping MForce PowerDrive Fault Codes......................................................35
Table 2.7.1: SPI Commands and Parameters...............................................................................39
Appendices
Table A.1: PD12-1434-FL3 Wire Color Codes .........................................................................A-7
Table A.2: PD04-MF34-FL3.....................................................................................................A-8
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WARNING! The MForce
has components
which are sensitive to
Getting Started
Electrostatic Discharge
Microstepping MForce PowerDrive
(ESD). All handling should be done
at an ESD protected workstation.
Before You Begin
WARNING! Hazardous
voltage levels may be
present if using an open
frame power supply to
The Getting Started Section is designed to help quickly connect and begin using your Microstepping MForce
PowerDrive. The following examples will help you get a motor turning for the first time and introduce you to
the basic settings of the drive.
power your MForce product.
Tools and Equipment Required
WARNING! Ensure that
the power supply output
voltage does not exceed
the maximum input
Microstepping MForce PowerDrive Unit (MFM)
A NEMA 23 or 34 Size Stepping Motor
Control Device for Step/Direction
+5 to +24 VDC Optocoupler Supply (if using sinking output type)
An Unregulated +12 to +48VDC Power Supply
Basic Tools: Wire Cutters / Strippers / Screwdriver
Wire for Power Supply (18 AWG) and Motor (16 AWG)
22 AWG Wire for Logic Connections
voltage of the MForce product that
you are using!
Opto Reference*
Power Ground
+V (+12 to +48)
* The Opto Reference Will
set the Sink/Source
Note: A characteristic of
all motors is back EMF.
Back EMF is a source of
Configuration of the Inputs
Sinking: OptoRef = +5 to +24 VDC
Sourcing: OptoRef = Ground
current that can push the
output of a power supply beyond
the maximum operating voltage
of the driver. As a result, damage
to the stepper driver could occur
over a period of time. Care should
be taken so that the back EMF
does not exceed the maximum
input voltage rating of the MForce
PowerDrive.
3
4
P3
1
2
6
Step
Direction
P1
ØA
ØA
1
3
2
ØB
4
ØB
P4
MForce PowerDrive Front
12-Pin Wire Crimp at P1 Shown.
See Specifications for Pin
Numbering for other versions.
Figure GS.1: Minimum Logic and Power Connections
Connecting the Power Supply
Using the recommended wire, connect the DC output of the power supply to the +V input of the connector
appropriate for your Microstepping MForce PowerDrive model.
Connect the power supply ground to the Power Ground pin appropriate for your Microstepping MForce
PowerDrive.
Part 1: Hardware Specifications
1-1
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Connect Opto Reference and Logic Inputs
Using 22 AWG wire, connect the Opto Reference to the desired reference point. The reference will determine
whether or not the logic input is sinking or sourcing. If Sinking Inputs are desired, connect the Opto reference
to a +5 to +24 VDC Supply. If Sourcing Outputs are desired, the Opto Reference needs to be connected to the
Controller Ground.
Connect the Step and Direction inputs to the appropriate outputs of your PLC or controller.
Connecting the Motor
Using the recommended wire, connect the Motor Phases to P3 as shown in Figure GS.1. Ensure that the phases
are connected correctly.
Microstepping MForce PowerDrive Manual Revision R040507
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FORCETM
POWER DRIVE
MICROSTEPPING
Part 1:
Hardware
Reference
Section 1.1: Introduction to the Microstepping MForce PowerDrive
Section 1.2: Microstepping MForce PowerDrive Detailed Specifications
Part 1: Hardware Specifications
1-3
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Microstepping MForce PowerDrive Manual Revision R040507
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SECTION 1.1
Introduction to the Microstepping MForce PowerDrive
The Microstepping MForce Pow-
erDrive is a high performance, low
cost microstepping driver that delivers
unsurpassed smoothness and perfor-
mance achieved through IMS’s advanced
2nd generation current control. By
applying innovative techniques to con-
trol current flow through the motor,
resonance is significantly dampened over
the entire speed range and audible noise is
reduced.
Microstepping MForce PowerDrives
accept a broad input voltage range
from +12 to +75 VDC, delivering enhanced
performance and speed. Oversized input
capacitors are used to minimize power line
surges, reducing problems that can occur
with long runs and multiple drive systems.
Figure 1.1.1: Microstepping MForce PowerDrive
An extended operating range of –40° to +85°C provides long life, trouble free service in demanding environments.
The high, per phase output current of up to 5 Amps RMS, 7 Amps Peak, allows the extremely compact MForce
PowerDrive to control a broad array of motors from size 23 to size 42.
The microstepping drive accepts up to 20 resolution settings from full to 256 microsteps per full step, including:
degrees, metric and arc minutes. These settings may be changed on-the-fly or downloaded and stored in nonvolatile
memory with the use of a simple GUI which is provided. This eliminates the need for external switches or resistors.
Parameters are changed via an SPI port.
The versatile Microstepping MForce PowerDrive comes with dual mounting configurations to fit various system needs.
All interface connections are accomplished using pluggable locking wire crimp connectors. Optional cables are avail-
able for ease of connecting and configuring the MForce, and are recommended with first order.
The Microstepping MForce PowerDrive is a compact, powerful and inexpensive solution that will reduce system
cost, design and assembly time for a large range of applications.
Configuring
The IMS SPI Motor Interface software is an easy to install and use GUI for configuring the Microstepping MForce
PowerDrive from a computer's USB port. GUI access is via the IMS SPI Motor Interface included on the CD
configuring the MForce.
The IMS SPI Motor Interface features:
•
•
•
•
•
Easy installation.
Automatic detection of MForce version and communication configuration.
Will not set out-of-range values.
Tool-tips display valid range setting for each option.
Simple screen interfaces.
Part 1: Hardware Specifications
1-5
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Features and Benefits
•
•
•
•
•
•
High Performance Microstepping Driver
Advanced 2nd Generation Current Control for Exceptional Performance and Smoothness
Single Supply: +12 to +75 VDC
Low Cost
Extremely Compact
High Output Current:
Up to 5 Amps RMS, 7 Amps Peak (Per Phase)
•
20 Microstep Resolutions up to 51,200 Steps Per Rev Including:
Degrees, Metric, Arc Minutes
•
•
•
Optically Isolated Logic Inputs will Accept +5 to +24 VDC Signals, Sourcing or Sinking
Automatic Current Reduction
Configurable:
•
•
•
•
•
•
Motor Run/Hold Current
Motor Direction vs. Direction Input
Microstep Resolution
Clock Type: Step and Direction, Quadrature, Step Up and Step Down
Programmable Digital Filtering for Clock and Direction Inputs
Current and Microstep Resolution May Be Switched On-The-Fly
•
•
•
Dual Mounting Configurations
Power, Motor and Signal Interface via locking wire crimp style connectors.
Graphical User Interface (GUI) for Quick and Easy Parameter Setup
Microstepping MForce PowerDrive Manual Revision R040507
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SECTION 1.2
Microstepping MForce PowerDrive Detailed Specifications
General Specifications
Electrical Specifications
Input Voltage (+V) Range*
+12 to +75 VDC
4 Amps
Max Power Supply Current (Per MForce PowerDrive)*
Output Current RMS
5 Amps
Output Current Peak (Per Phase)
7 Amps
* Actual Power Supply Current will depend on Voltage and Load.
Table 1.2.1: Electrical Specifications
Thermal Specifications
Heat Sink Temperature
-40°C to +85°C
Table 1.2.2: Thermal Specifications
I/O Specifications
Isolated Inputs — Step Clock, Direction and Enable
Resolution
10 Bit
+5 to +24 VDC
8.7 mA
Voltage Range (Sourcing or Sinking)
Current (+5 VDC Max)
Current (+24 VDC Max)
14.6 mA
Table 1.2.3: I/O Specifications
Communications Specifications
Protocol
SPI
Table 1.2.4: Communications Specifications
Motion Specifications
Microstep Resolution
Number of Resolutions
20
Available Microsteps Per Revolution
200
400
800
1000
1600
2000
3200
5000
6400
10000
12800 20000 25000 25600 40000 50000 51200 360001 216002
254003
1=0.01 deg/µstep
2=1 arc minute/µstep
3=0.001 mm/µstep
50 nS to 12.9 µS
(10 MHz to 38.8kHz)
Digital Filter Range
Step/Direction,
Quadrature, Clock Up/
Clock Down
Clock Types
Step Frequency (Max)
5.0 MHz
100 nS
Step Frequency Minimum Pulse Width
Table 1.2.5: Motion Specifications
Part 1: Hardware Specifications
1-7
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Setup Parameters
The following table illustrates the setup parameters. These are easily configured using the IMS SPI Motor Interface
configuration utility. An optional Parameter Setup Cable is available and recommended with the first order.
Microstepping MForce PowerDrive Setup Parameters
Name
MHC
MRC
Function
Range
0 to 100
1 to 100
Units
percent
percent
Default
Motor Hold Current
Motor Run Current
5
25
1, 2, 4, 5, 8, 10, 16, 25, 32, 50,
64, 100,108, 125, 127,128,
180, 200, 250, 256
µsteps per
full step
MSEL
Microstep Resolution
256
DIR
Motor Direction Override
Hold Current Delay Time
Clock Type
0/1
–
mSec
–
CW
500
HCDT
0 or 2-65535
CLK TYPE
Step/Dir. Quadrature, Up/Down
Step/Dir
50 nS to 12.9 µS
(10 MHz to 38.8kHz)
200nS(2.5
MHz)
CLK IOF
Clock and Direction Filter
nS (MHz)
USER ID
WARN TEMP
EN ACT
User ID
Customizable
0 to +125
1-3 characters
IMS
80
Warning Temperature
Enable Active High/Low
ºC
—
High or Low
High
Table 1.2.6: Setup Parameters
Mechanical Specifications - Dimensions in Inches (mm)
3.473
(88.21)
2.116
(53.75)
P1
P3
Ø 0.187 ±0.01
2X 0.580
(2X 14.73)
P4
(Ø 4.75 ±0.25)
2X #8 Screws
for End Mount
0.225
(5.72)
3.00 ±0.01
(76.2 ±0.25)
0.308 TYP.
(7.82 TYP.)
0.160 ±0.01
(4.06 ±0.25)
3.897
(98.98)
Ø 0.160 ±0.01 Thru
(Ø 4.06 ±0.25 Thru)
4X #6 Screws
2.931 TYP.
(74.45 TYP.)
for Flat Mount
2.950
(74.93)
0.417 TYP.
(10.59 TYP.)
3.473
(88.21)
Figure 1.2.1: MForce PowerDrive Mechanical Specifications
Microstepping MForce PowerDrive Manual Revision R040507
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Pin Assignment and Description
P1 12-Pin Locking Wire Crimp Connector Option - Power, I/O and SPI
Communications
Pin Assignment - P1 Power, I/O and SPI
Connections
NEED A CABLE?
The following cables
and converters are
available to interface
with P1:
Pin #
Pin 1
Pin 2
Function
N/C
Description
No Connect
No Connect
N/C
The Signal applied to the Optocoupler Reference will
determine the sinking/ or sourcing configuration of the inputs.
To set the inputs for sinking operation, a +5 to +24 VDC
supply is connected. If sourcing, the Reference is connected
to Ground.
