Leadshine DM1182 User manual

User Manual
DM1182
2-Phase Digital Stepper Drive
©2012 China Leadshine Technology Co., Ltd.
Address: 15-20/F, Block B, Nanshan I Valley, No.3185, Shahe West Road,
Nanshan District, Shenzhen, Guangdong, 518055, China
Tel: [phone] Fax: [phone]
Web: www.leadshine.com Sales: [e-mail]
Support: [e-mail]

Contents
I
Table of Contents
1. Introduction, Features and Applications..................................................................... 1
1.1 Introduction....................................................................................................... 1
1.2 Features..............................................................................................................1
1.3 Applications.......................................................................................................1
2. Specifications...............................................................................................................2
2.1 Electrical Specifications....................................................................................2
2.2 Mechanical Specifications.................................................................................2
2.3 Elimination of Heat........................................................................................... 2
2.4 Operating Environment and other Specifications............................................. 3
3. Pin Assignment and Description................................................................................. 3
3.1 Connector P1 Configurations............................................................................3
3.2 Selecting Active Pulse Edge and Control Signal Mode....................................4
3.3 Connector P2 Configurations............................................................................4
4. Control Signal Connector (P1) Interface.....................................................................4
5. Connecting the Motor..................................................................................................5
5.1 Connections to 4-lead Motors........................................................................... 5
5.2 Connections to 6-lead Motors........................................................................... 6
5.2.1 Half Coil Configurations............................................................................... 6
5.2.2 Full Coil Configurations................................................................................6
5.3 Connections to 8-lead Motors........................................................................... 6
5.3.1 Series Connections.........................................................................................6
5.3.2 Parallel Connections...................................................................................... 7
6. Motor Auto-Identification and Parameter Auto Configuration...................................7
7. Power Supply Selection...............................................................................................7
7.1 Selecting Supply Voltage...................................................................................8
8. Configuring Microstep Resolution and Drive Output Current via DIP Swithes........ 8
8.1 Configure Microstep Resolutionn.....................................................................8
8.2 Configure Output Current................................................................................. 9
8.2.1 Soft-start...................................................................................................10

Contents
II
8.3 Configure Stand-still current.......................................................................... 10
9. Wiring Notes..............................................................................................................11
10. Typical Connection..................................................................................................11
11. Sequence Chart of Control Signals......................................................................... 12
12. Protection Functions................................................................................................12
12.1 Over-current Protection................................................................................ 12
12.2 Over-voltage Protection................................................................................13
12.3 Under-voltage Protection..............................................................................13
12.4 Phase Error Protection.................................................................................. 13
12.5 Over temperature Protection.........................................................................13
12.6 Protection Indications................................................................................... 13
13. Frequently Asked Questions....................................................................................14
13.1 Problem Symptoms and Possible Causes......................................................15
APPENDIX................................................................................................................... 15
Twelve Month Limited Warranty.......................................................................... 15
Exclusions..............................................................................................................15
Obtaining Warranty Service.................................................................................. 15
Warranty Limitations.............................................................................................15
Contact Us..................................................................................................................... 17

DM1182 Microstepping1Driver Manual V1.1
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1. Introduction, Features and Applications
1.1 Introduction
The DM1182 is a high voltage, fully digital stepper drive developed with advanced DSP control
algorithm based on the latest motion control technology. It has achieved a unique level of system
smoothness, providing optimal torque and nulls mid-range instability. Its motor
auto-identification and parameter auto-configuration feature offers quick setup to optimal modes
with different motors. Compared with traditional analog drives, DM1182 can drive a stepper
motor at much lower noise, lower heating, and smoother movement. Its unique features make
DM1182 an ideal choice for high requirement applications.
1.2 Features
Anti-Resonance provides optimal torque
and nulls mid-range instability
Motor auto-identification and parameter
auto-configuration technology, offers
optimal responses with different motors
Multi-Stepping allows a low resolution step
input to produce a higher microstep output,
thus offers smoother motor movement
Microstep resolutions programmable, from
full-step to 102,400. It can also be set via
DIP switches.
Soft-start with no “jump” when powered on
Supply voltage up to +150 VAC
Output current programmable, from 0.5A to
8.2A. It can also be set via DIP switches.
Pulse input frequency up to 200 KHz
TTL compatible and optically isolated input
Automatic idle-current reduction
(Reduction rate can be software configured)
Suitable for 2-phase and 4-phase motors
Support PUL/DIR and CW/CCW modes
Over-voltage, Under-voltage, over-current,
phase-error protections
1.3 Applications
DM1182 can drive a wide range of 2-phase stepper motors, from NEMA size 34 to 51. It can be
implemented in various OEM applications such as laser cutters, laser markers, high precision X-Y
tables, labeling machines, CNC router, CNC milling, etc. Its unique features make the DM1182 an
ideal choice for applications that require excellent performance in both low-speed and high speed
movements.

