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    102 Products

    Stepper Motors

    Motors
    Image of Product. Square Body. Front orientation. Stepper Motors. Motors, Square Body.
    Image of Product. Round Body. Front orientation. Stepper Motors. Motors, Round Body.

    Square Body

    Round Body

    Image of Attribute. Front orientation. Contains Annotated. Motors.
    Image of Attribute. Side1 orientation. Contains Annotated. Motors.
    These stepper motors are good for precise, repetitive movements, such as those made by the head of a 3D printer. Similar to the hands of a clock, their shaft turns in small, equal increments. When the shaft stops, it holds its position even when a counteracting force is applied to the load. You can control the position of the load without having to configure encoders or sensors. All are bipolar hybrid stepper motors, so the current can flow in both directions. This helps them deliver higher torque, precision, and efficiency than unipolar stepper motors.
    All motors require a controller and drive (not included).
    2 Shafts—When relative positioning is critical, such as coordinating motion in a multi-axis system, choose a motor with two shafts and mount an encoder (not included) on one of them. The encoder monitors the position of the shaft and reports back to the controller.
    Maximum Holding Torque—Holding torque is the force needed to move the shaft out of position when it is stationary. When the shaft is in motion, torque generally decreases as speed increases. Use a torque-speed curve to confirm which motor will work for your application. Click on a part number and select “Product Detail” to view the curve for a motor.
    Full Step Increment—Full step increment is the rotation of the shaft from one position to the next. A smaller full step increment means the rotor has more teeth, producing smoother and more precise motion. 1.8° is considered standard.
    Overall
    Shaft
    Temp.
    Range, ° F
    Max. Holding
    Torque, in·ozf
    Max. Rotation
    Speed, rpm
    Max. Current
    per Phase, amp
    Full Step
    Increment
    Stepper Motor
    Polarity
    No. of Wire
    Leads
    Lg.
    Wd.
    Ht.
    Dia.,
    mm
    Lg.,
    mm
    Ctr.-to-Base
    Lg.
    Type
    No. of
    Shafts
    Min.
    Max.
    Each
    Square Body
     
    NEMA 11 Frame Size
    8.53,3000.671.8°Bipolar42.1"1.1"1.1"5180.56"Solid101206627T3570000000
    142,4750.671.8°Bipolar42.6"1.1"1.1"5180.56"Solid101206627T356000000
    172,4750.671.8°Bipolar42.8"1.1"1.1"5180.56"Solid101206627T355000000
     
    NEMA 14 Frame Size
    7.53,3000.451.8°Bipolar41.6"1.4"1.4"513.50.7"Solid101206627T3900000
    201,8000.81.8°Bipolar41.9"1.4"1.4"513.50.7"Solid101206627T38000000
    56.63,00021.8°Bipolar43.1"1.4"1.4"5220.7"D-Profile101206627T141000000
     
    NEMA 17 Frame Size
    391,0000.621.8°Bipolar42.1"1.7"1.7"5240.84"Solid101206627T6500000
    62.31,2000.840.9°Bipolar42.8"1.7"1.7"5220.84"D-Profile101206627T231000000
    648250.71.8°Bipolar42.3"1.7"1.7"5240.84"Solid101206627T6600000
    848201.051.8°Bipolar42.6"1.7"1.7"5240.84"D-Profile101206627T9100000
    1151,00021.8°Bipolar43.8"1.7"1.7"5220.84"D-Profile201206627T921000000
    12597521.8°Bipolar43.1"1.7"1.7"5240.84"D-Profile101206627T9200000
     
    Round Body
     
    NEMA 14 Frame Size
    15.58250.60.9°Bipolar41.6"1.4"1.4"518.20.7"D-Profile101206627T21100000
    15.51,4751.20.9°Bipolar41.6"1.4"1.4"518.20.7"D-Profile101206627T22100000
     
