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NEMA 14 Stepper Motor （inch）35x35 MM Series two-phase (four-phase ) stepper motor is a type of brushless DC motor known for its precise control of angular movements. The "NEMA" designation refers to the standard set by the National Electrical Manufacturers Association, which defines the motor's dimensions and mounting configurations. The number "14" specifies the motor size, indicating that the faceplate measures 1.4 inches in length.
35H
CS
8501109990
35mm
2 or 4 phase
0.4A~1.0A
0.5kg.cm~1.4kg.cm
20mm~36mm
| Quantity: | |
|---|---|
We're the professional hybrid stepper motor manufacturer. The NEMA 14 stepper motor is part of the National Electrical Manufacturers Association (NEMA) standard, which defines the dimensions and specifications of various motors. The "14" in NEMA 14 represents the mounting face's size, indicating that it measures 1.4 inches square (35mm). This compact size makes the NEMA 14 stepper motor ideal for applications with limited space, such as small robotic arms, camera gimbals, and medical devices.
Small size NEMA 14 Stepper Motor 35mm hybrid stepper motor
Model: NEMA14, 35H
Phase: 2phase or 4 phase
Stepper Angle: 200 steps per revolution (1.8 deg/step)1.8º
Low Current
High Holding Torque
Lead wire no.: 4 or 6 wires
Speed: low or high speed
Shape: Square
Some of the main features of a NEMA 14 stepper motor include:
● High torque-to-size ratio
● Accurate positioning and repeatability
● Low power consumption
● Smooth and quiet operation
● Easy to control and program
● Available in a range of step angles and holding torques
Step Angle----------------------------- 1.8°±5%
Temperature Rise-------------------------- 80℃ Max.
Insulation Resistant-------- 100MΩ Min.,500VDC
Dielectric Strength-------- 500VAC for one minute
Ambient Temperature ---------- —20℃~+50℃
Shaft Radial Play------------------------------- 0.02Max.(450 g-load)
Model No. | Rated Voltage | Current | Inductance | Resistance | Holding Torque | Weight | No.of leads | Rotor Inertia | Length | ||
Signal shaft | Double Shaft | V | A | mh | Ω | Oz-in | Kg-cm | kg | g-cm2 | mm | |
CS35H20-0404A | CS35H20-0404B | 10 | 0.4 | 18.5 | 25 | 7 | 0.5 | 0.1 | 4 | 8 | 20 |
CS35H26-0804A | CS35H26-0804B | 3.8 | 0.8 | 4.3 | 4.8 | 11 | 0.8 | 0.12 | 4 | 10 | 26 |
CS35H28-0754A | CS35H28-0754B | 3.2 | 0.75 | 4.3 | 4.3 | 11 | 0.8 | 0.14 | 4 | 10 | 28 |
CS35H28-0504A | CS35H28-0504B | 10 | 0.5 | 18 | 20 | 14 | 1 | 0.14 | 4 | 10 | 28 |
CS35H34-0406A | CS35H34-0406B | 10 | 0.4 | 16 | 25 | 17 | 1.2 | 0.17 | 6 | 14 | 34 |
CS35H36-1004A | CS35H36-1004B | 2.7 | 1.0 | 2.7 | 4.3 | 19 | 1.4 | 0.18 | 4 | 14 | 36 |
NEMA 14 Stepper Motor Wire Colors can be customized
The stepper motors can be customized according to the customers' requirements.
● Motor Shaft
● Cable
● Connector
● Encoder
● Brake
● Gearbox
NEMA 14 Hybrid Stepper Motor.pdf
Unlike traditional motors that rely on continuous rotation, a NEMA 14 stepper motor moves in discrete steps. Each step corresponds to a fixed angle, typically 1.8 degrees for full-step mode. The rotation of the motor shaft is controlled by energizing specific coils in a precise sequence. This magnetic field interaction generates the necessary torque to move the motor shaft from one step to another.
There are two main types of NEMA 14 stepper motors:
The unipolar stepper motor is easier to control and commonly used in applications that do not require high torque. It has two windings per phase, with a center tap for each winding. This configuration allows for energizing one phase at a time, making it simpler to drive.
The bipolar stepper motor is more versatile and powerful than the unipolar type. It has a single winding per phase and requires an H-bridge circuit to reverse the current flow and change the magnetic polarity. This results in better torque and performance, especially at higher speeds.
NEMA 14 stepper motors offer exceptional positioning accuracy, making them ideal for applications that demand precise and repeatable movements.
With its small form factor, the NEMA 14 motor can fit into tight spaces without compromising on performance. This feature makes it an excellent choice for applications where size is a crucial factor.