12-Pin Locking Wire Crimp
PD12-1434-FL3
Pin 3
Pin 4
Opto Reference
NEED A CABLE?
The following cables
and converters are
available to interface
communications with
Step Clock input. The step clock input will receive the clock
Step Clock/Channel pulses which will step the motor 1 step for each pulse. It
A/ Clock Up
may also receive quadrature and clock up type inputs if so
configured.
Enable/Disable Input will enable or disable the driver output
to the motor. In the disconnected state the driver outputs are
enabled in either sinking or sourcing configuration.
Pin 5
Pin 6
Enable
USB to SPI:
MD-C300-000
Direction input. The axis direction will be with respect to the
state of the Direction Override Parameter. It may also receive
quadrature and clock up type inputs if so configured.
Direction/Channel B/
Clock Down
10-Pin IDC to 12-Pin Locking
Wire Crimp Adapter
Pin 7
Pin 8
Pin 9
Pin 10
+5 VDC Output
SPI Clock
GND
Supply voltage for the MD-CC300-000 Cable ONLY!
The Clock is driven by the SPI Master. The clock cycles once
for each data bit.
All SPI Communications will
connect to the P1 Connector.
Communications Ground.
An adapter is available to interface
the MD-CC300-000 to the 12-Pin
Locking Wire Crimp connector.
Master-In/Slave-Out. Carries output data from the MFM back
to the SPI Master.
MISO
SPI Chip Select. This signal is used to turn communications
on multiple MFM units on or off.
Pin 11
Pin 12
CS
MD-ADP-1723C
Master-Out/Slave-In. Carries output data from the SPI Master
to the MFM.
MOSI
This adapter may be used in
conjunction with the following
Prototype Development cables to
interface power and logic:
Table 1.2.7: P1 Connector – Power, I/O and SPI Communications
PD12-1434-FL3 (10')
ADP-3512-FL (12")
See Appendix A for details.
1
2
3
4
5
6
7
9
11
8 10 12
P1
Recommended Connector Shell and Pins
Shell: AMP P/N 1-794617-2
Pins: 12 x AMP P/N 794610-1
Wire: 22 AWG Shielded Twisted Pair
Figure 1.2.2: P1 — 12-Pin Locking Wire Crimp Pin Configuration
Part 1: Hardware Specifications
1-9
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NEED A CABLE?
The following cables
and converters are
available to interface
with P3:
P3 Connector - DC Power, 2-Pin Locking Wire Crimp
Pin Assignment - P3 Power
2-Pin Locking
Wire Crimp
Function
Description
Pin 1
+V
+12 to +75 VDC, 4 Amps Maximum per MDrive34Plus.
Power Supply Return.
2-Pin Locking Wire Crimp
PD02-3400-FL3
Pin 2
GND
Table 1.2.8: P3 Connector
WARNING! Do not
Recommended Connector Shell and Pins
plug or unplug DC
Power with power
applied.
Shell: Molex P/N 510-67-0200
Pins: 2 x Molex P/N 502-17-9101
Wire: 18 AWG Shielded Twisted Pair
2
1
P3
Figure 1.2.3: P3 — 2-Pin Locking Wire Crimp Pin Configuration
P4 Connector - Motor
NEED A CABLE?
The following cables
and converters are
available to interface
with P4:
Pin Assignment - P4 Motor
5-Pin Locking
Wire Crimp
Function
Description
Pin 1
Phase A
Phase A
Phase B
Phase B
Phase A Motor Output
Phase A Motor Return
Phase B Motor Output
Phase B Motor Return
Pin 2
Pin 3
4-Pin Locking Wire Crimp
PD04-MF34-FL3
Pin 4
Recommended
Cable
PD04-MF34-FL3
Table 1.2.9: P4 Connecter
Recommended Connector Shell and Pins
Shell: Molex P/N 39-01-2045
2
4
1
Pins: 4 x Molex P/N 44476-3112
Wire: 16 AWG Shielded Twisted Pair
P4
3
Figure 1.2.4: P4 — 4-Pin Locking Wire Crimp Pin Configuration
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Options and Accessories
Parameter Setup Cable and Adapters
The optional 12.0' (3.6m) parameter setup cable part number MD-CC300-000 facilitates communications
wiring and is recommended with first order. It connects from the 10-Pin IDC Connector located at P2 to a
PC's USB port. If the12-pin pluggable locking wire crimp connector is used at P1, adapter MD-ADP-1723C
is required to use the MD-CC300-000.
USB to SPI..........................................................................................................MD-CC300-000
Prototype Development Cable
To speed prototype development, these cables connect to user interface via flying leads with MForce mating
connector on opposite end.
Mating connector to 12-pin pluggable locking wire crimp plugs into MForce or adapter MD-ADP-1723C.
Choose from 2 lengths:
12.0" (30.5cm)..........................................................................................................ADP-3512-FL
10.0' (3.0m).......................................................................................................... PD12-1434-FL3
Mating connector to MForce 4-pin motor interface:
10.0' (3.0m)........................................................................................................ PD04-MF17-FL3
Part 1: Hardware Specifications
1-11
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FORCETM
MICRO DRIVE
MICROSTEPPING
Part 2:
Interfacing and
Configuring
Section 2.1: Mounting and Connection Recommendations
Section 2.2: Logic Interface and Connection
Section 2.3: Connecting SPI Communications
Section 2.4: Using the IMS SPI Motor Interface
Section 2.5: Using User-Defined SPI
Part 2: Interfacing and Configuring
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SECTION 2.1
Mounting and Connection Guidelines
Mounting Recommendations
The Microstepping MForce PowerDrive may be mounted two ways: end mounted or flat mounted End mount-
ing will use #8 hardware, flat mounting will use standard #6 hardware. Do not exceed the recommended mount-
ing torque specification. The diagrams in Figures 2.1.1 and 2.1.2 illustrate the mounting methods.
NOTE: Mounting
Hardware is not
supplied.
Recommended Tightening Torque:
7 - 8 lb-in (78.4 - 89.6 N-cm)
Mounting Hardware
Mounting Hardware (Metric)
4 x #6-32 Screw
4 x #6 Split Lockwasher
4 x #6 Flat Washer
4 x M3.5 - 0.60 Screw
4 x M3.5 Split Lockwasher
4 x M3.5 Flat Washer
MForce PowerDrive
Mounting Surface
Mounting Hole Pattern
(Not to Scale)
2.950
(74.93
Use #36 Drill Size (2.9 mm)
Tap to #6-32 (M3.5 - 0.60) 4 PL
2.931 TYP
(74.45 TYP)
Figure 2.1.1: Base Mounting the MForce PowerDrive
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NOTE: Ensure that
proper clearance is
allowed for wiring
and cabling.
Recommended Tightening Torque:
8 - 9 lb-in (89.6 - 100.8 N-cm)
Especially when end
mounting the device.
Mounting Hardware
2 x #8-32 Screw
2 x #8 Split Lockwasher
2 x #8 Flat Washer
NOTE: Mounting
Hardware is not
supplied.
Mounting Hardware (Metric
2 x M4 - 0.70 Screw
2 x M4 Split Lockwasher
2 x M4 Flat Washer
Mounting Hole Pattern
Use #29 Drill Size (3.3 mm)
Tap to #8-32 2 PL (M4 - 0.70)
3.000 TYP
(76.20 TYP)
Figure 2.1.2: End Mounting the MForce PowerDrive
Securing Power Leads and Logic Leads
Some applications may require that the MForce and/or the connected motor to move with the axis motion. If this
is a requirement of your application, the motor leads must be properly anchored. This will prevent flexing and
tugging which can cause damage at critical connection points on the MForce connectors.
Layout and Interface Guidelines
Logic level cables must not run parallel to power cables. Power cables will introduce noise into the logic level
cables and make your system unreliable.
Logic level cables must be shielded to reduce the chance of EMI induced noise. The shield needs to be grounded at
the signal source to earth. The other end of the shield must not be tied to anything, but allowed to float. This allows
the shield to act as a drain.
Power supply leads to the MForce PowerDrive need to be twisted. If more than one driver is to be connected to
the same power supply, run separate power and ground leads from the supply to each driver.
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Rules of Wiring
•
Power Supply and Motor wiring should be shielded twisted pairs, and run separately from signal-
carrying wires.
•
•
A minimum of one twist per inch is recommended.
Motor wiring should be shielded twisted pairs using 20 gauge, or for distances of more than 5 feet, 18
gauge or better.
•
•
Power ground return should be as short as possible to established ground.
Power supply wiring should be shielded twisted pairs of 18 gauge for less than 4 amps DC and 16
gauge for more than 4 amps DC.
Rules of Shielding
•
The shield must be tied to zero-signal reference potential. It is necessary that the signal be earthed
or grounded, for the shield to become earthed or grounded. Earthing or grounding the shield is not
effective if the signal is not earthed or grounded.
•
Do not assume that Earth ground is a true Earth ground. Depending on the distance from the main
power cabinet, it may be necessary to sink a ground rod at the critical location.
The shield must be connected so that shield currents drain to signal-earth connections.
The number of separate shields required in a system is equal to the number of independent signals
being processed plus one for each power entrance.
•
•
•
•
The shield should be tied to a single point to prevent ground loops.
A second shield can be used over the primary shield; however, the second shield is tied to ground at
both ends.
Recommended Wiring
The following wiring/cabling is recommended for use with the MForce PowerDrive:
Logic Wiring......................................................................................................................22 AWG
Wire Strip Length ...................................................................................................0.25” (6.0 mm)
Power and Ground ........................................................................18 AWG Shielded Twisted Pair*
Motor...............................................................................................16 AWG Shielded Twisted Pair
*See Table 2.2.1 if using a power cable longer than 10 feet. The Gauge used is dependant upon supply current
and legnth.
Recommended Mating Connectors and Pins
Logic and SPI Communications (P1)
12-pin Locking Wire Crimp Connector Shell ......................................................AMP 1-794617-2
Crimp Pins..............................................................................................................AMP 794610-1
Power (P3)
2-pin Locking Wire Crimp Connector Shell ..................................................... Molex 51067-0200
Crimp Pins.............................................................................................. Molex 50217-9101 Brass
Motor (P4)
4-pin Locking Wire Crimp Connector Shell ....................................................... Molex 3901-2045
Crimp Pins....................................................................................................... Molex 44476-3112
Part 2: Interfacing and Configuring
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SECTION 2.2
Interfacing DC Power
Choosing a Power Supply for Your MForce PowerDrive
When choosing a power supply for your
MForce PowerDrive there are performance
and sizing issues that must be addressed. An
undersized power supply can lead to poor
performance and even possible damage to
the device, which can be both time consum-
ing and expensive. However, The design of
the MForce PowerDrive is quite efficient
and may not require as large a supply as you
might suspect.
Motors have windings that are electrically
just inductors, and with inductors comes re-
sistance and inductance. Winding resistance
and inductance result in a L/R time constant
that resists the change in current. It requires
five time constants to reach nominal current.
To effectively manipulate the di/dt or the rate
of charge, the voltage applied is increased.
When traveling at high speeds there is less
Figure 2.2.1: IMS ISP300 Switch Mode Power Supply
time between steps to reach current. The point where the rate of commutation does not allow the driver to reach
full current is referred to as Voltage Mode. Ideally you want to be in Current Mode, which is when the drive
is achieving the desired current between steps. Simply stated, a higher voltage will decrease the time it takes to
charge the coil, and therefore will allow for higher torque at higher speeds.