    NEMA 17 Frame Size
    2.81,6000.50.9°Bipolar41.1"1.7"1.7"513.10.84"Solid101206627T49100000
    5.61,1000.60.9°Bipolar41.1"1.7"1.7"513.10.84"Solid101206627T51100000
    71,9000.60.9°Bipolar41.2"1.7"1.7"513.10.84"Solid101206627T521000000
    15.51,4501.20.9°Bipolar41.4"1.7"1.7"513.10.84"Solid101206627T531000000
    22.61,6000.80.9°Bipolar41.7"1.7"1.7"513.10.84"Solid101206627T541000000
     
    Motor/Drives
    Image of Product. Front orientation. Stepper Motors. Motor/Drives.
    Image of Attribute. Front orientation. Contains Annotated. Motor/Drives.
    Image of Attribute. Side1 orientation. Contains Annotated. Motor/Drives.
    Reduce the size and complexity of your stepper motor setup—these motors have a drive built in, so you don’t need to run cable to a standalone drive. The drive delivers power to the motor based on signals from a PLC, pulse generator, or other controller. These motors are good for precise, repetitive movements, such as those made by the head of a 3D printer. Similar to the hands of a clock, their shaft turns in small, equal increments for smooth motion. When the shaft stops, it holds its position even when a counteracting force is applied to the load. You can control the position of the load without having to configure encoders or sensors. All are bipolar hybrid stepper motors, so the current can flow in both directions. This helps them deliver higher torque, precision, and efficiency than unipolar stepper motors.
    Maximum Holding Torque—Holding torque is the force needed to move the shaft out of position when it is stationary. When the shaft is in motion, torque generally decreases as speed increases. Use a torque-speed curve to confirm which motor will work for your application. Click on a part number and select “Product Detail” to view the curve for a motor.
    Full Step Increment—Full step increment is the rotation of the shaft from one position to the next. A smaller full step increment means the rotor has more teeth, producing smoother and more precise motion. 1.8° is considered standard.
    Step Resolution—You can adjust the step resolution down to 1/256 of a full step, which translates to 51,200 microsteps per revolution. Increasing the number of steps directs an even more precise position and reduces the step-step-step motion to mimic a smooth, continuous rotation. The higher the number of step resolution settings, the greater the flexibility you have for determining the size of the motor’s step.
    Current per
    Phase, amp
    Overall
    Shaft
    Temp.
    Range, ° F
    Max. Holding
    Torque, in·ozf
    Max. Rotation
    Speed, rpm
    Min.
    Max.
    Voltage,
    V DC
    Full Step
    Increment
    Step Resolution
    Stepper Motor
    Polarity
    No. of Wire
    Leads
    Lg.
    Wd.
    Ht.
    Dia.,
    mm
    Lg.,
    mm
    Ctr.-to-Base
    Lg.
    Type
    Min.
    Max.
    Each
    Square Body
     
    NEMA 17 Frame Size
    316600.070.7112 to 241.8°1, 1/2, 1/4, 1/8Bipolar73.2"1.7"1.7"521.80.85"D-Profile01206627T1080000000
    507200.080.8512 to 241.8°1, 1/2, 1/4, 1/8Bipolar73.4"1.7"1.7"521.80.85"D-Profile01206627T109000000
    627200.080.8512 to 241.8°1, 1/2, 1/4, 1/8Bipolar73.7"1.7"1.7"521.80.85"D-Profile01206627T112000000
     
