 |
CS3M683
CS
8503009090
3 phase
24VDC to 60VDC
40000steps/rev
3.2A to 8.3A
| Quantity: | |
|---|---|
The CS3M683 is a new generation digital 3-phase stepper motor driver, based on a 32-bit DSP processor, combination of the anti-resonance, low noise, micro-step and low temperature rise technology significantly improve the performance of the stepper motor, has low noise, small vibration, low temperature rise and high-speed torque. The driver use online adaptive PID technology, without manual adjustment can be automatically generated optimal parameters for different motors, and achieve the best performance.
Supply voltage range from 24VDC to 60VDC, suitable for driving various 3-phase hybrid stepping motors which phase current below 8.3A. The microstep can be set from full step to 40000steps/rev and the output current can be set form 3.2A to 8.3A; with automatic idle-current reduction, self-test, overvoltage, under-voltage and over-current protection.
● High-performance, low price
● Micro-step
● Automatic idle-current reduction
● Optical isolating signal I/O
● Max response frequency up to 200Kpps
● Low temperature rise, smooth motion
● Online adaptive PID technology
Parameter | Min | Typical | Max | Unit |
Input Voltage(DC) | 20 | - | 60 | VDC |
Output current | 0 | - | 8.3 | A |
Pulse Signal Frequency | 0 | - | 200 | KHZ |
Logic Signal Current | 7 | 10 | 16 | MA |
Peak | RMS | SW1 | SW2 | SW3 |
Default | off | off | off | |
3.2A | 2.3A | on | off | off |
4.0A | 2.9A | off | on | off |
4.9A | 3.5A | on | on | off |
5.7A | 4.1A | off | off | on |
6.4A | 4.6A | on | off | on |
7.3A | 5.2A | off | on | on |
8.3A | 5.9A | on | on | on |
SW4 is used for standstill current setting. OFF meaning that the standstill current is half of the dynamic current; and ON meaning that standstill current is the same as the selected dynamic current. Usually the SW4 is set to OFF, in order to reduce the heat of the motor and driver.
Step/Rev | SW5 | SW6 | SW7 | SW8 |
Default | on | on | on | on |
400 | off | on | on | on |
800 | on | off | on | on |
1600 | off | off | on | on |
3200 | on | on | off | on |
6400 | off | on | off | on |
12800 | on | off | off | on |
25600 | off | off | off | on |
1000 | on | on | on | off |
2000 | off | on | on | off |
4000 | on | off | on | off |
5000 | off | off | on | off |
8000 | on | on | off | off |
10000 | off | on | off | off |
20000 | on | off | off | off |
40000 | off | off | off | off |
Control Signal connector | |
Name | Description |
PUL+ | Pulse signal positive |
PUL- | Pulse signal negative |
DIR+ | Direction signal positive |
DIR- | Direction signal negative |
ENA+ | Enable signal positive, usually left unconnected(enable) |
ENA- | Enable signal negative, usually left unconnected(enable) |
GND | Power supply, +24~+90VAC or 20~60 VAC |
+VDC | |
U | Motor phase U |
V | Motor phase V |
W | Motor phase W |
Hybrid Stepper Motor Driver CS3M683.pdf
One significant advantage of 3-phase stepper motor drivers is their ability to deliver higher torque and power compared to their 2-phase counterparts. The additional phase allows for smoother motion and increased performance, making them suitable for demanding applications.
With a 3-phase stepper motor driver, the current is divided among the three windings, reducing the current density and resulting in less heat generation. This leads to better efficiency and prolonged motor life.
3-phase stepper motor drivers provide more precise microstepping options, resulting in smoother movements and reduced vibration. This feature is particularly beneficial in applications where smooth motion is critical, such as CNC machines and 3D printers.
A 3-phase NEMA 23 stepper motor driver has three windings that correspond to the three phases - A, B, and C. The driver controls the current flowing through these windings, enabling the motor to step accurately.
Microstepping is a technique used by stepper motor drivers to further divide each step into smaller increments. This results in smoother motion and reduces the jerky movements associated with traditional full-stepping methods.
To ensure optimal performance and prevent motor overheating, 3-phase NEMA 23 stepper motor drivers incorporate current regulation. This feature allows the driver to adjust the current flowing through the windings based on the motor's requirements and load conditions.
When selecting a stepper motor driver, it is essential to match its voltage and current ratings with those of the stepper motor. Mismatched ratings can lead to inefficient operation and may even damage the motor or driver.