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2. Specifications
2.1 Electrical Specifications (Tj= 25℃/77℉)
Parameters
DM1182
Min
Typical
Max
Unit
Output current
0.5
-
8.2 (5.9 RMS)
A
Supply voltage
80(113)
110(155)
150(212)
VAC(VDC)
Logic signal current
7
10
20
mA
Pulse input frequency
0
-
200
kHz
Isolation resistance
500
MΩ
2.2 Mechanical Specifications (unit: mm [inch], 1 inch = 25.4 mm)
Figure 1: Mechanical specifications
2.3 Elimination of Heat
Dm1182’s working temperature should be < 70˚C (158 ℉), and motor working temperature
should be <80˚C (176℉);
It is recommended to use automatic idle-current mode, which automatically reduces motor
stand-still current to 60%, thus to reduce heating of DM1182 and the driven stepper motor;
Use forced cooling method to cool the system if necessary.

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2.4 Operating Environment and other Specifications
Cooling
Natural Cooling or Forced cooling
Operating Environment
Environment
Avoid dust, oil fog and corrosive gases
Ambient Temperature
0－50℃(32℉ － 122℉)
Humidity
40%RH －90%RH
Operating Temperature
70˚C (158℉) Max
Vibration
5.9m/s2Max
Storage Temperature
-20 －65℃(-4℉ － 149℉)
Weight
Approx. 1000g (35oz)
3. Pin Assignment and Description
DM1182 can accept differential and single-ended input signals (including open-collector and PNP
output). DM1182 has two connectors, connector P1 for control signals connections, and connector P2
for power and motor connections. The following tables are brief descriptions for the two connectors.
More detailed descriptions of the pins and related issues are presented in section 4, 5, 10.
3.1 Connector P1 Configurations
Pin Function
Details
PUL+
Pulse signal: In single pulse (pulse/direction) mode, this input represents pulse
signal, each rising or falling edge active (software configurable); 4-5V when
PUL-HIGH, 0-0.5V when PUL-LOW. In double pulse mode (pulse/pulse), this
input represents clockwise (CW) pulse，active both at high level and low level
(software configurable). For reliable response, pulse width should be longer
than 2.5μs. Series connect resistors for current-limiting when +12V or +24V
used. It is same as DIR and ENA signals.
PUL-
DIR+
DIR signal: In single-pulse mode, this signal has low/high voltage levels,
representing two directions of motor rotation; in double-pulse mode (software
configurable), this signal is counter-clock (CCW) pulse ，active both at high
level and low level (software configurable). For reliable motion response, DIR
signal should be ahead of PUL signal by 5μs at least. 4-5V when DIR-HIGH,
0-0.5V when DIR-LOW. Please note that rotation direction is also related to
motor-drive wiring match. Exchanging the connection of two wires for a coil
to the drive will reverse motion direction.
DIR-