Another characteristic of all motors is Back EMF, and though nothing can be done about back EMF, we can give
a path of low impedance by supplying enough output capacitance. Back EMF is a source of current that can push
the output of a power supply beyond the maximum operating voltage of the driver and as a result could damage
the MForce PowerDrive over time.
The MForce PowerDrive is very current efficient as far as the power supply is concerned. Once the motor has
charged one or both windings of the motor, all the power supply has to do is replace losses in the system. The
charged winding acts as an energy storage in that the current will re-circulate within the bridge, and in and out of
each phase reservoir. While one phase is in the decaying stage of the variable chopping oscillator, the other phase
is in the charging stage, this results in a less than expected current draw on the supply.
The MForce PowerDrive is designed with the intention that a user’s power supply output will ramp up to greater
or equal to the minimum operating voltage. The initial current surge is quite substantial and could damage the
driver if the supply is undersized. If a power supply is undersized, upon a current surge the supply could fall be-
low the operating range of the driver. This could cause the power supply to start oscillating in and out of the volt-
age range of the driver and result in damaging either the supply, driver or both. There are two types of supplies
commonly used, regulated and unregulated, both of which can be switching or linear. All have their advantages
and disadvantages.
An unregulated linear supply is less expensive and more resilient to current surges, however, voltage decreases
with increasing current draw. This can cause serious problems if the voltage drops below the working range of the
drive. Also of concern is the fluctuations in line voltage. This can cause the unregulated linear supply to be above
or below the anticipated voltage.
A regulated supply maintains a stable output voltage, which is good for high speed performance. They are also
not bothered by line fluctuations, however, they are more expensive. Depending on the current regulation, a
regulated supply may crowbar or current clamp and lead to an oscillation that as previously stated can lead to
damage. Back EMF can cause problems for regulated supplies as well. The current regeneration may be too large
for the regulated supply to absorb and may lead to an over voltage condition.
Switching supplies are typically regulated and require little real-estate, which makes them attractive. However,
their output response time is slow, making them ineffective for inductive loads. IMS has designed a series of low
cost miniature non-regulated switchers that can handle the extreme varying load conditions which makes them
ideal for the MForce PowerDrive.
Part 2: Interfacing and Configuring
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DC Power Supply Recommendations
The power requirements for the Microstepping MForce PowerDrive are:
Output Voltage ...................................................................+12 to +75 VDC (Includes Back EMF)
Current (max. per unit)...............................................................................................................4A
(Actual power supply current requirement will depend upon voltage and load)
Recommended IMS Power Supplies
IMS unregulated linear and unregulated switching power supplies are the best fit for IMS drive products.
IP804 Unregulated Linear Supply
Input Range
120 VAC Versions ...........................................................................................102-132 VAC
240 VAC Versions ...........................................................................................204-264 VAC
Output (All Measurements were taken at 25˚C, 120 VAC, 60 Hz)
No Load Output Voltage........................................................................76 VDC @ 0 Amps
Half Load Output..................................................................................65 VDC @ 2 Amps
Full Load output....................................................................................58 VDC @ 4 Amps
IP806 Unregulated Linear Supply
Input Range
120 VAC Versions ...........................................................................................102-132 VAC
240 VAC Versions ...........................................................................................204-264 VAC
Output (All Measurements were taken at 25˚C, 120 VAC, 60 Hz)
No Load Output Voltage........................................................................76 VDC @ 0 Amps
Half Load Output..................................................................................68 VDC @ 3 Amps
Full Load Output...................................................................................64 VDC @ 6 Amps
ISP300-7 Unregulated Switching Supply
Input Range
120 VAC Versions ...........................................................................................102-132 VAC
240 VAC Versions ...........................................................................................204-264 VAC
Output (All Measurements were taken at 25˚C, 120 VAC, 60 Hz)
No Load Output Voltage........................................................................68 VDC @ 0 Amps
Continuous Output Rating....................................................................63 VDC @ 2 Amps
Peak Output Rating ...............................................................................59 VDC @ 4 Amps
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Basic DC Power Connection
WARNING! DO
NOT connect
or disconnect
Unregulated
Linear or
Switching
WARNING! Do not connect
or disconnect cabling while
power is applied!
power leads
Power Supply
!
when power is applied!
Disconnect the AC power
side to power down the
DC power supply.
Power
Ground
+VDC
Optional Prototype
Development Cable:
PD02-3400-FL3
Shield to
Earth Ground
–
+
P3
Pin 2 Pin 1
Figure 2.2.2: MForce PowerDrive DC Power Connection
Recommended Power and Cable Configurations
Cable length, wire gauge and power conditioning devices play a major role in the performance of your MForce
PoweDrive.
Example A demonstrates the recommended cable configuration for DC power supply cabling under 50 feet long.
If cabling of 50 feet or longer is required, the additional length may be gained by adding an AC power supply
cable (see Examples B & C).
Correct AWG wire size is determined by the current requirement plus cable length. Please see Table 2.2.1 for
recommended wire gauges.
Example A: DC Power Cabling Under 50 Feet
Cable Length
less than 50 Feet
P Type RFI Filter
DC Voltage from
Power Supply
r Required Current
-
P3:2
P3:1
+
-
500 µf
Per Amp
+
Ferrite
Beads
Shielded Twisted Pair
Shield to Earth Ground
on Supply End Only
Figure 2.2.3: DC Cabling - Under 50 Feet
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WARNING! DO
NOT connect
Example B: AC Power to Full Wave Bridge Cabling Over 50 Feet
or disconnect
power leads
when power is applied!
Disconnect the AC power
side to power down the
DC power supply.
NOTE:
Transformer - 10 to 28 VAC RMS for 48 VDC Systems
20 to 48 VAC RMS for 75 VDC Systems
Connect the cable illustrated
in Figure 2.2.2 to the output of
the Full Wave Bridge
P Type RFI Filter
r Required Current
Shielded Twisted Pair
+
-
Cable Length
as required
Full Wave Bridge
Shield to Earth Ground
on Supply End Only
Figure 2.2.4: AC To Full Wave Bridge Rectifier, Cabling over 50 Feet
Example C – Cabling 50 Feet or Greater, AC Power to Power Supply
NOTE:
Connect the cable illustrated
in Example A to the output of
the Power Supply
Shielded Twisted Pair
P Type RFI Filter
r Required Current
120 or 240 VAC
Dependent on
Power Supply
+
-
DC Volts Out
Cable Length
as required
Shield to Earth Ground
on Supply End Only
Power Supply
Figure 2.2.5: AC Cabling - 50 Feet or Greater - AC To Power Supply
MForce PowerDrive Recommended Power Supply Cable AWG
1 Amperes (Peak)
3 Amperes (Peak)
Length (Feet)
10
20
25
20
50*
18
75* 100*
18 16
Length (Feet)
10
18
25
16
50*
14
75*
12
100*
12
Minimum AWG
Minimum AWG
2 Amperes (Peak)
4 Amperes (Peak)
Length (Feet)
10
20
25
18
50*
16
75* 100*
14 14
Length (Feet)
10
18
25
16
50*
14
75*
12
100*
12
Minimum AWG
Minimum AWG
*Use the alternative methods illustrated in examples B and C when cable length is ≥ 50 feet. Also, use the same
current rating when the alternate AC power is used.
Table 2.2.1: Recommended Wire Gauges
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SECTION 2.3
Motor Selection and Interface
Selecting a Motor
When selecting a stepper motor for your application, there are several factors that need to be taken into consider-
ation:
How will the motor be coupled to the load?
How much torque is required to move the load?
How fast does the load need to move or accelerate?
What degree of accuracy is required when positioning the load?
While determining the answers to these and other questions is beyond the scope of this document, they are
details that you must know in order to select a motor that is appropriate for your application. These details will
affect everything from the power supply voltage to the type and wiring configuration of your stepper motor. The
current and microstepping settings of your Microstepping MForce PowerDrive will also be affected.
Types and Construction of Stepping Motors
The stepping motor, while classed as a DC motor, is actually an AC motor that is operated by trains of pulses.
Although it is called a “stepping motor”, it is in reality a polyphase synchronous motor. This means it has multiple
phases wound in the stator and the rotor is dragged along in synchronism with the rotating magnetic field. The
MForce PowerDrive is designed to work with the following types of stepping motors:
1) Permanent Magnet (PM)
2) Hybrid Stepping Motors
Hybrid stepping motors combine the features of the PM stepping motors with the features of another type of
stepping motor called a variable reluctance motor (VR). VR motors are low torque and load capacity motors
which are typically used in instrumentation. The MForce PowerDrive cannot be used with VR motors as they
have no permanent magnet.
On hybrid motors, the phases are wound on toothed segments of the stator assembly. The rotor consists of a
permanent magnet with a toothed outer surface which allows precision motion accurate to within 3 percent.
Hybrid stepping motors are available with step angles varying from 0.45° to 15° with 1.8° being the most com-
monly used. Torque capacity in hybrid steppers ranges from 5 - 8000 ounce-inches. Because of their smaller
step angles, hybrid motors have a higher degree of suitability in applications where precise load positioning and
smooth motion is required.
Sizing a Motor for Your System
The MForce PowerDrive is a bipolar driver which works equally well with both bipolar and unipolar motors (i.e.
8 and 4 lead motors, and 6 lead center tapped motors).
To maintain a given set motor current, the MForce PowerDrive chops the voltage using a variable chopping fre-
quency and a varying duty cycle. Duty cycles that exceed 50% can cause unstable chopping. This characteristic
is directly related to the motor’s winding inductance. In order to avoid this situation, it is necessary to choose a
motor with a low winding inductance. The lower the winding inductance, the higher the step rate possible.
Winding Inductance
Since the MForce PowerDrive is a constant current source, it is not necessary to use a motor that is rated at the
same voltage as the supply voltage. What is important is that the MForce PowerDrive is set to the motor’s rated
current.
The higher the voltage used the faster the current can flow through the motor windings. This in turn means a
higher step rate, or motor speed. Care should be taken not to exceed the maximum voltage of the driver. There-
fore, in choosing a motor for a system design, the best performance for a specified torque is a motor with the
lowest possible winding inductance used in conjunction with highest possible driver voltage.
The winding inductance will determine the motor type and wiring configuration best suited for your system. While
the equation used to size a motor for your system is quite simple, several factors fall into play at this point.
The winding inductance of a motor is rated in milliHenrys (mH) per Phase. The amount of inductance will
depend on the wiring configuration of the motor.
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NOTE: In
calculating the
maximum phase
Actual Inductance
Seen By the Driver
Actual Inductance
Seen By the Driver
inductance, the
minimum supply output
voltage should be used when
using an unregulated supply.
Specified Per Phase
Inductance
Specified Per Phase
Inductance
PHASE A
PHASE A
PHASE A
PHASE A
PHASE B
PHASE B
PHASE B
PHASE B
8 Lead Stepping Motor
Series Configuration
8 Lead Stepping Motor
Parallel Configuration
(Note: This example also
applies to the 6 lead motor
full copper conꢀguration and
to 4 lead stepping motors)
(Note: This example also
applies to the 6 lead motor
half copper conꢀguration)
A
B
Figure 2.3.1 A & B: Per Phase Winding Inductance
The per phase winding inductance specified may be different than the per phase inductance seen by your MForce
PowerDrive driver depending on the wiring configuration used. Your calculations must allow for the actual induc-
tance that the driver will see based upon the wiring configuration.