    Motor/Encoders
    Image of Product. Front orientation. Stepper Motors. Motor/Encoders.
    Image of Attribute. Front orientation. Contains Annotated. Motor/Encoders.
    Image of Attribute. Side1 orientation. Contains Annotated. Motor/Encoders.
    To improve positioning accuracy, these stepper motors have a built-in encoder that monitors the real-time speed and position of the shaft. It sends that data to a controller (not included), which adjusts or stops the shaft if it isn’t in the right place. This makes them useful when relative positioning is critical, such as when coordinating motion between two motors. Stepper motors are good for precise, repetitive movements. Similar to the hands of a clock, their shaft turns in small, equal increments for smooth motion. When the shaft stops, it holds its position even when a counteracting force is applied to the load. All are bipolar hybrid stepper motors, so the current can flow in both directions. This helps them deliver higher torque, precision, and efficiency than unipolar stepper motors.
    All motors require a controller and drive (not included).
    2 Shafts—When relative positioning is critical, such as coordinating motion in a multi-axis system, choose a motor with two shafts and mount an encoder (not included) on one of them. The encoder monitors the position of the shaft and reports back to the controller.
    Maximum Holding Torque—Holding torque is the force needed to move the shaft out of position when it is stationary. When the shaft is in motion, torque generally decreases as speed increases. Use a torque-speed curve to confirm which motor will work for your application. Click on a part number and select “Product Detail” to view the curve for a motor.
    Full Step Increment—Full step increment is the rotation of the shaft from one position to the next. A smaller full step increment means the rotor has more teeth, producing smoother and more precise motion. 1.8° is considered standard.
    Overall
    Shaft
    Temp.
    Range, ° F
    Max. Holding
    Torque, in·ozf
    Max. Rotation
    Speed, rpm
    Max. Current
    per Phase, amp
    Voltage,
    V DC
    Full Step
    Increment
    Stepper Motor
    Polarity
    Encoder Positioning
    Type
    No. of Counts
    per Rev.
    No. of Wire
    Leads
    Lg.
    Wd.
    Ht.
    Dia.,
    mm
    Lg.,
    mm
    Ctr.-to-Base
    Lg.
    Type
    No. of
    Shafts
    Min.
    Max.
    Each
    Square Body
     
    NEMA 17 Frame Size
    26.91,5000.6751.8°BipolarIncremental1,00042.6"2.3"1.7"5220.84"D-Profile201206627T3610000000
    399000.6251.8°BipolarIncremental1,00042.8"2.3"1.7"5220.84"Solid201206627T371000000
    647500.751.8°BipolarIncremental1,00043"2.3"1.7"5220.84"Solid201206627T381000000
    70.83,000251.8°BipolarIncremental1,00043.2"2.3"1.7"5220.84"D-Profile201206627T391000000
    83.58251.0551.8°BipolarIncremental1,00043.5"2.3"1.7"5220.84"D-Profile201206627T411000000
    124.61,400251.8°BipolarIncremental1,00043.9"2.3"1.7"5220.84"D-Profile201206627T421000000
     

    Economy Stepper Motors

    Often used in prototyping, these light duty stepper motors deliver precise, repeatable motion. Their shaft turns in small, equal increments, similar to the hands of a clock. When the shaft stops, it holds its position even when a counteracting force is applied to the load. You can control the position of the load without having to configure encoders or sensors. All are bipolar hybrid stepper motors, so the current can flow in both directions. This helps them deliver higher precision than unipolar stepper motors.
    All motors require a controller and drive (not included).
    Motors
    Image of Product. Front orientation. Stepper Motors. Economy Stepper Motors.
    Image of Attribute. Front orientation. Contains Annotated. Economy Stepper Motors, Motors.
    Image of Attribute. Side1 orientation. Contains Annotated. Economy Stepper Motors, Motors.
    Maximum Holding Torque—Holding torque is the force needed to move the shaft out of position when it is stationary. When the shaft is in motion, torque generally decreases as speed increases. Use a torque-speed curve to confirm which motor will work for your application. Click on a part number and select “Product Detail” to view the curve for a motor.
    Full Step Increment—Full step increment is the rotation of the shaft from one position to the next. A smaller full step increment means the rotor has more teeth, producing smoother and more precise motion. 1.8° is considered standard.
    Overall
    Shaft
    Max. Holding
    Torque, in·ozf
    Max. Rotation
    Speed, rpm
    Max. Current
    per Phase, amp
    Full Step
    Increment
    Stepper Motor
    Polarity
    No. of Wire
    Leads
    Lg.
    Wd.
    Ht.
    Dia.,
    mm
    Lg.,
    mm
    Ctr.-to-Base
    Lg.
    Type
    No. of
    Shafts
    Min.
    Temp.
    Each
    Square Body
     