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ENA+
Enable signal: these two signals is used for enabling/disabling the drive. High
level (NPN control signal, PNP and Differential control signals are on the
contrary, namely Low level for enabling.) is used for enabling the drive, and
low level is used for disabling the drive. Usually leave these two pins
UNCONNECTED to keep the drive enabled. When starting DM1182 through
these two pins, delay at least 100ms before sending PUL signals to DM1182,
due to the soft-start feature of DM1182.
ENA-
FAULT+
Fault Signal: fault output signals. Impedance will be high between FAULT+
and FAULT- during normal operation; and low when protection is activated
because of over-voltage, under-voltage, over-current, phase error protection,
and over-temperature. MAX: 30VDC/ 20mA.
FAULT-
3.2 Selecting Active Pulse Edge and Control Signal Mode
DM1182 supports PUL/DIR and CW/CCW modes and pulse actives at rising or falling edge. Default
setting is PUL/DIR mode and rising edge active (NPN, and PNP control signal is on the contrary).
3.3 Connector P2 Configurations
Pin Function
Details
PE
Recommend connect this port to the ground for better safety.
AC
AC power supply inputs. If AC input, recommend use isolation
transformers with theoretical output voltage of 80~150VAC. DC input
range is 113~212VDC
AC
A+, A-
Motor Phase A
B+, B-
Motor Phase B
4. Control Signal Connector (P1) Interface
DM1182 can accept differential and single-ended inputs (including open-collector and PNP output).
DM1182 has 3 optically isolated logic inputs which are located on connector P1 to accept line driver
control signals. These inputs are isolated to minimize or eliminate electrical noises coupled onto the
drive control signals. Recommend use line driver control signals to increase noise immunity of the
drive in interference environments. In the following figures, connections to open-collector and PNP

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signals are illustrated.
Figure 2: Connections to open-collector signal (common-anode)
Figure 3: Connection to PNP signal (common-cathode)
5. Connecting the Motor
DM1182 can drive any 2-pahse and 4-pahse hybrid stepper motors.
5.1 Connections to 4-lead Motors
4 lead motors are the least flexible but easiest to wire. Speed and torque will depend on winding
inductance. When setting the drive output current, multiply the specified phase current by 1.4 to
determine the peak output current.
Figure 4: 4-lead Motor Connections

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5.2 Connections to 6-lead Motors
Like 8 lead stepper 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.
5.2.1 Half Coil Configurations
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 motor,
the torque output will be more stable at higher speeds. This configuration is also referred to as
half chopper. In setting the drive output current multiply the specified per phase (or unipolar)
current rating by 1.4 to determine the peak output current.
Figure 5: 6-lead motor half coil (higher speed) connections
5.2.2 Full Coil Configurations
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. In full coil mode,
the motors should be run at only 70% of their rated current to prevent over heating.
Figure 6: 6-lead motor full coil (higher torque) connections
5.3 Connections to 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.
5.3.1 Series Connections
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

DM1182 Digital Stepper Drive Manual V1.1
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start to degrade at higher speeds. In series mode, the motors should also be run at only 70% of
their rated current to prevent over heating.
Figure 7: 8-lead motor series connections
5.3.2 Parallel Connections
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.
Figure 8: 8-lead motor parallel connections
NEVER disconnect or connect the motor while the power source is energized.
6. Motor Auto-Identification and Parameter Auto Configuration
A user can use the Motor auto-identification and parameter auto-configuration feature of
DM1182 to get optimal performance from a driven stepper motor.Just changes SW4 “ON/OFF”
modes two times (on->off->on, or off->on->off) in 1 second. After that, a DM1182 stepper drive will
automatically identify the driven motor and configure related control parameters for optimum
responses. Leadshine highly recommends all DM1182 users to use this feature to save configuration
time and improve your system performance.
7. Power Supply Selection
DM1182 can match large and medium size stepper motors (from NEMA size 34 to 51) made by
Leadshine or other motor manufactures around the world. To achieve good driving performances, it is
important to select supply voltage and output current properly. Generally speaking, supply voltage
determines the high speed performance of the motor, while output current determines the output