The step resolution and microstepping capability determine the motor's positional accuracy. Higher microstepping settings offer smoother motion but require more complex driver electronics.
Consider the driver's connectivity options, such as communication interfaces and control signals. Some drivers offer UART, USB, or CAN interfaces for easy integration into complex control systems.
Since 3-phase stepper motor drivers handle higher currents, heat dissipation is crucial for reliable performance. Look for drivers with built-in heat sinks or cooling options to prevent overheating.
Before installation, ensure you have the correct mounting hardware for the driver. Proper mounting prevents vibrations and ensures the driver remains secure during operation.
Follow the manufacturer's guidelines to connect the power supply and motor to the driver. Pay close attention to polarity and ensure all connections are secure.
Most 3-phase NEMA 23 stepper motor drivers allow you to adjust the current limit. Properly setting the current ensures the motor operates at its optimal performance without overheating.
Configure the microstepping settings according to your application's requirements. Higher microstepping settings result in smoother motion but may require more torque.
Stepper motors are prone to resonance, which can lead to erratic movements and decreased performance. Employing techniques like damping and microstepping can help mitigate resonance issues.
Regularly lubricate the motor's moving parts to reduce friction and extend the motor's lifespan. Use lubricants recommended by the motor manufacturer for best results.
Keep the driver clean and free of debris. Regularly inspect the driver and its cooling system to ensure proper functioning. Clean or replace air filters and heat sinks as needed to prevent overheating.
If the motor is not moving, check the wiring and connections between the driver and motor. Verify that the current settings are correct and that the driver is receiving appropriate control signals.
Overheating can cause the motor or driver to malfunction. Check for adequate heat dissipation and proper ventilation around the driver. Reduce the current settings if necessary to lower heat generation.
Erratic movement may result from resonance or incorrect microstepping settings. Apply dampening techniques or reduce the microstepping resolution to eliminate erratic behavior.
When working with 3-phase NEMA 23 stepper motor drivers, follow standard electrical safety precautions. Disconnect power sources before making any adjustments or maintenance.
Handle the driver with care to avoid physical damage. Store the driver in a dry, dust-free environment when not in use to prevent potential issues caused by environmental factors.
3-phase NEMA 23 stepper motors find applications in various industries, including:
● CNC Machines: They provide precise control over tool movements, enabling intricate machining operations.
● Robotics: Stepper motors drive robot joints and arms, offering accurate positioning and motion control.
● 3D Printing: The stepper motors drive the printer's movements, resulting in detailed and accurate prints.
● Textile Machinery: These motors control the movement of weaving and knitting machines for precise fabric creation.
As technology continues to advance, we can expect further improvements in stepper motor technology. Future trends may include:
● Integration of AI: Artificial intelligence may be incorporated into stepper motor drivers to optimize performance and anticipate motion requirements.
● IoT Connectivity: Stepper motors may become IoT-enabled, allowing for remote monitoring and control.
● Energy Efficiency: Stepper motor drivers might become more energy-efficient, reducing power consumption and heat generation.
The main difference lies in the number of phases. A 2-phase stepper motor driver has two windings, while a 3-phase stepper motor driver has three windings. 3-phase drivers offer enhanced torque, reduced heat generation, and smoother motion compared to 2-phase drivers.
It is essential to use the driver compatible with the motor's NEMA size. Different NEMA sizes have different physical dimensions, and using an incompatible driver may result in mechanical and electrical issues.
Yes, 3-phase NEMA 23 stepper motors are capable of handling high-speed applications. However, factors like load, microstepping settings, and driver capabilities should be considered for optimal performance.
Regularly clean the driver and ensure proper ventilation for heat dissipation. Check and adjust the current settings as needed to avoid overheating.
No, the driver and motor must be compatible in terms of phase configuration and electrical characteristics. Using an incompatible driver with a different type of motor may lead to malfunctioning and damage.
Yes, we are manufacturer, and we produce Stepper Motor& Stepper Motor Driver, Switching Power supply, Short Cycle Press Line and other automatic machines.
Before purchasing, please contact us to confirm model No. and drawings to avoid any misunderstanding.
Yes.We can supply OEM&ODM and make customized design for any specific application.
We suggest you ording a sample. And you can also send us email with detailed photos and specifications for checking if you cannot get enough information in the product page.