Figure 2.3.1A shows a stepper motor in a series configuration. In this configuration, the per phase inductance
will be 4 times that specified. For example: a stepping motor has a specified per phase inductance of 1.47mH. In
this configuration the driver will see 5.88 mH per phase.
Maximum Motor Inductance (mH per Phase) =
.2 X Minimum Supply Voltage
Figure 2.3.1B shows an 8 lead motor wired in parallel. Using this configuration the per phase inductance seen by
the driver will be as specified.
Using the following equation we will show an example of sizing a motor for a MForce PowerDrive used with an
unregulated power supply with a minimum voltage (+V) of 18 VDC:
.2 X 18 = 3.6 mH
The recommended per phase winding inductance we can use is 3.6 mH.
Recommended IMS Motors
IMS also carries a series of 23 and 34 frame enhanced stepping motors that are recommended for use with the MForce
PowerDrive. These motors use a unique relationship between the rotor and stator to generate more torque per frame
size while ensuring more precise positioning and increased accuracy.
The special design allows the motors to provide higher torque than standard stepping motors while maintaining a
steadier torque and reducing torque drop-off.
Each frame size is available in 3 stack sizes, single or double shaft, with or without encoders. They handle currents up
to 2.4 Amps in series or 6 Amps parallel, and holding torque ranges from 90 oz.-in. (M-2218-2.4) to 1303 oz.-in (M-
3447-6.3) (64 N-cm to 920 N-cm).
These CE rated motors are ideal for applications where higher torque is required.
For more detailed information on these motors, please see the IMS Full Line catalog or the IMS web site at
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23 Frame Enhanced (2.4A - Not Available with Double Shaft)
Single Shaft
Double Shaft
M-2218-2.4S ............................................................................................................................N/A
M-2222-2.4S ............................................................................................................................N/A
M-2231-2.4S ............................................................................................................................N/A
23 Frame Enhanced (3.0A)
Single Shaft
Double Shaft
M-2218-3.0S ............................................................................................................ M-2218-3.0D
M-2222-3.0S ............................................................................................................ M-2222-3.0D
M-2231-3.0S ............................................................................................................ M-2231-3.0D
23 Frame Enhanced (6.0A)
Single Shaft
Double Shaft
M-2218-6.0S ............................................................................................................ M-2218-6.0D
M-2222-6.0S ............................................................................................................ M-2222-6.0D
M-2231-6.0S ............................................................................................................ M-2231-6.0D
34 Frame Enhanced (6.3A)
Single Shaft
Double Shaft
M-3424-6.3S ...........................................................................................................M-3424-6.3-D
M-3431-6.3S ............................................................................................................ M-3431-6.3D
M-3447-6.3S ............................................................................................................ M-3447-6.3D
IMS also offers 23 and 34 Frame hybrid linear actuators for use with the MForce PowerDrive.
Please see the IMS Full Line catalog or the IMS web site at http://www.imshome.com.
IMS Inside Out Stepper Motors
The new inside out stepper (IOS) motor was designed by IMS to bring versatility to stepper motors using a
unique multi-functional, hollow core design.
This versatile new motor can be converted to a ball screw linear actuator by mounting a miniature ball screw to
the front shaft face. Ball screw linear actuators offer long life, high efficiency, and can be field retrofitted. There is
no need to throw the motor away due to wear of the nut or screw.
The IOS motors offer the following features:
The shaft face diameter offers a wide choice of threaded hole patterns for coupling.
The IOS motor can be direct coupled in applications within the torque range of the motor,
eliminating couplings and increasing system efficiency.
The IOS motor can replace gearboxes in applications where gearboxes are used for inertia
damping between the motor and the load. The induced backlash from the gearbox is
eliminated providing improved bidirectional position accuracy.
Electrical or pneumatic lines can be directed through the center of the motor enabling
the motors to be stacked end-to-end or applied in robotic end effector applications. The
through hole is stationary, preventing cables from being chaffed by a moving hollow
shaft.
Light beams can be directed through the motor for refraction by a mirror or filter wheel
mounted on the shaft mounting face.
The IOS motor is adaptable to valves enabling the valve stem to protrude above the motor
frame. The stem can be retrofitted with a dial indicator showing valve position.
The motor is compatible with IMS bipolar drivers, keeping the system cost low.
The IOS motor can operate up to 3000 rpm’s.
Part 2: Interfacing and Configuring
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The IOS motor is available in the following frames:
Frame Size
IMS PN
23 Frame...................................................................................................................M3-2220-IOS
34 Frame...................................................................................................................M3-3424-IOS
Connecting the Motor
The motor leads are connected to the following connector pins:
Phase
Connector: Pin
Phase A ................................................................................................................................... P4: 1
Phase A ................................................................................................................................... P4: 2
Phase B ................................................................................................................................... P4: 3
Phase B ................................................................................................................................... P4: 4
8 Lead Motors
8 lead motors offer a high degree of flexibility to the system designer in that they may be connected in
series or parallel, thus satisfying a wide range of applications.
Series Connection
A series motor configuration would typically be used in applications where a higher torque at
lower speeds is required. Because this configuration has the most inductance, the performance
will start to degrade at higher speeds. Use the per phase (or unipolar) current rating as the peak
output current, or multiply the bipolar current rating by 1.4 to determine the peak output current.
Splice
PHASE A
PHASE A
1 2
3 4
PHASE B
P4
PHASE B
Splice
Figure 2.3.2: 8 Lead Motor Series Connections
Parallel Connection
An 8 lead motor in a parallel configuration offers a more stable, but lower torque at lower speeds.
But because of the lower inductance, there will be higher torque at higher speeds. Multiply the
per phase (or unipolar) current rating by 1.96, or the bipolar current rating by 1.4, to determine
the peak output current.
PHASE A
PHASE A
1 2
3 4
PHASE B
P4
PHASE B
Figure 2.3.3: 8 Lead Motor Parallel Connections
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6 Lead Motors
Like 8 lead stepping motors, 6 lead motors have two configurations available for high speed or
high torque operation. The higher speed configuration, or half coil, is so described because it
uses one half of the motor’s inductor windings. The higher torque configuration, or full coil,
uses the full windings of the phases.
Half Coil Configuration
As previously stated, the half coil configuration uses 50% of the motor phase windings. This
gives lower inductance, hence, lower torque output. Like the parallel connection of 8 lead mo-
tor, the torque output will be more stable at higher speeds. This configuration is also referred to
as half copper. In setting the driver output current multiply the specified per phase (or unipo-
lar) current rating by 1.4 to determine the peak output current.
PHASE A
PHASE A
No Connect
1 2
3 4
PHASE B
P4
PHASE B
No Connect
Figure 2.3.4: 6 Lead Half Coil (Higher Speed) Motor Connections
Full Coil Configuration
The full coil configuration on a six lead motor should be used in applications where higher
torque at lower speeds is desired. This configuration is also referred to as full copper. Use the
per phase (or unipolar) current rating as the peak output current.
PHASE A
No Connect
PHASE A
1 2
3 4
PHASE B
P4
No Connect
PHASE B
Figure 2.3.5: 6 Lead Half Coil (Higher Speed) Motor Connections
Part 2: Interfacing and Configuring
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4 Lead Motors
4 lead motors are the least flexible but easiest to wire. Speed and torque will depend on winding
inductance. In setting the driver output current, multiply the specified phase current by 1.4 to deter-
mine the peak output current.
PHASE A
PHASE A
1 2
3 4
PHASE B
P4
PHASE B
Figure 2.3.6: 4 Lead Motor Connections
Recommended Motor Cabling
As with the power supply wiring, motor wiring should be run separately from logic wiring to minimize noise
coupled onto the logic signals. Motor cabling exceeding 1’ in length should be shielded twisted pairs to reduce
the transmission of EMI (Electromagnetic Interference) which can lead to rough motor operation and poor
system performance.
Cable length, wire gauge and power conditioning devices play a major role in the performance of your MForce
PowerDrive and Stepper Motor.
NOTE: The length of the DC power supply cable between the MForce PowerDrive and the Motor should not
exceed 50 feet.
Example A demonstrates the recommended cable configuration for the MForce PowerDrive to Motor cabling
under 50 Feet long. If cabling of 50 feet or longer is required, the additional length can be gained with the cable
configuration in Example B.
Correct AWG wire size is determined by the current requirement plus cable length. Please see Table 2.3.1 on the
following page.
Example A: Motor Cabling Less Than 50 Feet
Cable Length
less than 50 Feet
MForce
Motor
Connections
Shielded/Twisted Pair
PowerDrive
Phase Outputs
A
A
A
B
B
A
B
B
Shield to Earth Ground
on Supply End Only
Ferrite Beads
Figure 2.3.7: Motor Cabling Less than 50 Feet
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Example B: Motor Cabling Greater Than 50 Feet
Cable Length
as required
Common Mode
Line Filters (2x)
*L z 0.5 MH
Motor
Connections
Shielded/Twisted Pair
A
A
B
B
A
A
B
B
MForce
PowerDrive
Phase Outputs
Ferrite Beads
Shield to Earth Ground
on Supply End Only
* 0.5 MH is a typical starting point for the Common Mode Line Filters. By increasing or decreasing
the value of L you can set the drain current to a minimum to meet your application’s requirements.
Figure 2.3.8: Motor Cableing Greater than 50 Feet
Recommended Motor Cable AWG Sizes
MForce PowerDrive Recommended Motor Cable AWG
1 Amperes (Peak)
5 Amperes (Peak)
Length (Feet)
10
20
25
20
50*
18
75* 100*
18 16
Length (Feet)
10
16
25
16
50*
14
75*
12
100*
12
Minimum AWG
Minimum AWG
2 Amperes (Peak)
6 Amperes (Peak)
Length (Feet)
10
20
25
18
50*
16
75* 100*
14 14
Length (Feet)
10
14
25
14
50*
14
75*
12
100*
12
Minimum AWG
Minimum AWG
3 Amperes (Peak)
7 Amperes (Peak)
Length (Feet)
10
18
25
16
50*
14
75* 100*
12 12
Length (Feet)
10
12
25
12
50*
12
75*
12
100*
12
Minimum AWG
Minimum AWG
4 Amperes (Peak)
*Use the alternative methods illustrated in example
B when cable length is ≥ 50 feet. Also, use the same
current rating when the alternate AC power is used.
Length (Feet)
10
18
25
16
50*
14
75* 100*
12 12
Minimum AWG
Table 2.3.1: Recommended Wire Gauges
Part 2: Interfacing and Configuring
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SECTION 2.4
Logic Interface and Connection
Optically Isolated Logic Inputs
The Microstepping MForce PowerDrive has three optically isolated logic inputs which are located on connector
P1. These inputs are isolated to minimize or eliminate electrical noise coupled onto the drive control signals. Each
input is internally pulled-up to the level of the optocoupler supply and may be connected to sinking or +5 to +24
VDC sourcing outputs on a controller or PLC. These inputs are:
1] Step Clock (SCLK)/Quadrature (CH A)/Clock UP
2] Direction (DIR)/Quadrature (CH B)/ Clock DOWN
3] Enable (EN)
Of these inputs only step clock and direction are required to operate the Microstepping MForce PowerDrive.