DM1182 Digital Stepper Drive Manual V1.1
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torque of the driven motor (particularly at lower speed).
Attention: For safety and to improve reliability, it is recommended to use isolation transformer
instead of directly use network source to supply the DM1182. Recommend use isolation transformers
with theoretical output voltage of 80 ～150VAC or 113 ～212VDC, leaving room for power
fluctuation and back-EMF. And the power of the isolation transformer should larger than 500 watts.
7.1 Selecting Supply Voltage
Working input voltage range of DM1182 is 80 to 150VAC or 113 to 212VDC. That should also
count power input fluctuation and back EMF voltage generated by motor coils during motor shaft
deceleration. Higher supply voltage can increase motor torque at higher speeds, thus helpful for
avoiding losing steps. However, higher voltage may cause bigger motor vibration at lower speed. It
may also cause over-voltage protection or even drive damage. Therefore, it is recommended to
choose only sufficiently high supply voltage for intended applications. It is preferable to use power
supplies with theoretical output voltage of 80 ～130VAC or 113～183VDC, and leave room for
power fluctuation and back-EMF. If the motion speed requirement is low, it’s better to use lower
supply voltage to decrease noise, heating and improve reliability.
8. Configuring Microstep Resolution, Output Current, and Stand-Still
Current via DIP Switches
There are 8 DIP switches on DM1182 used to configure output current, microstep resolution, and
stand-still current. Switches 1, 2, 3 are for configuring output current settings; switch 4 is for
configuring stand still current setting; switch 5, 6, 7, and 8 are for configuring microstep resolutions.
Figure 9: DIP Switches for DM1182
8.1 Configure Microstep Resolution
Microstep resolution is configured via DIP Switch 5, 6, 7, 8 (see figure 9). Their settings are shown in
the following table:

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Microstep
Steps/rev.(for 1.8°motor)
SW5
SW6
SW7
SW8
1 to 512
Default/Software configured
ON
ON
ON
ON
1
200
(when not configured with software)
ON
ON
ON
ON
2
400
OFF
ON
ON
ON
4
800
ON
OFF
ON
ON
8
1600
OFF
OFF
ON
ON
16
3200
ON
ON
OFF
ON
32
6400
OFF
ON
OFF
ON
64
12800
ON
OFF
OFF
ON
128
25600
OFF
OFF
OFF
ON
5
1000
ON
ON
ON
OFF
10
2000
OFF
ON
ON
OFF
20
4000
ON
OFF
ON
OFF
25
5000
OFF
OFF
ON
OFF
40
8000
ON
ON
OFF
OFF
50
10000
OFF
ON
OFF
OFF
100
20000
ON
OFF
OFF
OFF
125
25000
OFF
OFF
OFF
OFF
8.2 Configure Output Current
Output current of DM1182 is configured via DIP Switch 1, 2, and 3 (See figure 9). DM1182 output
current settings are shown in the following table:
Peak Current
RMS Current
SW1
SW2
SW3
Default/Software configured (0.5 to 8.2A)
OFF
OFF
OFF
2.2A
1.6A
ON
OFF
OFF
3.2A
2.3A
OFF
ON
OFF
4.2A
3.2A
ON
ON
OFF
5.2A
3.7A
OFF
OFF
ON
6.3A
4.4A
ON
OFF
ON

DM1182 Digital Stepper Drive Manual V1.1
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7.2A
5.2A
OFF
ON
ON
8.2A
5.9A
ON
ON
ON
Note: Due to motor inductance, the actual current in the coil may be smaller than the dynamic current setting,
particularly under high speed condition.
To get the maximum torque from a driven stepper motor, theoretically, a user should choose the
DM1182 output RMS current setting closest to the rated phase current of the stepper motor. Higher
output current from DM1182 will result higher torque from the driven motor; but at the same time, it
also results more heating in both the motor and drive. Therefore, a user is recommended to set output
current to a value which will provide enough torque for an application, but not overheat the drive &
motor for long time operation either. Since parallel and serial connections of motor coils will
significantly cause changes in inductance and resistance, a user should set drive output current based
on motor phase current, motor leads and connection methods. Phase current rating supplied by motor
manufacturer is important in selecting drive output current. However, the selection also depends on
number of motor leads and connection type.
8.2.1 Soft- Start
When powered up or reset by ENA signals, DM1182 gradually increases the motor coil current
until it reaches to the configured value. This will eliminate the sudden motor move, or ‘jump”.
The whole process will take about 100ms. Therefore, make sure that your motion controller will
not send any pulse input to DM1182 in 100ms, after DM1182 is powered up or reset. Otherwise,
the motor would lose step or be stalled.
8.3 Configure Stand-still current setting
SW4 (see figure 9) is used for configuring stand-still current. When DIP switch 4 (SW4) is set to OFF
position, it means that the stand-still current will be automatically reduced to 60% of the configured
output current. Stand-still current will take effective two seconds after the last pulse DM1182
receives. This will reduce motor heating up to 36% (P=I2*R) of the motor heating in working mode.
When DIP switch 4 (SW4) is set to ON position, it means that stand-still current is set to be the same
as the selected dynamic current (full current).
*Note: output microstep resolution, output current, and stand-still current reduction percentage and
effective time can be also configured from PC tuning software, ProTuner. Contact your distributor or
Leadshine for ProTuber software information.