    NEMA 17 Frame Size
    32.52600.331.8°Bipolar42.3"1.7"1.7"5240.83"Solid1Not Rated4798N11000000
    681,0001.70.9°Bipolar42.8"1.7"1.7"5240.83"Solid1Not Rated4798N1200000
     

    Stepper Motors with Integrated Motion Control

    Image of Product. Front orientation. Stepper Motors. Stepper Motors with Integrated Motion Control.
    With a built-in controller and drive, these stepper motors come ready to program and operate. Connect them to a computer and use the free downloadable software to set them up. After that, the controller can store and run programs on its own. The controller communicates to the drive which directs the motor’s shaft to move in small, equal increments. When the shaft stops, it holds its position even when a counteracting force is applied to the load. All are bipolar hybrid stepper motors, which deliver greater torque, precision, and efficiency than other types of stepper motors.
    Encoders—When relative positioning is critical, such as coordinating motion in a multi-axis system, choose a motor with an encoder. The encoder monitors the position of the shaft and reports back to the controller.
    Maximum Holding Torque—Holding torque is the force needed to move the shaft out of position when it is stationary. When the shaft is in motion, torque generally decreases as speed increases. Use a torque-speed curve to confirm which motor will work for your application. Click on a part number and select “Product Detail” to view the curve for a motor.
    Full Step Increment—Full step increment is the rotation of the shaft from one position to the next. A smaller full step increment means the rotor has more teeth, producing smoother and more precise motion. 1.8° is considered standard.
    Step Resolution—You can adjust the step resolution down to 1/256 of a full step, which translates to 51,200 microsteps per revolution. Increasing the number of steps directs an even more precise position and reduces the step-step-step motion to mimic a smooth, continuous rotation. The higher the number of step resolution settings, the greater the flexibility you have for determining the size of the motor’s step.
    Current per
    Phase, amp
    Overall
    Shaft
    Temp.
    Range, ° F
    Max. Holding
    Torque, in·ozf
    Max. Rotation
    Speed, rpm
    Min.
    Max.
    Voltage,
    V DC
    Full Step
    Increment
    Step Resolution
    No. of Inputs/Outputs
    Lg.
    Wd.
    Ht.
    Dia.,
    mm
    Lg.,
    mm
    Ctr.-to-Base
    Lg.
    Type
    Min.
    Max.
    Each
    Motor/Controller/Drives
     
    NEMA 17 Frame Size
    40.31,2000.1212 to 401.8°1, 1/2, 1/4, 1/8, 1/16, 1/32, 1/64, 1/128, 1/2562 Digital-Inputs/Outputs2.3"1.7"1.7"5220.84"Solid01206627T250000000
    74.91,0000.1212 to 401.8°1, 1/2, 1/4, 1/8, 1/16, 1/32, 1/64, 1/128, 1/2562 Digital-Inputs/Outputs2.5"1.7"1.7"5220.84"Solid01206627T26000000
    85.48200.1212 to 401.8°1, 1/2, 1/4, 1/8, 1/16, 1/32, 1/64, 1/128, 1/2562 Digital-Inputs/Outputs2.8"1.7"1.7"5220.84"Solid01206627T24000000
     
    Motor/Controller/Drive/Encoders
     
    NEMA 17 Frame Size
    313,0000.12.212 to 481.8°1 to 1/2561 Analog-Input,
    3 Digital-Inputs,
    1 Digital-Output    		3.7"1.7"3"5220.84"D-Profile351006627T104000000
    543,0000.12.212 to 481.8°1 to 1/2561 Analog-Input,
    3 Digital-Inputs,
    1 Digital-Output    		3.9"1.7"3"5220.84"D-Profile351006627T105000000
    683,0000.12.212 to 481.8°1 to 1/2561 Analog-Input,
    3 Digital-Inputs,
    1 Digital-Output    		4.2"1.7"3"5220.84"D-Profile351006627T106000000
     

    Stepper Gearmotors

    Image of Product. Front orientation. Stepper Gearmotors. Square Body.