Isolated Logic Input Pins and Connections
The following diagram illustrates the pins and connections for the Microstepping MForce PowerDrive family of
products. Careful attention should be paid to verify the connections on the model Microstepping MForce Power-
Drive you are using.
Isolated Logic Input Characteristics
Enable Input
This input can be used to enable or disable the driver output circuitry. Leaving the enable switch open (Logic
HIGH, Disconnected) for sinking or sourcing configuration, the driver outputs will be enabled and the step
clock pulses will cause the motor to advance. When this input switch is closed (Logic LOW) in both sinking
Inputs Configured as Sinking
Pin 5: Enable
+5 to +24VDC
Pin 3: Opto Supply
Pin 3
Inputs Configured as Sourcing
Pin 3
Pin 4: Step/Clock
Pin 6: Direction
Controller I/O
Ground
Figure 2.4.1: Isolated Logic Pins and Connections
Part 2: Interfacing and Configuring
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and sourcing configurations, the driver output circuitry will be disabled. Please note that the internal sine/cosine
position generator will continue to increment or decrement as long as step clock pluses are being received by the
Microstepping MForce PowerDrive.
Clock Inputs
The Microstepping MForce PowerDrive features the ability to configure the clock inputs based upon how the user
will desire to control the drive. By default the unit is configured for the Step/Direction function.
Step Clock
The step clock input is where the motion clock from your control circuitry will be connected. The motor will
advance one microstep in the plus or minus direction (based upon the state of the direction input) on the ris-
ing edge of each clock pulse. The size of this increment or decrement will depend on the microstep resolution
setting.
Direction
Step/Direction Function
The direction input controls the CW/CCW direction
of the motor. The input may be configured as sinking or
sourcing based upon the state of the Optocoupler Refer-
ence. The CW/CCW rotation, based upon the state of the
input may be set using the IMS Motor Interface software
included with the Microstepping MForce PowerDrive.
Step Clock
Direction
Quadrature
The Quadrature clock function would typically be used for
following applications where the Microstepping MForce
PowerDrive would be slaved to an MForce PowerDrive
Microstepping (or other controller) in an electronic gearing
application.
Quadrature Function
Up/Down
Channel A
Channel B
The Up/Down clock would typically be used in a dual-
clock direction control application.
Input Timing
The direction input and the microstep resolution inputs
are internally synchronized to the positive going edge of
the step clock input. When a step clock pulse goes HIGH,
the state of the direction input and microstep resolution
settings are latched. Any changes made to the direction
and/or microstep resolution will occur on the rising edge of
the step clock pulse following this change. Run and Hold
Current changes are updated immediately. The following
figure and table list the timing specifications.
Up/Down Function
CW
CCW
Input Filtering
The clock inputs may also be filtered using the Clock IOF
pull down of the IMS SPI Motor Interface. The filter range
is from 50 nS (10 MHz) to 12.9 µSec. (38.8 kHz).
Figure 2.4.2: Input Clock Functions
The configuration parameters for the input filtering is
covered in detail in Section 2.4: Configuring the Microstepping MForce PowerDrive.
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STEP/DIRECTION TIMING
TDH
Direction
Step
TDSU
TSH
TSL
QUADRATURE TIMING
Direction Change
TCHL
Channel A
Channel B
TDC
TCHL
UP/DOWN TIMING
Step Up
TSH
TSL
TDC
TDC
Step Down
TSH
TSL
Figure 2.4.3: Clock Input Timing Characteristics
Clock Input Timing
Type and Value
Step/Direction Step Up/Down Quadrature
Symbol
Parameter
Units
T
T Direction Set Up
T Direction Hold
T Step High
50
100
100
100
—
—
—
—
—
nS min
DSU
T
nS min
nS min
DH
T
100
100
200
—
—
SH
T
T Step Low
—
nS min
SL
T
T Direction Change
T Channel High/Low
F Step Maximum
F Channel Maximum
F Edge Rate
200
400
—
nS min
DL
T
—
nS min
CHL
F
5
5
MHz Max
MHz Max
MHz Max
SMAX
F
—
—
1.25
5
CHMAX
F
—
—
ER
Table 2.4.1: Input Clocks Timing Table
Part 2: Interfacing and Configuring
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NOTE: When
connecting the
Optocoupler Reference
Optocoupler Supply,
it is recommended
that you do not use MForce
Power Ground as Ground
as this will defeat the optical
isolation.
The Microstepping MForce PowerDrive Logic Inputs are optically isolated to prevent electrical noise being coupled
into the inputs and causing erratic operation.
There are two ways that the Optocoupler Reference will be connected depending whether the Inputs are to be
configured as sinking or sourcing.
Optocoupler Reference
Input Type
Sinking
Optocoupler Reference Connection
+5 to +24 VDC
Sourcing
Controller Ground
Table 2.4.2: Optocoupler Reference Connection
+5 VDC
Optocoupler
Reference
Optocoupler
Constant
Current
Source
To Drive Logic
Input
(Step Clock,
Direction, Enable)
Microstepping MForce
PowerDrive
Figure 2.4.4: Optocoupler Input Circuit Diagram
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Input Connection Examples
The following diagrams illustrate possible connection/application of the Microstepping MForce PowerDrive Logic
Inputs.
NPN Open Collector Interface
(Sinking)
+5 to +24VDC
Optocoupler Reference
+
Microstepping
MForce PowerDrive
Controller Output
Input
Controller Ground
PNP Open Collector Interface
(Sourcing)
+5 to +24VDC
Optocoupler Reference
+
Microstepping
Controller Output
MForce PowerDrive
Input
Controller Ground
Figure 2.4.5: Open Collector Interface Example
Part 2: Interfacing and Configuring
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Switch Interface Example
Switch Interface
(Sinking)
+5 to +24VDC
Optocoupler Reference
GND
+
Microstepping
MForce PowerDrive
Enable Input
SPST
Switch
Switch Interface
(Sourcing)
+5 to +24VDC
Optocoupler Reference
GND
+
Microstepping
MForce PowerDrive
EnableInput
SPST
Switch
Figure 2.4.6: Switch Interface Example
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Minimum Required Connections
The connections shown are the minimum required to operate the Microstepping MForce PowerDrive. These are
illustrated in both Sinking and Sourcing Configurations. Please reference the Pin Configuration diagram and
Specification Tables for the Microstepping MForce PowerDrive connector option you are using.
Opto Reference*
Power Ground
* The Opto Reference Will
set the Sink/Source
+V (+12 to +48)
Configuration of the Inputs
Sinking: OptoRef = +5 to +24 VDC
Sourcing: OptoRef = Ground
3
4
P3
1
2
6
Step
Direction
P1
ØA
ØA
1
3
2
ØB
4
ØB
P4
MForce PowerDrive Front
12-Pin Wire Crimp at P1 Shown.
See Specifications for Pin
Numbering for other versions.
Stepping Motor
Figure 2.4.7: Minimum Required Connections
Part 2: Interfacing and Configuring
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SECTION 2.5
Connecting SPI Communications
Connecting the SPI Interface
The SPI (Serial Peripheral Interface) is the com-
munications and configuration interface.
For prototyping we recommend the purchase
of the parameter setup cable MD-CC300-000.
If using the Microstepping MForce PowerDrive
with the 10-Pin IDC on P2, this cable will plug
directly into the P2 Connector.
If using the model with a 12-Pin Locking Wire
Crimp connector, adapters are available to
interface the parameter setup cable to P1.
Figure 2.5.1: MD-CC300-000 Parameter Setup Cable
For more information on prototype development cables, please see Appendix: Prototype Development Cables.
SPI Signal Overview
+5 VDC (Output)
This output is a voltage supply for the setup cable only. It is not designed to power any external devices.
SPI Clock
The Clock is driven by the Master and regulates the flow of the data bits. The Master may transmit data at a
variety of baud rates. The Clock cycles once for each bit that is transferred.
Logic Ground
This is the ground for all Communications.
MISO (Master In/Slave Out)
Carries output data from the Microstepping MForce PowerDrive units back to the SPI Master. Only one
MForce PowerDrive can transmit data during any particular transfer.
CS (SPI Chip Select)
This signal is used to turn multiple Microstepping MForce PowerDrive units on or off.
MOSI (Master Out/Slave In)
Carries output data from the SPI Master to the Microstepping MForce PowerDrive.
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SPI Pins and Connections
PC Parallel/SPI Port
2 3 4
For Use ONLY
with IMS Parameter
Setup Cable
19
15
+5 VDC OUT
COMM GND
SPI CLOCK
7
9
P1
11
12
8
MASTER IN/SLAVE OUT
MASTER OUT/SLAVE IN
10
CHIP SELECT
12-Pin Locking Wire Crimp
Figure 2.5.2: SPI Pins and Connections, 12-Pin Wire Crimp
NOTE: If making your
own parameter setup
cable, be advised
Logic Level Shifting and Conditioning Circuit
The following circuit diagram is of a Logic Level shifting and conditioning circuit. This circuit should be
used if you are making your own parameter cable and are using a laptop computer with 3.3 V output parallel
ports.
the 3.3V output
parallel ports on some laptop
PC’s may not be sufficient to
communicate with the device
without use of a logic level
shifting and conditioning
Interface.
1
R1
R2
2
3
8
4
2
5
CLK
U1:A
100
HCT125
+5V
49.9
P2: 8
DB25: 2
DB25: 3
14
C3
330pF
100K
+5V
3
R9
C4
4
100K
R10
R4
R3
4
6
U1:B
7
CS
100
HCT125
DB25: 4
49.9
P2: 4
P2: 7
P2: 10
330pF
19
DB25: 19
13
U1:D
R6
R5
7
12
11
MOSI
100
49.9
HCT125
C5
330pF
100K
R8
R11
+5V
4.9K
+5V
100K
10
R12
R7
15
10
8
9
MISO
U1:C
49.9
DB25: 15
HCT125
+5V
6
5
+5 VDC
GND
+
1µF
25V
P2: 6
P2: 5
.1µF
C1
C2
Figure 2.5.3: Logic Level Shifting and Conditioning Circuit
Part 2: Interfacing and Configuring
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SPI Master with Multiple Microstepping MForce PowerDrive
It is possible to link multiple MicrosteppingMForce PowerDrive unitsinanarray froma single SPI Masterby wiring thesystem
and programmingthe userinterface to write to multiple chip selects.
Each MForce onthe bus will have a dedicated chip select. Only one systemMForce canbe communicated with/Parameters
changed at a time.
SPI Clock
Microstepping
MOSI
SPI Master
MForce
MISO
PowerDrive
CS
Figure 2.5.4: SPI Master with a Single Microstepping MForce PowerDrive
SPI Clock
Microstepping
MOSI
MForce
PowerDrive
MISO
SPI Master
#1
CS1
CS2
Microstepping
MForce
PowerDrive
#2
Figure 2.5.5: SPI Master with Multiple Microstepping MForce PowerDrives
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SECTION 2.6
Using the IMS SPI Motor Interface
Installation
The IMS SPI Motor Interface is a utility that easily allows you to set up the parameters of your Microstepping
MForce PowerDrive. It is available both on the CD that came with your product and on the IMS web site at
1. Insert the CD into the CD Drive of your PC.
2. The CD will auto-start.
3. Click the Software Button in the top-right navigation Area.
4. Click the IMS SPI Interface link appropriate to your operating system.
5. Click SETUP in the Setup dialog box and follow the on-screen instructions.
6. Once IMS SPI Motor Interface is installed, the Microstepping MForce PowerDrive settings can
be checked and/or set.