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9. Wiring Notes
In order to improve anti-interference performance of the driver, it is recommended to use
twisted pair shield cable.
To prevent noise incurred in PUL/DIR signal, pulse/direction signal wires and motor wires
should not be tied up together. It is recommended to keep at least 10 centimeter distance (or 4
inches) for those wires. Otherwise, the disturbing signals generated by motor could disturb
pulse direction signals, causing motor position error, system instability and other failures.
When sharing a single power supply among multiple DM1182 stepper drives, separately
connecting those stepper drives is recommended instead of daisy-chaining.
It is prohibited to pull and plug connector P2 while the driver is powered ON, because there is
high current flowing through motor coils (even when motor is at standstill). Pulling or plugging
connector P2 with power on will cause extremely high back-EMF voltage surge, which may
damage the drive.
10. Typical Connection
A complete stepper system should include stepper motor, stepper drive, power supply and controller
(pulse generator). A typical connection is shown as figure 9.
DM1182 Drive
DIR+
Controller
VCC
PUL-
80 ~ 150 VAC
L
N
A+
A-
B+
270O
270O
270O
PUL+
ENA-
R=0 if VCC=5V;
R=1K(Power>0.125W) if VCC=12V;
R=2K(Power>0.125W) if VCC=24V;
R must be connected to control signal terminal .
R
R
R
PUL
DIR
ENABLE
B-
DIR-
ENA+
FAULT-
FAULT+
PE
FAULT
Stepper
Motor
~ AC Input
Figure 9: Typical connection

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11. Sequence Chart of Control Signals
In order to avoid some fault operations and deviations, PUL, DIR and ENA should abide by some
rules, shown as following diagram:
Figure 10: Sequence chart of control signals
Remark:
a) t1: ENA must be ahead of DIR by at least 100ms due to soft-start feature of DM1182.
Usually, ENA+ and ENA- are NC (not connected). See “Connector P1 Configurations”
for more information.
b) t2: DIR must be ahead of PUL active edge by 5s to ensure correct direction;
c) t3: Pulse width not less than 2.5s;
d) t4: Low level width not less than 2.5s.
12. Protection Functions
To improve reliability, DM1182 incorporates some built-in protection functions. There are two LED
lights built-in with DM1182. The green LED light indicates DM1182 works properly. The red LED
light indicates what protection has been activated. How many times the red light flashes in a
3-second period tells what protection has been activated. Because only one protection message can
be displayed by the red LED light, what error to indicate is determined by DM1182’s protection
priorities. See the following Protection Indications table for displaying priorities.
12.1 Over-current Protection
When continuous current exceeds the limit or in case of short circuit between motor coils or between
motor coil and ground, over-current protection will be activated. The red LED light will flash once in
a 3-second period.