    Square Body

    A stepper motor and gearbox in one, choose these motors when you want high torque but don’t have space for a large motor. Their planetary gearbox efficiently transmits power to increase torque while reducing speed. These motors are great for motion similar to a 3D printer head, using precise, repetitive movements. Like the hands of a clock, their shaft turns in small, equal increments. When the shaft stops, it holds its position, even if there’s a counteracting force on the load. You can control the position of the load without configuring encoders or sensors. All are bipolar hybrid stepper motors, which deliver greater torque, precision, and efficiency than other types of stepper motors.
    Holding torque is the force needed to move the shaft out of position when it’s stationary. When the shaft is in motion, torque generally decreases as speed increases. Use a torque-speed curve to confirm which motor will work for your application. Click on a part number and select “Product Detail” to view the curve for a motor.
    All motors require a controller and driver (not included).
    Full Step Increment—Full step increment is the rotation of the shaft from one position to the next. The smaller the increment, the smoother and more precise the motion.
    Overall
    Shaft
    Max. Holding
    Torque, in·ozf
    Max. Rotation
    Speed, rpm
    Max. Current
    per Phase, amp
    Full Step
    Increment
    No. of Wire
    Leads
    Lg.
    Wd.
    Ht.
    Dia.,
    mm
    Lg.,
    mm
    Ctr.-to-Base
    Lg.
    Type
    Temp. Range,
    ° F
    Each
    Square Body
     
    NEMA 17 Frame Size
    2804000.70.36°43.3"1.7"1.7"5290.84"D-Profile0 to 1204801N110000000
    56040020.36°44"1.7"1.7"5290.84"D-Profile0 to 1204801N12000000
     

    Wet-Environment Stepper Motors

    To precisely position loads in automated systems that are frequently rinsed, these stepper motors are IP65 rated to seal out water. Their shaft turns in small, equal increments, similar to the hands of a clock. When the shaft stops, it holds its position even when force is applied to the load. This means you don’t need to configure encoders or sensors to control the position of the load. All are hybrid bipolar stepper motors, so they have more torque, precision, and efficiency than other stepper motors.
    These stepper motors require a controller and drive (not included).
    Motors
    Image of Product. Front orientation. Stepper Motors. Wet-Environment Stepper Motors.
    Maximum Holding Torque—Holding torque is the force needed to move the shaft out of position when it is stationary. When the shaft is in motion, torque generally decreases as speed increases. Use a torque-speed curve to confirm which motor will work for your application. Click on a part number and select “Product Detail” to view the curve for a motor.
    Full Step Increment—Full step increment is the rotation of the shaft from one position to the next. A smaller full step increment means the rotor has more teeth, producing smoother and more precise motion. 1.8° is considered standard.
    Overall
    Shaft
    Temp.
    Range, ° F
    Max. Holding
    Torque, in·ozf
    Max. Rotation
    Speed, rpm
    Max. Current
    per Phase, amp
    Full Step
    Increment
    Stepper Motor
    Polarity
    No. of Wire
    Leads
    Lg.
    Wd.
    Ht.
    Dia.,
    mm
    Lg.,
    mm
    Ctr.-to-Base
    Lg.
    Type
    No. of
    Shafts
    Min.
    Max.
    Enclosure
    Rating
    Each
    Square Body
     
    NEMA 17 Frame Size
    85.41,6002.11.8°Bipolar42.9"1.7"1.7"5220.84"Solid10120IP65
    		5958N110000000
    12597521.8°Bipolar43.6"1.7"1.7"5240.84"D-Profile10120IP65
    		5958N101000000
     