Configuration Parameters and Ranges
Microstepping MForce PowerDrive Setup Parameters
Name
MHC
MRC
Function
Range
0 to 100
1 to 100
Units
percent
percent
Default
Motor Hold Current
Motor Run Current
5
25
1, 2, 4, 5, 8, 10, 16, 25, 32, 50,
64, 100,108, 125, 127,128,
180, 200, 250, 256
µsteps per
full step
Microstep
Resolution
MSEL
DIR
256
CW
Motor Direction
Override
0/1
–
Hold Current Delay
Time
HCDT
CLK TYPE
CLK IOF
USER ID
EN ACT
0 or 2-65535
mSec
500
Clock Type
Step/Dir. Quadrature, Up/Down
–
nS (MHz)
1-3 characters
—
Step/Dir
Clock and Direction
Filter
50 nS to 12.9 µS
(10 MHz to 38.8kHz)
50nS (10
MHz)
User ID
Customizable
IMS
Enable Active
High/Low
High/Low
High
Warning
Temperature
WARN TEMP
0 to + 125
°C
80
Table 2.6.1: Setup Parameters and Ranges
Color Coded Parameter Values
The SPI Motor Interface displays the parameter values using a predefined system of color codes to identify the
status of the parameter.
1. Black: the parameter settings currently stored in the device NVM will display as black.
2. Blue: Blue text indicates a changed parameter setting that has not yet been written to the
device.
3. Red: Red text indicates an out-of-range value which cannot be written to the device. When
an out-of-range parameter is entered into a field, the "set" button will disable, preventing the
value to be written to NVM. To view the valid parameter range, hover the mouse pointer over
the field. The valid range will display in a tool tip.
The color coding is illustrated in Figure 2.5.1.
Part 2: Interfacing and Configuring
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Blue: New Value which has not yet
been set to NVM.
Red: Out of Range Value.
The Set Button will disable
as the the Motor Interface will
not allow an out of range value
to be stored.
Black: This is the value
Currently Stored in NVM
Figure 2.6.1: SPI Motor Interface Color Coding
IMS SPI Motor Interface Menu Options
File
>
>
>
>
Open: Opens a saved *.mot (Motor Settings) file.
Save: Saves the current motor settings as a *.mot file for later re-use
Save As
Exit - Disconnects from the device and opens the Initialization Dialog.
Perform File
Operation
Open Motor Settings
File (*.mot)
Save Motor Settings
Save Motor Settings As
Exit the Motor Interface
Figure 2.6.2: SPI Motor Interface File Menu
View
>
>
>
Motion Settings: Displays the Motion Settings screen
IO Settings: Displays the IO Settings Screen
Part and Serial Number: Displays the part and serial number
View Settings
Screen
Motion Settings Screen
I/O Settings Screen
Read-Only Part
and Serial Number Screen
Figure 2.6.3: SPI Motor Interface View Menu
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Recall!
Retrieves the settings from the Microstepping MForce PowerDrive.
Recall Last Stored
Parameter Settings
Figure 2.6.4: SPI Motor Interface Recall Menu
Upgrade!
Upgrades the Microstepping MForce PowerDrive firmware by placing the device in Upgrade Mode and
launching the firmware upgrader utility.
Toggle MForce into
Upgrade Mode for
Firmware Upgrade
Figure 2.6.5: SPI Motor Interface Upgrade Menu
Help
>
>
IMS Internet Tutorials: Link to an IMS Web Site page containing Interactive flash tutorials.
About: Opens the About IMS and IMS SPI Motor Interface Screen.
Links to the Software
Tutorial page of the
IMS Website
Figure 2.6.6: SPI Motor Interface Help Menu and About Screen
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1. MSEL: Microstep Resolution Select.
Motor Run
Current
Microstep Resolution
Selection
Holding Current
Delay Time
Direction
Override
Motor Holding
Current
Load Factory
Default Settings
Exit Program
Fault/Checksum
Error
Three Character
User ID
Store Settings
to NVM
Figure 2.6.7: SPI Motor Interface Motion Settings Screen
2. HCDT: Holding Current Delay Time.
3. MRC: Motor Run Current
4. Motor Holding Current
5. User ID: 3-character ID
6. Direction Override: Allows the user to set the CW/CCW direction of the motor in relation to the
Direction Input from the SPI Motor Interface.
MSEL (Microstep Resolution Selection)
The Microstepping MForce PowerDrive features 20 microstep resolutions. This setting specifies the number of
microsteps per step the motor will move.
The MForce PowerDrive uses a 200 step (1.8°) stepping motor which at the highest (default) resolution of 256
will yield 51,200 steps per revolution of the motor shaft.
See Table 2.3.2 for available Microstep Resolutions.
Microstep Resolution Settings
Binary µStep Resolution Settings
Decimal µStep Resolution Settings
MS=<µSteps/Step>
Steps/Revolution
MS=<µSteps/
Step>
Steps/Revolution
1
2
200
400
5
1000
2000
10
4
8
800
25
50
5000
10000
20000
25000
1600
3200
6400
16
32
100
125
64
12800
25600
51200
200
250
40000
50000
128
256
Additional Resolution Settings
180
108
36000 (0.01°/µStep)
21600 (1 Arc Minute/µStep)
127
25400 (0.001 mm/µStep)
Table 2.6.2: Microstep Resolution Settings
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HCDT (Hold Current Delay Time)
The HCDT Motor Hold Current Delay sets time in milliseconds for the Run Current to switch to Hold Current when
motion is complete. When motion is complete, the Microstepping MForce PowerDrive will reduce the current in the
windings of the motor to the percentage specified by MHC when the specified time elapses.
MRC (Motor Run Current)
The MRC Motor Run Current parameter sets the motor run current to a percentage of the full output current of the
MForce PowerDrive driver section.
MHC (Motor Hold Current)
The MHC parameter sets the motor holding current as a percentage of the full output current of the driver. If the hold
current is set to 0, the output circuitry of the driver section will disable when the hold current setting becomes active. The
hold current setting becomes active HCDT setting mS following the last clock pulse.
Run and Hold Current Settings
HC=(%)
RC=(%)
MForce PowerDrive
(Amps RMS)
10
20
30
40
50
60
70
80
90
100
0.5
1.0
1.5
2.0
2.5
3.0
3.5
4.0
4.5
5.0
Table 2.6.3: Hold and Run Current Percentage Equivalents
DIR (Motor Direction)
The DIR Motor Direction parameter changes the motor direction relative to the direction input signal, adapting the direc-
tion of the MForce PowerDrive to operate as your system expects.
User ID
The User ID is a three character (viewable ASCII) identifier which can be assigned by the user. Default is IMS.
IMS SPI Motor Interface Button Functions
The following appear on all of the IMS SPI Motor Interface screens, but will only be documented here.
Factory
Clicking the Factory button will load the Microstepping MForce PowerDrive unit's factory default settings into the
IMS SPI Motor Interface.
Connected/Disconnected Indicator
Displays the connected/disconnected state of the software , and if connected, the port connected on.
Set
Set writes the new settings to the MForce PowerDrive . Un-set settings will display as blue text in the setting fields.
Once set they will be in black text. Setting the Parameters will also clear most Fault Conditions.
Exit
Disconnects and opens the Initialization dialog.
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Screen 2: I/O Settings Configuration Screen
The I/O Settings screen may be accessed by clicking View > IO Settings on the menu bar. This screen is used to
configure the Input Clock type, the filtering and the Active High/Low State of the Enable Input.
Input Clock Type
The Input Clock Type translates the specified pulse source that the motor will use as a reference for establishing
stepping resolution based on the frequency.
Active High/Low
State of the
Enable Input
Input Clock Type
(Step/Dir, Quadrature or
Up/Down)
Input Clock Filter
Warning
Temperature
Figure 2.6.8: SPI Motor Interface I/O Settings Screen
The three clock types supported are:
1. Step/Direction
2. Quadrature
3. Up/Down
The Clock types are covered in detail in Section 2.2: Logic Interface and Connection.
Input Clock Filter
The clock inputs may also be filtered using the Clock IOF pull down of the IMS SPI Motor Interface. The filter
range is from 50 nS (10 MHz) to 12.9 µSec. (38.8 kHz). Table 2.4.3 shows the filter settings.
Input Clock Filter Settings
Min. Pulse
50 nS
Cutoff Frequency
10 MHz
150 nS
200 nS
300 nS
500 nS
900 nS
1.7 µS
3.3 MHz
2.5 MHz
1.67 MHz
1.0 MHz
555 kHz
294.1 kHz
151 kHz
3.3 µS
6.5 µS
76.9 kHz
38.8 kHz
12.9 µS
Table 2.6.4: Input Clock Filter Settings
Enable Active High/Low
The parameter sets the Enable Input to be Active when High (Default, Disconnected) or Active when Low.
Warning Temperature
The parameter sets the temperature at which a TW, or temperature warning fault code will be generated. In the
warning condition the MForce PowerDrive will continue to operate as normal. The thermal shutdown is +85°C.
Microstepping MForce PowerDrive Manual Revision R040507
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IMS Part Number/Serial Number Screen
The IMS Part Number and Serial Number screen is accessed by clicking "View > Part and Serial Numbers".
This screen is read-only and will display the part and serial number, as well as the fault code if existing. IMS may
require this information if calling the factory for support.
IMS Part #
IMS Serial Number
Figure 2.6.9: SPI Motor Interface Part and Serial Number Screen
Fault Indication
All of the IMS SPI Motor Interface Screens have the Fault field visible. This read-only field will display a 2 charac-
ter error code to indicate the type of fault. The table below shows the error codes.
MForce34Plus Microstepping Fault Codes
Binary
Case*
Error
Code
Description
Action
To Clear
—
—
None
No Fault
—
Error
Displayed
Write to MDM
(Set Button)
4
CS
SPI Checksum Error
SPI Checksum Error/
Sector Changing
Error
Displayed
Write to MDM
(Set Button)
8
SC/CS
DFLT
DATA
TW
Defaults Checksum
Error
Error
Displayed
Write to MDM
(Set Button)
16
32
64
Settings Checksum
Error
Error
Displayed
Write to MDM
(Set Button)
Error
Displayed
Write to MDM
(Set Button)
Temperature Warning
*All Fault Codes are OR'ed together
Table 2.6.5: Microstepping MForce PowerDrive Fault Codes
Part 2: Interfacing and Configuring
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NOTE: Once entered
into Upgrade Mode,
you MUST complete
the upgrade. If
Upgrading the Firmware in the Microstepping MForce PowerDrive
The IMS SPI Upgrader Screen
the upgrade process is
incomplete the IMS SPI Motor
Interface will continue to open
to the Upgrade dialog until the
process is completed!
The IMS SPI Motor Interface is required to upgrade your Microstepping MForce PowerDrive product. To launch
the Upgrader, click "Upgrade!" on the IMS SPI Motor Interface menu.