One of the significant advantages of NEMA 14 stepper motors is their open-loop control. They do not require feedback devices like encoders, simplifying the control system and reducing costs.
Stepper motors deliver substantial torque at low speeds, ensuring stability and control during slow movements, which is critical in many applications.
Since the power is applied only when needed for each step, NEMA 14 stepper motors are energy-efficient, especially at idle or holding positions.
NEMA 14 stepper motors find applications in various industries due to their versatility and precision. Some common applications include:
In 3D printing, NEMA 14 stepper motors are used to control the movement of the printer's extruder and build platform, enabling precise layer-by-layer deposition.
In Computer Numerical Control (CNC) machines, NEMA 14 stepper motors are utilized for controlling the motion of the cutting tools, ensuring accurate and controlled machining operations.
NEMA 14 stepper motors are employed in camera systems for precise panning, tilting, and focusing of the camera lens, allowing photographers and filmmakers to capture stunning shots.
In robotics, NEMA 14 stepper motors serve as actuators for various joints, enabling robots to move with precision and perform complex tasks.
In medical equipment, where space is limited, the NEMA 14 motor provides the necessary motion control.
Choosing the appropriate NEMA 14 stepper motor requires consideration of various factors. Here are some essential steps to guide your selection process:
Understand the specific requirements of your project, including torque, speed, and precision needed.
Decide whether you need a bipolar or unipolar motor based on your control preferences and torque requirements.
Ensure that the motor's voltage and current ratings match your power supply and driver specifications.
Consider the shaft type (single or double), diameter, and length that will best suit your mechanical setup.
Verify the holding torque to ensure it meets your application's demands, especially if the motor needs to maintain position against external forces.
Microstepping capability can improve motor resolution and reduce vibration, so evaluate if it's necessary for your application.
Once you've selected the right NEMA 14 stepper motor, the next step is to install and wire it properly. Follow these general guidelines for a successful setup:
Review the motor's datasheet and documentation for specific installation instructions and wiring diagrams.
Pair the NEMA 14 motor with a suitable stepper motor driver and controller for optimal performance.
Adhere to the manufacturer's guidelines for wiring the motor to avoid damage or malfunction.
After installation, test the motor and calibrate its movement using appropriate control software.
Driving a NEMA 14 stepper motor requires appropriate control circuitry. Two common methods are:
Driver ICs (Integrated Circuits) are commonly used to control stepper motors. They provide step and direction inputs and handle the necessary current switching.
For hobbyists and small-scale projects, Arduino microcontrollers can be used to drive NEMA 14 stepper motors. The process involves connecting the motor to the Arduino and programming the controller to generate the required step sequence.
To ensure optimal performance and longevity of your NEMA 14 stepper motor, consider the following tips:
Stepper motors are susceptible to resonance, which can lead to erratic movements and reduced performance. Use appropriate dampening techniques or microstepping to minimize resonance effects.
If the motor operates continuously at high torque, it may generate heat. Ensure adequate cooling and heat dissipation to prevent overheating and potential damage.
Perform regular maintenance, such as cleaning, lubrication, and checking for loose connections, to keep the motor in top condition and extend its lifespan.
Even with proper maintenance, NEMA 14 stepper motors may encounter issues. Here are some common problems and their solutions:
Reduce the load or current supplied to the motor to prevent overheating. If necessary, improve the motor's cooling mechanism.
Vibration and noise can result from resonance or mechanical issues. Check for loose connections or worn-out components and ensure proper dampening.
Ensure that the motor's driver circuitry is functioning correctly and that there are no loose connections or damaged cables.
Check the wiring connections and verify that they match the motor's specifications and the driver circuitry requirements.
While the NEMA 14 stepper motor has its unique advantages, it's essential to compare it with other stepper motor types to make an informed choice:
NEMA 17 motors are larger and generally provide higher torque, but they are not as compact as NEMA 14 motors. If space is limited, the NEMA 14 motor might be a more suitable option.
NEMA 23 motors are more powerful and can handle heavier loads, but they are bulkier than NEMA 14 motors. If you require a smaller motor with sufficient torque, the NEMA 14 is worth considering.
Servo motors offer higher accuracy and faster response times, but they are also more expensive. NEMA 14 motors provide a cost-effective solution for applications that don't demand extreme precision.
As technology advances, NEMA 14 stepper motors are expected to become even more efficient, compact, and cost-effective. They will continue to play a significant role in various industries, especially where precision motion control is essential.
Yes, NEMA 14 stepper motors are commonly used in 3D printers for controlling the extruder and build platform movements.
The NEMA 14 designation refers to the motor's size, with the faceplate measuring 1.4 inches in length.
Yes, the speed of a NEMA 14 stepper motor can be controlled by adjusting the step rate and the driving voltage.