    High-Temperature Stepper Motors

    The widest temperature range of any stepper motor we offer—these motors were designed with grease and magnets that are particularly good for temperatures up to 212° F. They also work well in low temperatures down to -40° F. Similar to the hands of a clock, their shaft turns in small, equal increments. When the shaft stops, it holds its position even when a counteracting force is applied to the load. You can control the position of the load without having to configure encoders, sensors, or other position feedback devices. All are bipolar hybrid stepper motors, so the current can flow in both directions. This helps them deliver higher torque, precision, and efficiency than unipolar stepper motors.
    All motors require a controller and drive (not included).
    Motors
    Image of Product. Front orientation. Stepper Motors. High-Temperature Stepper Motors.
    Maximum Holding Torque—Holding torque is the force needed to move the shaft out of position when it is stationary. When the shaft is in motion, torque generally decreases as speed increases. Use a torque-speed curve to confirm which motor will work for your application. Click on a part number and select “Product Detail” to view the curve for a motor.
    Full Step Increment—Full step increment is the rotation of the shaft from one position to the next. A smaller full step increment means the rotor has more teeth, producing smoother and more precise motion. 1.8° is considered standard.
    Overall
    Shaft
    Temp.
    Range, ° F
    Max. Holding
    Torque, in·ozf
    Max. Rotation
    Speed, rpm
    Max. Current
    per Phase, amp
    Full Step
    Increment
    Stepper Motor
    Polarity
    No. of Wire
    Leads
    Lg.
    Wd.
    Ht.
    Dia.,
    mm
    Lg.,
    mm
    Ctr.-to-Base
    Lg.
    Type
    No. of
    Shafts
    Min.
    Max.
    Each
    Square Body
     
    NEMA 17 Frame Size
    85.48201.051.8°Bipolar42.8"1.7"1.7"5240.84"D-Profile1-402128643N120000000
    115.197521.8°Bipolar43.285"1.7"1.7"5240.84"D-Profile1-402128643N13000000
     

    Clean Room Stepper Motors

    Deliver precise, repeatable motion in applications where contamination is a concern, such as semiconductor manufacturing. These motors meet the strictest clean room standards—all components are cleaned and assembled in a clean room and stored in vacuum sealed packaging. Made of treated aluminum, they minimize gas and particle emission in your clean room’s environment. They're often used in vacuum chambers, where low particle emission prevents the vacuum from degrading. Similar to the hands of a clock, the shaft on these stepper motors turns in small, equal increments for smooth motion. When the shaft stops, it holds its position even when a counteracting force is applied to the load. You can control the position of the load without having to configure encoders, sensors, or other position feedback devices. All are bipolar hybrid stepper motors, so the current can flow in both directions. This helps them deliver higher torque, precision, and efficiency than unipolar stepper motors.
    All motors require a controller and drive (not included).
    Motors
    Image of Product. Front orientation. Stepper Motors. Clean Room Stepper Motors.
    Image of Attribute. Front orientation. Contains Annotated. Clean Room Stepper Motors, Motors.
    Image of Attribute. Side1 orientation. Contains Annotated. Clean Room Stepper Motors, Motors.
    Maximum Holding Torque—Holding torque is the force needed to move the shaft out of position when it is stationary. When the shaft is in motion, torque generally decreases as speed increases. Use a torque-speed curve to confirm which motor will work for your application. Click on a part number and select “Product Detail” to view the curve for a motor.
    Full Step Increment—Full step increment is the rotation of the shaft from one position to the next. A smaller full step increment means the rotor has more teeth, producing smoother and more precise motion. 1.8° is considered standard.
    Overall
    Shaft
    Temp.
    Range, ° F
    Max. Holding
    Torque, in·ozf
    Max. Rotation
    Speed, rpm
    Max. Current
    per Phase, amp
    Full Step
    Increment
    Stepper Motor
    Polarity
    No. of Wire
    Leads
    Lg.
    Wd.
    Ht.
    Dia.,
    mm
    Lg.,
    mm
    Type
    No. of
    Shafts
    Vacuum Rating,
    Torr
    Min.
    Max.
    Clean Room
    Std.
    Each
    Square Body
     