The Upgrader screen has 4 read-only text fields that will display the necessary info about your Microstepping
MForce PowerDrive.
Figure 2.6.10: SPI Motor Interface Upgrade Utility
1. Previous Version: this is the version of the firmware currently on your Microstepping MForce
PowerDrive.
2. Serial Number: the serial number of your unit.
3. Upgrade Version: will display the version number of the firmware being installed.
4. Messages: the messages text area will display step by step instructions through the upgrade process.
Upgrade Instructions
Below are listed the upgrade instructions as they will appear in the message box of the IMS SPI Upgrader.
Note that some steps are not shown as they are accomplished internally, or are not relevant to the model IMS
product you are updating. The only steps shown are those requiring user action.
Welcome Message: Welcome to the Motor Interface UPGRADER! Click NEXT to
continue.
Step 2: Select Upgrade File
When this loads, an explorer dialog will open asking you to browse for the firmware upgrade file. This
file will have the extension *.ims.
Step 3: Connect SPI Cable
Step 4: Power up or Cycle Power to the MForce
Step 6: Press Upgrade Button
Progress bar will show upgrade progress in blue, Message box will read "Resetting Motor Interface"
Step 8: Press DONE, then select Port/Reconnect.
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Initialization Screen
This screen will be active under five conditions:
1. When the program initially starts up and seeks for a compatible device.
2. The User selects File > Exit when connected to the device.
3. The User clicks the Exit button while connected to the device.
4. The Upgrade Process completes.
5. The SPI Motor Interface is unable to connect to a compatible device.
Figure 2.6.11: SPI Motor Interface Initialization
Port Menu
The Port Menu allows the user to select the COM Port that the device is connected to, either a parallel (LPT) Port,
or a Hardware Serial or Virtual Serial Port via USB.
The Reconnect option allows the user to reconnect to a unit using the previously used settings.
On open or reconnect, the SPI Motor Interface will also try to auto seek for a connected device.
Communications
Port Operations
Select Parallel
(LPT) Port
Select Serial or
USB (VCP)
Auto-seek Port
and Reconnect
to device
Figure 2.6.12: SPI Motor Interface Port Menu
Part 2: Interfacing and Configuring
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SECTION 2.7
Using User-Defined SPI
The MForce can be configured and operated through the end-user's SPI interface without using the IMS SPI Mo-
tor Interface software and optional parameter setup cable.
An example of when this might be used is in cases where the machine design requires parameter settings to be
changed on-the-fly by a software program or multiple system Microstepping MForce PowerDrive units parameter
states being written/read.
SPI Timing Notes
1. MSb (Most Significant bit) first and MSB (Most Significant Byte) first.
2. 8 bit bytes.
3. 25 kHz SPI Clock (SCK).
4. Data In (MOSI) on rising clock.
5. Data Out (MISO) on falling clock.
Figure 2.7.1: SPI Timing
Check Sum Calculation for SPI
The values in the example below are 8-bit binary hexadecimal conversions for the following SPI parameters:
MRC=25%, MHC=5%, MSEL=256, HCDT=500 mSec, WARNTEMP=80.
The Check Sum is calculated as follows:
(Hex) 80+19+05+00+00+01+F4+50
Sum = E3
1110 0011
1’s complement = 1C
2’s complement = 1D
Send the check sum value of 1D
0001 1100 (Invert)
0001 1101 (Add 1)
Note: 80 is always the first command on a write.
Note: Once a write is performed, a read needs to be performed to see if there is a fault. The fault is the last byte of
the read.
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SPI Commands and Parameters
Use the following table and figure found on the following page together as the Byte order read and written from
the MDrivePlus Microstepping, as well as the checksum at the end of a WRITE is critical.
SPI Commands and Parameters
Command/
Parameter
HEX
(Default)
Range
—
Notes
READ ALL
0x40
Reads the hex value of all parameters
MSB
Device (M)
0x4D
0x10
—
M Character precedes every READ
Firmware Version.Sub-version, eg 1.0
Version_MSB
<1-8>.<0-9>
Firmware Version Appends to Version_
MSB, eg.00
Version_LSB
0x00
<0-99>
USR_ID1
USR_ID2
USR_ID3
MRC
0x49
0x4D
0x53
0x19
0x05
—
—
Uppercase Letter <I>
Uppercase Letter <M>
Uppercase Letter <S>
Motor Run Current
—
1-67%
0-67%
MHC
Motor Hold Current
0*, 1-259
*0=256
Microstep Resolution (See Table in Section
2.4 for settings)
MSEL
0x00
0x00
0=no override
1=override dir
DIR_OVRID
Direction Override
HCDT_HI
HCDT_LO
0x01
0xF4
Hold Current Delay Time High Byte
Hold Current Delay Time Low Byte
0 or 2-65535
0=s/d,
1=quad,
2=u/d
CLKTYP
0x00
Input Clock Type
CLKIOF
0x00
0x50
<0-9>
Clock Input Filtering
OVER_TEMP - 5° C
WARNTEMP
0=Low
1=High,
EN_ACT
FAULT
0x01
0x00
0x80
Enable Active High/Low
LSB
—
See Fault Table, Section 2.4
Writes the hex value to the following
parameters.
WRITE ALL
—
MSB
USR_ID1
USR_ID2
USR_ID3
MRC
0x49
0x4D
0x53
0x19
0x05
—
—
Uppercase Letter <I>
Uppercase Letter <M>
Uppercase Letter <S>
Motor Run Current
—
1-100%
0-100%
MHC
Motor Hold Current
0*, 1-259
*0=256
Microstep Resolution (See Table in Section
2.4 for settings)
MSEL
0x00
0x00
0=no override
1=override dir
DIR_OVRID
Direction Override
HCDT_HI
HCDT_LO
0x01
0xF4
Hold Current Delay Time High Byte
Hold Current Delay Time Low Byte
0 or 2-65535
0=s/d,
1=quad,
2=u/d
CLKTYP
0x00
Input Clock Type
CLKIOF
0x00
0x50
<0-9>
Clock Input Filtering
OVER_TEMP - 5° C
WARNTEMP
0=Low
1=High
EN_ACT
CKSUM
0x01
Enable Active High/Low
34
LSB
Table 2.7.1: SPI Commands and Parameters
Part 2: Interfacing and Configuring
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READ ALL CMD
WRITE (MOSI):
40 FF FF FF FF FF FF FF FF FF FF FF FF FF FF FF FF
RESPONSE (MISO):
XX 4D 10 00 49 4D 53 19 05 00 00 01 F4 00 00
50 01
00
00
01
FAULT
EN_ACT
WARNTEMP
CLKIOF
80
0
CLKTYP
HCDT_LO
HCDT_HI
DIR_OVRID
MSEL
0
500
0
256
MHC
5
MRC
25
USR_ID3
USR_ID2
USR_ID1
VERSION
DEVICE
S
M
I
1.0.00
M
USR_ID1
USR_ID2
USR_ID3
I
M
S
25
5
MRC
MHC
256
0
MSEL
DIR_OVRID
HCDT_HI
HCDT_LO
CLKTYP
CLKIOF
WARNTEMP
EN_ACT
CKSUM
500
0
0
80
01
51
WRITE ALL CMD
WRITE (MOSI): 80 49 4D 53 19 05 00 00 01 F4 00 00 50 01 33
FF FF FF FF FF FF FF FF FF FF FF FF FF FF
RESPONSE (MISO): XX
CHECKSUM CALCULATION
80+49+4D+53+19+05+00+00+01+F4+00+00+50+01=CD
BINARY = 1100 1101
1'S COMPLEMENT = 0011 0010
2'S COMPLEMENT = 0011 0011
DEC = 51
HEX = 33
Figure 2.7.2: Read/Write Byte Order for Parameter Settings (Default Parameters Shown)
SPI Communications Sequence
See Timing Diagram and Byte Order figures.
READ
1. Send READ ALL Command 0x40 down MOSI to Microstepping MForce PowerDrive followed by
FF (15 Bytes).
2. Receive Parameter settings from MISO MSB First (M-Device) and ending with LSB (Fault).
Write
1. Send WRITE ALL Command (0x80) down MOSI followed by Parameter Bytes beginning with MSB
(MRC) and ending with the LSB (Checksum of all parameter Bytes).
2. Response from MISO will be FF (10) Bytes.
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FORCETM
MICRO DRIVE
MICROSTEPPING
Appendices
Appendix A: Optional Prototype Development Cables
Appendices
A-1
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A-2
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Appendix C
Optional Prototype Development Cables
MD-CC300-000: USB to SPI Parameter Setup Cable
WARNING! DO NOT
connect or disconnect
the MD-CC300-000
The MD-CC300-000 USB to SPI Parameter Setup
Cable provides a communication connection between
the 10-pin connector on some Microstepping MForce
PowerDrives and the USB port on a PC.
Communications Converter
Cable from MForce while power is
applied!
IMS SPI Interface Software communicates to the
Parameter Setup Cable through the PC's USB port.
The Parameter Setup Cable interprets SPI commands
and sends these commands to the MForce
PowerDrive through the SPI interface.
Figure A.1: MD-CC300-000
Supplied Components: MD-CC300-000 Parameter
Setup Cable, USB Cable, USB Drivers, IMS SPI Interface Software.
3.75 in
(95.0 mm)
1.0 in
(25.0 mm)
USB
0.875 in
(22.0 mm)
MD-CC300-000
USB Cable
Length 6.0 ft (1.8 m)
To PC USB
10 Pin Connector
To MForce
Cable Length 6.0 ft (1.8 m)
Figure A.2: MD-CC300-000 Mechanical Specifications
Adapter Cables
Parameter Setup Cable and Adapters
The optional 12.0' (3.6m) parameter setup cable part number MD-CC300-000 facilitates communica-
tions wiring and is recommended with first order. It connects from the P2 connector to a PC's USB port.
Models with the 12-pin pluggable locking wire crimp require adapter MD-ADP-1723C.
Prototype Development Cable
For testing and development using the 12-pin pluggable locking wire crimp, the 12.0" (30.5cm) prototype
development cable plugs into the MD-ADP-1723C adapter and has flying leads for connection to the user
interface. Part number ADP-3512-FL.
See Figure A.3 on the following page for dimensional and connection information.
Appendices
A-3
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Approx Length
12" (304.8mm)
To MForce
MD-ADP-1723C
Adapter Cable
MD-ADP-1723C
To Customer PC
USB Port
Approx Length
12" (304.8mm)
1
12
TM
12
2
1
ADAPTER P/N
MD-ADP-14C
11
P1
P2
ADP-3512-FL
MD-CC300-000
Parameter Setup Cable
To Customer
Interface
USB Cable
Length 6.0 ft (1.8 m)
ADP-3512-FL
Prototype Development Cable
Figure A.3: Typical Setup, Adapter and Prototype Development Cable
Installation Procedure for the MD-CC300-000
These Installation procedures are written for Microsoft Windows XP Service Pack 2. Users with earlier versions of
Windows please see the alternate installation instructions at the IMS web site (http://www.imshome.com).
The installation of the MD-CC300-000 requires the installation of two sets of drivers:
Drivers for the IMS USB to SPI Converter Hardware.
Drivers for the Virtual Communications Port (VCP) used to communicate to your IMS Product.
Therefore the Hardware Update wizard will run twice during the installation process.