No, NEMA 14 stepper motors operate in an open-loop control system and do not require feedback devices like encoders.
Unipolar stepper motors are easier to control but offer lower torque, while bipolar stepper motors are more powerful and versatile, providing higher torque at higher speeds.
Yes, we are facotry, 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.
We're the professional hybrid stepper motor manufacturer. The NEMA 14 stepper motor is part of the National Electrical Manufacturers Association (NEMA) standard, which defines the dimensions and specifications of various motors. The "14" in NEMA 14 represents the mounting face's size, indicating that it measures 1.4 inches square (35mm). This compact size makes the NEMA 14 stepper motor ideal for applications with limited space, such as small robotic arms, camera gimbals, and medical devices.
Small size NEMA 14 Stepper Motor 35mm hybrid stepper motor
Model: NEMA14, 35H
Phase: 2phase or 4 phase
Stepper Angle: 200 steps per revolution (1.8 deg/step)1.8º
Low Current
High Holding Torque
Lead wire no.: 4 or 6 wires
Speed: low or high speed
Shape: Square
Some of the main features of a NEMA 14 stepper motor include:
● High torque-to-size ratio
● Accurate positioning and repeatability
● Low power consumption
● Smooth and quiet operation
● Easy to control and program
● Available in a range of step angles and holding torques
Step Angle----------------------------- 1.8°±5%
Temperature Rise-------------------------- 80℃ Max.
Insulation Resistant-------- 100MΩ Min.,500VDC
Dielectric Strength-------- 500VAC for one minute
Ambient Temperature ---------- —20℃~+50℃
Shaft Radial Play------------------------------- 0.02Max.(450 g-load)
Model No. | Rated Voltage | Current | Inductance | Resistance | Holding Torque | Weight | No.of leads | Rotor Inertia | Length | ||
Signal shaft | Double Shaft | V | A | mh | Ω | Oz-in | Kg-cm | kg | g-cm2 | mm | |
CS35H20-0404A | CS35H20-0404B | 10 | 0.4 | 18.5 | 25 | 7 | 0.5 | 0.1 | 4 | 8 | 20 |
CS35H26-0804A | CS35H26-0804B | 3.8 | 0.8 | 4.3 | 4.8 | 11 | 0.8 | 0.12 | 4 | 10 | 26 |
CS35H28-0754A | CS35H28-0754B | 3.2 | 0.75 | 4.3 | 4.3 | 11 | 0.8 | 0.14 | 4 | 10 | 28 |
CS35H28-0504A | CS35H28-0504B | 10 | 0.5 | 18 | 20 | 14 | 1 | 0.14 | 4 | 10 | 28 |
CS35H34-0406A | CS35H34-0406B | 10 | 0.4 | 16 | 25 | 17 | 1.2 | 0.17 | 6 | 14 | 34 |
CS35H36-1004A | CS35H36-1004B | 2.7 | 1.0 | 2.7 | 4.3 | 19 | 1.4 | 0.18 | 4 | 14 | 36 |
NEMA 14 Stepper Motor Wire Colors can be customized
The stepper motors can be customized according to the customers' requirements.
● Motor Shaft
● Cable
● Connector
● Encoder
● Brake
● Gearbox
NEMA 14 Hybrid Stepper Motor.pdf
Unlike traditional motors that rely on continuous rotation, a NEMA 14 stepper motor moves in discrete steps. Each step corresponds to a fixed angle, typically 1.8 degrees for full-step mode. The rotation of the motor shaft is controlled by energizing specific coils in a precise sequence. This magnetic field interaction generates the necessary torque to move the motor shaft from one step to another.
There are two main types of NEMA 14 stepper motors:
The unipolar stepper motor is easier to control and commonly used in applications that do not require high torque. It has two windings per phase, with a center tap for each winding. This configuration allows for energizing one phase at a time, making it simpler to drive.
The bipolar stepper motor is more versatile and powerful than the unipolar type. It has a single winding per phase and requires an H-bridge circuit to reverse the current flow and change the magnetic polarity. This results in better torque and performance, especially at higher speeds.
NEMA 14 stepper motors offer exceptional positioning accuracy, making them ideal for applications that demand precise and repeatable movements.
With its small form factor, the NEMA 14 motor can fit into tight spaces without compromising on performance. This feature makes it an excellent choice for applications where size is a crucial factor.
One of the significant advantages of NEMA 14 stepper motors is their open-loop control. They do not require feedback devices like encoders, simplifying the control system and reducing costs.
Stepper motors deliver substantial torque at low speeds, ensuring stability and control during slow movements, which is critical in many applications.
Since the power is applied only when needed for each step, NEMA 14 stepper motors are energy-efficient, especially at idle or holding positions.