    NEMA 11 Frame Size
    103,2500.671.8°Bipolar42.1"1.1"1.1"518Solid11× 10^-70120ISO Class 1
    		4799N11000000000
    19.51,5500.671.8°Bipolar42.8"1.1"1.1"518Solid11× 10^-70120ISO Class 1
    		4799N1200000000
     
    NEMA 17 Frame Size
    85.48501.051.8°Bipolar42.9"1.7"1.7"522Solid11× 10^-70120ISO Class 1
    		4799N1300000000
    115.11,15021.8°Bipolar43.3"1.7"1.7"522Solid11× 10^-70120ISO Class 1
    		4799N1400000000
     

    Stepper Servomotors with Integrated Drive

    Image of Product. Front orientation. Servomotors. Stepper Servomotors with Integrated Drive.
    Simplify your servomotor setup—these servomotors have a built-in drive, removing the need for cable between the motor and drive. They create high torque at low speeds like traditional stepper motors but with greater torque performance and positioning reliability.
    These servomotors accept step and direction, position, speed, torque, or sequencing commands. Use a computer to set up and calibrate the motor to your system. After initial setup, use a separate controller, such as a programmable logic controller (PLC), microcontroller, or indexer. You can also store target positions with speeds and accelerations in the drive and then trigger each sequence with minimal input from a controller. The encoder relays distance, direction, and speed back to the servomotor. Based on this feedback, the servomotor dynamically adapts its movements to increase system efficiency.
    Maximum Holding Torque—Holding torque is the force needed to move the shaft out of position when it is stationary. Torque generally decreases as speed increases. Use a torque-speed curve to confirm which motor will work for your application. Click on a part number and select "Product Detail" to view the curve for a motor.
    Overall
    Shaft
    No. of
    Inputs/Outputs
    Max. Holding
    Torque, in·ozf
    Max. Rotation
    Speed, rpm
    Voltage,
    V DC
    Current,
    amp
    Step
    Resolution
    Full Step
    Increment
    Lg.
    Wd.
    Ht.
    Dia.,
    mm
    Lg.,
    mm
    Ctr.-to-Base
    Lg.
    Control Communication
    Protocol
    Digital
    Inputs
    Digital
    Outputs
    Enclosure
    Rating
    Each
    NEMA 11 Frame Size
    9.23,00015 to 300.91 to 1/2561.8°2.7"1.1"1.5"5130.57"Modbus RTU42IP20
    		5361N110000000
    11.33,00015 to 3011 to 1/2561.8°3"1.1"1.5"5130.57"Modbus RTU42IP20
    		5361N12000000
    17.73,00015 to 3011 to 1/2561.8°3.5"1.1"1.5"5130.57"Modbus RTU42IP20
    		5361N13000000
     

    Dry-Running Electric Slides for Stepper Motors

    Image of Product. Front orientation. Electric Slides. Dry-Running Electric Slides for Stepper Motors.
    With PTFE sleeve bearings and a low-friction ball screw, these slides don’t require the mess and maintenance of lubrication but still give you precise positioning anywhere along the length of their stroke. Because they have sleeve bearings, they have fewer moving parts, so they perform better in dusty and wet environments than slides with ball bearings. They’re also better at handling impact and vibration.
    All slides require a stepper motor, driver, and controller (not included) to operate. As part of this system, they move in precise increments, like the head on an inkjet printer. These electric slides work well for automated assemblies and other applications that require fine, repeatable motion control.
    Travel Distance per Turn—Travel distance per turn, also known as screw lead, is how far the carriage moves with one rotation of the ball screw.
    Dynamic
    Load Cap.
    For Max.
    Motor
    Overall,
    mm
    Carriage
    Stroke
    Lg., mm
    Horiz.
    Vert.
    Static Load
    Cap., lb.
    Max. Speed,
    mm/s
    Travel Distance
    per Turn, mm
    Repeatability,
    mm
    For Shaft
    Dia., mm
    Speed,
    rpm
    Torque,
    in·ozf
    Lg.
    Wd.
    Ht.
    Lg.,
    mm
    Wd.,
    mm
    Bearing
    Type
    Base
    Material
    Each
    For NEMA 17 Motor Frames
    100Not RatedNot Rated630502-0.1 to 0.151,5007127674566973Plain
    		Aluminum6650N110000000
    200Not RatedNot Rated630502-0.1 to 0.151,5007137674566973Plain
    		Aluminum6650N13000000
    300Not RatedNot Rated630502-0.1 to 0.151,5007147674566973Plain
    		Aluminum6650N15000000
    400Not RatedNot Rated630502-0.1 to 0.151,5007157674566973Plain
    		Aluminum6650N17000000
    500Not RatedNot Rated630502-0.1 to 0.151,5007167674566973Plain
    		Aluminum6650N19000000
    600Not RatedNot Rated630502-0.1 to 0.151,5007177674566973Plain
    		Aluminum6650N22000000
     