Except special order.For samples usually 10-14 working days .For batch order .Usually 17-25days. For Stock motors usually 1~2 days.
The CS3M683 is a new generation digital 3-phase stepper motor driver, based on a 32-bit DSP processor, combination of the anti-resonance, low noise, micro-step and low temperature rise technology significantly improve the performance of the stepper motor, has low noise, small vibration, low temperature rise and high-speed torque. The driver use online adaptive PID technology, without manual adjustment can be automatically generated optimal parameters for different motors, and achieve the best performance.
Supply voltage range from 24VDC to 60VDC, suitable for driving various 3-phase hybrid stepping motors which phase current below 8.3A. The microstep can be set from full step to 40000steps/rev and the output current can be set form 3.2A to 8.3A; with automatic idle-current reduction, self-test, overvoltage, under-voltage and over-current protection.
● High-performance, low price
● Micro-step
● Automatic idle-current reduction
● Optical isolating signal I/O
● Max response frequency up to 200Kpps
● Low temperature rise, smooth motion
● Online adaptive PID technology
Parameter | Min | Typical | Max | Unit |
Input Voltage(DC) | 20 | - | 60 | VDC |
Output current | 0 | - | 8.3 | A |
Pulse Signal Frequency | 0 | - | 200 | KHZ |
Logic Signal Current | 7 | 10 | 16 | MA |
Peak | RMS | SW1 | SW2 | SW3 |
Default | off | off | off | |
3.2A | 2.3A | on | off | off |
4.0A | 2.9A | off | on | off |
4.9A | 3.5A | on | on | off |
5.7A | 4.1A | off | off | on |
6.4A | 4.6A | on | off | on |
7.3A | 5.2A | off | on | on |
8.3A | 5.9A | on | on | on |
SW4 is used for standstill current setting. OFF meaning that the standstill current is half of the dynamic current; and ON meaning that standstill current is the same as the selected dynamic current. Usually the SW4 is set to OFF, in order to reduce the heat of the motor and driver.
Step/Rev | SW5 | SW6 | SW7 | SW8 |
Default | on | on | on | on |
400 | off | on | on | on |
800 | on | off | on | on |
1600 | off | off | on | on |
3200 | on | on | off | on |
6400 | off | on | off | on |
12800 | on | off | off | on |
25600 | off | off | off | on |
1000 | on | on | on | off |
2000 | off | on | on | off |
4000 | on | off | on | off |
5000 | off | off | on | off |
8000 | on | on | off | off |
10000 | off | on | off | off |
20000 | on | off | off | off |
40000 | off | off | off | off |
Control Signal connector | |
Name | Description |
PUL+ | Pulse signal positive |
PUL- | Pulse signal negative |
DIR+ | Direction signal positive |
DIR- | Direction signal negative |
ENA+ | Enable signal positive, usually left unconnected(enable) |
ENA- | Enable signal negative, usually left unconnected(enable) |
GND | Power supply, +24~+90VAC or 20~60 VAC |
+VDC | |
U | Motor phase U |
V | Motor phase V |
W | Motor phase W |
Hybrid Stepper Motor Driver CS3M683.pdf
One significant advantage of 3-phase stepper motor drivers is their ability to deliver higher torque and power compared to their 2-phase counterparts. The additional phase allows for smoother motion and increased performance, making them suitable for demanding applications.
With a 3-phase stepper motor driver, the current is divided among the three windings, reducing the current density and resulting in less heat generation. This leads to better efficiency and prolonged motor life.
3-phase stepper motor drivers provide more precise microstepping options, resulting in smoother movements and reduced vibration. This feature is particularly beneficial in applications where smooth motion is critical, such as CNC machines and 3D printers.
A 3-phase NEMA 23 stepper motor driver has three windings that correspond to the three phases - A, B, and C. The driver controls the current flowing through these windings, enabling the motor to step accurately.
Microstepping is a technique used by stepper motor drivers to further divide each step into smaller increments. This results in smoother motion and reduces the jerky movements associated with traditional full-stepping methods.
To ensure optimal performance and prevent motor overheating, 3-phase NEMA 23 stepper motor drivers incorporate current regulation. This feature allows the driver to adjust the current flowing through the windings based on the motor's requirements and load conditions.
When selecting a stepper motor driver, it is essential to match its voltage and current ratings with those of the stepper motor. Mismatched ratings can lead to inefficient operation and may even damage the motor or driver.