NEMA 14 stepper motors find applications in various industries due to their versatility and precision. Some common applications include:
In 3D printing, NEMA 14 stepper motors are used to control the movement of the printer's extruder and build platform, enabling precise layer-by-layer deposition.
In Computer Numerical Control (CNC) machines, NEMA 14 stepper motors are utilized for controlling the motion of the cutting tools, ensuring accurate and controlled machining operations.
NEMA 14 stepper motors are employed in camera systems for precise panning, tilting, and focusing of the camera lens, allowing photographers and filmmakers to capture stunning shots.
In robotics, NEMA 14 stepper motors serve as actuators for various joints, enabling robots to move with precision and perform complex tasks.
In medical equipment, where space is limited, the NEMA 14 motor provides the necessary motion control.
Choosing the appropriate NEMA 14 stepper motor requires consideration of various factors. Here are some essential steps to guide your selection process:
Understand the specific requirements of your project, including torque, speed, and precision needed.
Decide whether you need a bipolar or unipolar motor based on your control preferences and torque requirements.
Ensure that the motor's voltage and current ratings match your power supply and driver specifications.
Consider the shaft type (single or double), diameter, and length that will best suit your mechanical setup.
Verify the holding torque to ensure it meets your application's demands, especially if the motor needs to maintain position against external forces.
Microstepping capability can improve motor resolution and reduce vibration, so evaluate if it's necessary for your application.
Once you've selected the right NEMA 14 stepper motor, the next step is to install and wire it properly. Follow these general guidelines for a successful setup:
Review the motor's datasheet and documentation for specific installation instructions and wiring diagrams.
Pair the NEMA 14 motor with a suitable stepper motor driver and controller for optimal performance.
Adhere to the manufacturer's guidelines for wiring the motor to avoid damage or malfunction.
After installation, test the motor and calibrate its movement using appropriate control software.
Driving a NEMA 14 stepper motor requires appropriate control circuitry. Two common methods are:
Driver ICs (Integrated Circuits) are commonly used to control stepper motors. They provide step and direction inputs and handle the necessary current switching.
For hobbyists and small-scale projects, Arduino microcontrollers can be used to drive NEMA 14 stepper motors. The process involves connecting the motor to the Arduino and programming the controller to generate the required step sequence.
To ensure optimal performance and longevity of your NEMA 14 stepper motor, consider the following tips:
Stepper motors are susceptible to resonance, which can lead to erratic movements and reduced performance. Use appropriate dampening techniques or microstepping to minimize resonance effects.
If the motor operates continuously at high torque, it may generate heat. Ensure adequate cooling and heat dissipation to prevent overheating and potential damage.
Perform regular maintenance, such as cleaning, lubrication, and checking for loose connections, to keep the motor in top condition and extend its lifespan.
Even with proper maintenance, NEMA 14 stepper motors may encounter issues. Here are some common problems and their solutions:
Reduce the load or current supplied to the motor to prevent overheating. If necessary, improve the motor's cooling mechanism.
Vibration and noise can result from resonance or mechanical issues. Check for loose connections or worn-out components and ensure proper dampening.
Ensure that the motor's driver circuitry is functioning correctly and that there are no loose connections or damaged cables.
Check the wiring connections and verify that they match the motor's specifications and the driver circuitry requirements.
While the NEMA 14 stepper motor has its unique advantages, it's essential to compare it with other stepper motor types to make an informed choice:
NEMA 17 motors are larger and generally provide higher torque, but they are not as compact as NEMA 14 motors. If space is limited, the NEMA 14 motor might be a more suitable option.
NEMA 23 motors are more powerful and can handle heavier loads, but they are bulkier than NEMA 14 motors. If you require a smaller motor with sufficient torque, the NEMA 14 is worth considering.
Servo motors offer higher accuracy and faster response times, but they are also more expensive. NEMA 14 motors provide a cost-effective solution for applications that don't demand extreme precision.
As technology advances, NEMA 14 stepper motors are expected to become even more efficient, compact, and cost-effective. They will continue to play a significant role in various industries, especially where precision motion control is essential.
Yes, NEMA 14 stepper motors are commonly used in 3D printers for controlling the extruder and build platform movements.
The NEMA 14 designation refers to the motor's size, with the faceplate measuring 1.4 inches in length.
Yes, the speed of a NEMA 14 stepper motor can be controlled by adjusting the step rate and the driving voltage.
No, NEMA 14 stepper motors operate in an open-loop control system and do not require feedback devices like encoders.
Unipolar stepper motors are easier to control but offer lower torque, while bipolar stepper motors are more powerful and versatile, providing higher torque at higher speeds.
Yes, we are facotry, 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.