The full installation procedure will be a two-part process: Installing the Cable/VCP drivers and Determining the
Virtual COM Port used.
Installing the Cable/VCP Drivers
1) Plug the USB Converter Cable into the USB port of the MD-CC300-000.
2) Plug the other end of the USB cable into an open USB port on your PC.
3) Your PC will recognize the new hardware and open the Hardware Update dialog.
4) Select “No, not this time” on the radio buttons
in answer to the query “Can Windows Connect
to Windows Update to search for software?”
Click “Next” (Figure A.4).
5) Select “Install from a list or specific location
(Advanced)” on the radio buttons in answer
to the query “What do you want the wizard to
do?” Click “Next” (Figure A.5).
Figure A.4: Hardware Update Wizard
A-4
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6) Select “Search for the best driver in these locations”.
(a) Check “Include this location in the search”.
Figure A.5: Hardware Update Wizard Screen 2
(b) Browse to the CD [Drive Letter]:\ Cable_Drivers\MD-CC303-000_DRIVERS.
(c) Click Next (Figure A.6).
7) The drivers will begin to copy.
Figure A.6: Hardware Update Wizard Screen 3
8) On the Dialog for Windows Logo Compatibility Testing, click “Continue Anyway” (Figure A.7).
Figure A.7: Windows Logo Compatibility Testing
9) The Driver Installation will proceed. When the Completing the Found New Hardware Wizard dialog
appears, Click “Finish” (Figure A.8).
10) Upon finish, the Welcome to the Hardware Update Wizard will reappear to guide you through the
second part of the install process. Repeat steps 1 through 9 above to complete the cable installation.
11) Your IMS MD-CC300-000 is now ready to use.
Appendices
A-5
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Figure A.8: Hardware Update Wizard Finish Installation
Determining the Virtual COM Port (VCP)
The MD-CC300-000 uses a Virtual COM Port to communicate through the USB port to the MForce. A VCP
is a software driven serial port which emulates a hardware port in Windows.
The drivers for the MD-CC300-000 will automatically assign a VCP to the device during installation. The
VCP port number will be needed when IMS Terminal is set up in order that IMS Terminal will know where to
find and communicate with your IMS Product.
To locate the Virtual COM Port.
1) Right-Click the “My Computer” Icon and select “Properties”.
2) Browse to the Hardware Tab (Figure A.9), Click the Button labeled “Device Manager”.
3) Look in the heading “Ports (COM & LPT)” IMS USB to SPI Converter Cable (COMx) will be
listed (Figure A.10). The COM # will be the Virtual COM Port connected. You will enter this
number into your IMS SPI Motor Interface Configuration.
Figure A.9: Hardware Properties
Figure A.10: Windows Device Manager
A-6
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PD12-1434-FL3 — Power, I/O and SPI
The PD12-1434-FL3 is a 10’ (3.0 m) Prototype Development Cable used to connect to the 12-Pin Locking
Wire Crimp Connector. The Connector end plugs into the P1 Connector of the MForce PowerDrive. The Fly-
ing Lead end connects to a Control Interface such as a PLC, an SPI Interface such as a PC Parallel port and the
users motor power supply.
Wire Color Code
Pair Number
(Cable/Pair)
Color Combination
Interface Signal
MForce Wire Crimp
Connection Pin Number
White/Blue
Blue/White
White/Orange
Orange/White
White/Green
Green/White
White/Brown
Brown/White
White/Gray
Gray//White
Black
Opto Reference
Step Clock
3
4
1/1
1/2
1/3
1/4
1/5
2/1
Enable
5
Direction
6
SPI Clock
8
COMM GND
+5VDC
9
7
Master In - Slave Out
Master Out - Slave In
SPI Chip Select
Not Used
12
10
11
1
Red
Not Used
2
Table A.1: PD12-1434-FL3 Wire Color Codes
Gray/White: SPI CS
White/Gray: SPI MOSI
White/Brown: +5VDC
Cable 1
Brown/White SPI MISO
White/Green: SPI Clock
Green/White: SPI Ground
A M P
White/Orange: Enable
Orange/White: Direction
Cable 2
White/Blue: Opto Reference
Blue/White: Step Clock
Black: Not Used
Red:Not Used
Figure A.11 PD12-1434-FL3
Appendices
A-7
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Prototype Development Cable PD02-2300-FL3
IMS recommends the Prototype Development Cable PD02-3400-FL3 for interfacing power to the MForce
PowerDrive.
10 ft (3.0 m)
Pin 1 (Red Wire)
Power Supply Return (Ground)
Drain Wire (Connect to Earth at Power Supply)
Motor Power (+12 to +75 VDC)
Figure A.12: PD02-3400-FL3
Prototype Development Cable PD04-MF34-FL3
The PD04-MF34FL3 is a 10’ (3.0 M) Prototype Development Cable used to connect the MForce PowerDrive
to a stepping motor:
Pair Number
(Cable/Pair)
Color Combination
Interface Signal
MForce Wire Crimp
Connection Pin Number
Black
White
Black
White
Phase A
Phase A
Phase B
Phase B
1
2
3
4
1/1
1/2
Table A.2: PD04-MF34-FL3
Drain Wire
Pin 4
Pin 3
Pin 2
Pin 1
Drain Wire
General Specifications
Length: 10 Feet (3.0 Meters)
Conductor: 16 AWG
Twisted Pairs
Shield: 100% Flexfoil
Jacket: PVC
Figure A.13: PD04-MF34-FL3
A-8
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WARRANTY
TWENTY-FOUR (24) MONTH LIMITED WARRANTY
Intelligent Motion Systems, Inc. (“IMS”), warrants only to the purchaser of the Product from IMS (the “Customer”) that the
product purchased from IMS (the “Product”) will be free from defects in materials and workmanship under the normal use
and service for which the Product was designed for a period of 24 months from the date of purchase of the Product by the
Customer. Customer’s exclusive remedy under this Limited Warranty shall be the repair or replacement, at Company’s
sole option, of the Product, or any part of the Product, determined by IMS to be defective. In order to exercise its warranty
rights, Customer must notify Company in accordance with the instructions described under the heading “Obtaining Warranty
Service.”
This Limited Warranty does not extend to any Product damaged by reason of alteration, accident, abuse, neglect or
misuse or improper or inadequate handling; improper or inadequate wiring utilized or installed in connection with the
Product; installation, operation or use of the Product not made in strict accordance with the specifications and written
instructions provided by IMS; use of the Product for any purpose other than those for which it was designed; ordinary
wear and tear; disasters or Acts of God; unauthorized attachments, alterations or modifications to the Product; the misuse
or failure of any item or equipment connected to the Product not supplied by IMS; improper maintenance or repair of the
Product; or any other reason or event not caused by IMS.
IMS HEREBY DISCLAIMS ALL OTHER WARRANTIES, WHETHER WRITTEN OR ORAL, EXPRESS OR IMPLIED BY
LAW OR OTHERWISE, INCLUDING WITHOUT LIMITATION, ANY WARRANTIES OF MERCHANTABILITY OR FITNESS
FOR ANY PARTICULAR PURPOSE. CUSTOMER’S SOLE REMEDY FOR ANY DEFECTIVE PRODUCT WILL BE AS
STATED ABOVE, AND IN NO EVENT WILL THE IMS BE LIABLE FOR INCIDENTAL, CONSEQUENTIAL, SPECIAL OR
INDIRECT DAMAGES IN CONNECTION WITH THE PRODUCT.
This Limited Warranty shall be void if the Customer fails to comply with all of the terms set forth in this Limited Warranty. This
Limited Warranty is the sole warranty offered by IMS with respect to the Product. IMS does not assume any other liability in
connection with the sale of the Product. No representative of IMS is authorized to extend this Limited Warranty or to change
it in any manner whatsoever. No warranty applies to any party other than the original Customer.
IMS and its directors, officers, employees, subsidiaries and affiliates shall not be liable for any damages arising from any
loss of equipment, loss or distortion of data, loss of time, loss or destruction of software or other property, loss of production
or profits, overhead costs, claims of third parties, labor or materials, penalties or liquidated damages or punitive damages,
whatsoever, whether based upon breach of warranty, breach of contract, negligence, strict liability or any other legal theory,
or other losses or expenses incurred by the Customer or any third party.
OBTAINING WARRANTY SERVICE
Warranty service may obtained by a distributor, if the Product was purchased from IMS by a distributor, or by the Customer
directly from IMS, if the Product was purchased directly from IMS. Prior to returning the Product for service, a Returned
which an RMA Authorization Form with RMA number will then be faxed to you. Any questions, contact IMS Customer
Service (860) 295-6102.
Include a copy of the RMA Authorization Form, contact name and address, and any additional notes regarding the Product
failure with shipment. Return Product in its original packaging, or packaged so it is protected against electrostatic discharge
or physical damage in transit. The RMA number MUST appear on the box or packing slip. Send Product to: Intelligent Motion
Systems, Inc., 370 N. Main Street, Marlborough, CT 06447.
Customer shall prepay shipping changes for Products returned to IMS for warranty service and IMS shall pay for return of
Products to Customer by ground transportation. However, Customer shall pay all shipping charges, duties and taxes for
Products returned to IMS from outside the United States.
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intelligent motion systems, INC.
U.S.A. SALES OFFICES
Eastern Region
Phone: 862/208-9742
Fax: 973/661-1275
E-mail: [email protected]
Central Region
Phone: 260/402-6016
Fax: 419/858-0375
E-mail: [email protected]
Western Region
Phone: 602/578-7201
E-mail: [email protected]
370 N. Main St., P.O. Box 457
Marlborough, CT 06447 U.S.A.
Phone: 860/295-6102
Fax: 860/295-6107
E-mail: [email protected]
IMS UK Ltd.
25 Barnes Wallis Road
Segensworth East
Fareham, Hampshire PO15 5TT
Phone: +44/0 1489-889825
Fax: +44/0 1489-889857
IMS EUROPE GmbH
Niedereschacherstrasse.54
78083 Dauchingen Germany
Phone: +49/7720/94138-0
Fax: +49/7720/94138-2
E-mail: [email protected]
TECHNICAL SUPPORT
Phone: 860/295-6102 (U.S.A.)
Fax: 860/295-6107
E-mail: [email protected]
Germany/UK
Phone: +49/7720/94138-0
Fax: +49/7720/94138-2
E-mail: [email protected]
4 Quai Des Etroits
69005 Lyon, France
Phone: +33/4 7256 5113
Fax: +33/4 7838 1537
E-mail: [email protected]
Germany Sales
Phone: +49/35205/4587-8
Fax: +49/35205/4587-9
E-mail: [email protected]
Germany/UK Technical Support
Phone: +49/7720/94138-0
Fax: +49/7720/94138-2
E-mail: [email protected]
IMS ASIA PACIFIC OFFICE
30 Raffles Pl., 23-00 Caltex House
Singapore 048622
Phone: +65/6233/6846
Fax: +65/6233/5044
E-mail: [email protected]
IMS MOTORS DIVISION
105 Copperwood Way, Suite H
Oceanside, CA 92054
Phone: 760/966-3162
Fax: 760/966-3165
E-mail: [email protected]
DISTRIBUTED BY:
© 2006 Intelligent Motion Systems, Inc. All Rights Reserved.
REV R040507
IMS Product Disclaimer and most recent product information at www.imshome.com.
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