The step resolution and microstepping capability determine the motor's positional accuracy. Higher microstepping settings offer smoother motion but require more complex driver electronics.
Consider the driver's connectivity options, such as communication interfaces and control signals. Some drivers offer UART, USB, or CAN interfaces for easy integration into complex control systems.
Since 3-phase stepper motor drivers handle higher currents, heat dissipation is crucial for reliable performance. Look for drivers with built-in heat sinks or cooling options to prevent overheating.
Before installation, ensure you have the correct mounting hardware for the driver. Proper mounting prevents vibrations and ensures the driver remains secure during operation.
Follow the manufacturer's guidelines to connect the power supply and motor to the driver. Pay close attention to polarity and ensure all connections are secure.
Most 3-phase NEMA 23 stepper motor drivers allow you to adjust the current limit. Properly setting the current ensures the motor operates at its optimal performance without overheating.
Configure the microstepping settings according to your application's requirements. Higher microstepping settings result in smoother motion but may require more torque.
Stepper motors are prone to resonance, which can lead to erratic movements and decreased performance. Employing techniques like damping and microstepping can help mitigate resonance issues.
Regularly lubricate the motor's moving parts to reduce friction and extend the motor's lifespan. Use lubricants recommended by the motor manufacturer for best results.
Keep the driver clean and free of debris. Regularly inspect the driver and its cooling system to ensure proper functioning. Clean or replace air filters and heat sinks as needed to prevent overheating.
If the motor is not moving, check the wiring and connections between the driver and motor. Verify that the current settings are correct and that the driver is receiving appropriate control signals.
Overheating can cause the motor or driver to malfunction. Check for adequate heat dissipation and proper ventilation around the driver. Reduce the current settings if necessary to lower heat generation.
Erratic movement may result from resonance or incorrect microstepping settings. Apply dampening techniques or reduce the microstepping resolution to eliminate erratic behavior.
When working with 3-phase NEMA 23 stepper motor drivers, follow standard electrical safety precautions. Disconnect power sources before making any adjustments or maintenance.
Handle the driver with care to avoid physical damage. Store the driver in a dry, dust-free environment when not in use to prevent potential issues caused by environmental factors.
3-phase NEMA 23 stepper motors find applications in various industries, including:
● CNC Machines: They provide precise control over tool movements, enabling intricate machining operations.
● Robotics: Stepper motors drive robot joints and arms, offering accurate positioning and motion control.
● 3D Printing: The stepper motors drive the printer's movements, resulting in detailed and accurate prints.
● Textile Machinery: These motors control the movement of weaving and knitting machines for precise fabric creation.
As technology continues to advance, we can expect further improvements in stepper motor technology. Future trends may include:
● Integration of AI: Artificial intelligence may be incorporated into stepper motor drivers to optimize performance and anticipate motion requirements.
● IoT Connectivity: Stepper motors may become IoT-enabled, allowing for remote monitoring and control.
● Energy Efficiency: Stepper motor drivers might become more energy-efficient, reducing power consumption and heat generation.
The main difference lies in the number of phases. A 2-phase stepper motor driver has two windings, while a 3-phase stepper motor driver has three windings. 3-phase drivers offer enhanced torque, reduced heat generation, and smoother motion compared to 2-phase drivers.
It is essential to use the driver compatible with the motor's NEMA size. Different NEMA sizes have different physical dimensions, and using an incompatible driver may result in mechanical and electrical issues.
Yes, 3-phase NEMA 23 stepper motors are capable of handling high-speed applications. However, factors like load, microstepping settings, and driver capabilities should be considered for optimal performance.
Regularly clean the driver and ensure proper ventilation for heat dissipation. Check and adjust the current settings as needed to avoid overheating.
No, the driver and motor must be compatible in terms of phase configuration and electrical characteristics. Using an incompatible driver with a different type of motor may lead to malfunctioning and damage.
Yes, we are manufacturer, and we produce Stepper Motor& Stepper Motor Driver, Switching Power supply, Short Cycle Press Line and other automatic machines.
Before purchasing, please contact us to confirm model No. and drawings to avoid any misunderstanding.
Yes.We can supply OEM&ODM and make customized design for any specific application.
We suggest you ording a sample. And you can also send us email with detailed photos and specifications for checking if you cannot get enough information in the product page.
Except special order.For samples usually 10-14 working days .For batch order .Usually 17-25days. For Stock motors usually 1~2 days.