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12.2 Over-voltage Protection
When power supply voltage exceeds 200±1 VAC, over-voltage protection will be activated. The red
LED light will flash twice once in a 3-second period.
12.3 Under-voltage Protection
When power supply voltage is under 63±1 VAC, under-voltage protection will be activated. The red
LED will flash three times once in a 3-second period.
12.4 Phase Error Protection
When motor power lines are not connected or connected wrong, phase error protection will activated
and the red LED light will flash four times in a 3-second period.
12.5 Over temperature Protection
When a DM1182 drive’s temperature reaches to 75℃(167˚F), over temperature protection will be
activated. The red LED light will flash five times in a 3-second period.
Attention: When above protections are active, the motor shaft will be free or the red LED will be
turned on. Reset DM1182 to make it function properly by repowering and removing a protection or
protections. Since there is no protection against power leads (﹢,﹣) reversal, it is critical to make
sure that power supply leads are correctly connected to driver. Otherwise, the driver will be
permanently damaged.
12.6 Protection Indications
Priority
Time(s) of ON
Sequence wave of RED LED
Description
1st
1
Over-current protection
2nd
2
Over-voltage protection
3rd
3
Under-voltage protection
4th
4
Phase error protection
5h
5
Over-temperature protection

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13. Frequently Asked Questions
In the event that a DM1182 stepper drive doesn’t work properly, the first step is to identify whether
the problem is electrical or mechanical in nature. Next, a user should isolate the control system
components with a problem. As part of this process, a user needs to disconnect all the individual
components that make up your system, and diagnose which one is causing the malfunction. It is
important to document each step in a troubleshooting process. You may need the documentation to
refer late. Also, if you will need assistance from Leadshine, these details will help our technical
support staffs in the process of determining the cause of the symptom.
Many of the problems that affect motion control systems can be traced to electrical noise, controller
software errors, or mistake in wiring. For problems listed in the following table, they can be easily
identified and solved.

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Problem Symptoms and Possible Causes
Symptoms
Possible Problems
Motor is not rotating
No power
Microstep resolution setting is wrong
DIP switch current setting is wrong
Fault condition exists
The driver is disabled
Motor rotates in the wrong direction
Motor phases may be connected in reverse
The driver in fault
DIP switch current setting is wrong
Something wrong with motor coil
Erratic motor motion
Control signal is too weak
Control signal is interfered
Wrong motor connection
Something wrong with motor coil
Current setting is too small, losing steps
Motor stalls during acceleration
Current setting is too small
Motor is undersized for the application
Acceleration is set too quick
Power supply voltage is too low
Excessive motor and driver heating
Inadequate heat sinking / cooling
Automatic current reduction function is not set
Current is set too high

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APPENDIX
Twelve Month Limited Warranty
Leadshine Technology Co., Ltd. generally offers 12-month (except special cases) warranty for defects
of materials and workmanship, from the delivered date. During the warranty period, Leadshine will
either, at its option, repair or replace products proved to be defective.
Exclusions
The above warranty does not extend to any product damaged by reasons of improper or inadequate
handlings by a customer, improper or inadequate wirings, unauthorized modification or misuse, or
operation beyond the electrical specifications of a product, and/or operation beyond environmental
specifications for a product.
Obtaining Warranty Service
To obtain warranty service, a returned material authorization number (RMA) must be obtained from
customer service at e-mail: [e-mail] before returning product for service. Customer shall
prepay shipping charges for products returned to Leadshine for warranty service, and Leadshine shall
pay for return of products to customer.
Warranty Limitations
Leadshine makes no other warranty, either expressed or implied, with respect to the product.
Leadshine specifically disclaims the implied warranties of merchantability and fitness for a particular
purpose. Some jurisdictions do not allow limitations on how long and implied warranty lasts, so the
above limitation or exclusion may not apply to you. However, any implied warranty of
merchantability or fitness is limited to the 12-month duration of this written warranty.
Shipping Failed Product
If your product fail during the warranty period, e-mail customer service at [e-mail] to
obtain a returned material authorization number (RMA) before returning product for service. Please
include a written description of the problem along with contact name and address. Send failed
product along with information regarding the circumstances prior to product failure to:
A distributor in your area.
Email [email protected] to find the distributor in your area.
Leadshine America, Inc.

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Send to the following address for North America clients only
Leadshine America, Inc.
25 Mauchly, Suite 318
Irvine, CA 92618
USA
Leadshine headquarters
Leadshine Technology Co.
Ltd. 3/F, Block 2
Nanyou Tianan Industrial Park
Nanshan District Shenzhen
Guangdong Province, China