    Electric Slides for Stepper Motors

    Image of Product. Front orientation. Electric Slides. Electric Slides for Stepper Motors.
    Add your own stepper motor and controller to precisely move the ball screw and carriage smoothly at high speeds, like a head on an inkjet printer. With a repeatability of -0.01 to 0.01 mm—thinner than a strand of hair—the carriage hits the same spot every time. These electric slides work well for automated assemblies and other applications that require fine, repeatable motion control.
    The carriage rides along the inside of the rail, making these slides more compact than traditional carriages and guide rails. Made of steel with a U-shaped rail, these slides resist twisting forces that could affect their positioning. This also means they can be installed with only one end supported or with both ends overhanging. The same load rating applies no matter how the slides are oriented.
    Travel Distance per Turn—Travel distance per turn, also known as screw lead, is how far the carriage moves with one rotation of the ball screw.
    Dynamic Load
    Cap., lb.
    For Max.
    Motor
    Overall,
    mm
    Carriage
    Stroke
    Lg., mm
    Horiz.
    Vert.
    Max. Speed,
    mm/s
    Travel Distance
    per Turn, mm
    Repeatability,
    mm
    For Shaft
    Dia., mm
    Speed,
    rpm
    Torque,
    in·ozf
    Lg.
    Wd.
    Ht.
    Lg.,
    mm
    Wd.,
    mm
    Bearing
    Type
    Base
    Material
    Each
    For NEMA 14 Motor Frames
    301481481001-0.01 to 0.0156,00029.316640424623Ball
    		Steel6734K2110000000
    801481481001-0.01 to 0.0156,00029.321640424623Ball
    		Steel6734K21200000000
    1105285282002-0.01 to 0.0156,00088.1276503647.431Ball
    		Steel6734K21400000000
    1301481481001-0.01 to 0.0156,00029.326640424623Ball
    		Steel6734K21300000000
     
    For NEMA 17 Motor Frames
    1004024024706-0.01 to 0.0154,7001762776044.57637.4Ball
    		Steel6734K81100000000
    1105285282002-0.01 to 0.0156,00088.1276.5504247.431Ball
    		Steel6734K21500000000
    1605285282002-0.01 to 0.0156,00088.1326.5504247.431Ball
    		Steel6734K21600000000
    2004024024706-0.01 to 0.0154,7001763776044.57637.4Ball
    		Steel6734K81300000000
    2105285282002-0.01 to 0.0156,00088.1376.5504247.431Ball
    		Steel6734K21700000000
     
    Two-Axis Mounting Plates for Electric Slides with 60 mm Overall Width
    Image of ProductInUse. Horizontal Mounting Plate (Shown Installed). Front orientation. Electric Slide Mounts. Electric Slides for Stepper Motors, Horizontal Mount.
    Image of ProductInUse. Vertical Mounting Plate (Shown Installed). Front orientation. Electric Slide Mounts. Electric Slides for Stepper Motors, Vertical Mount.
    Image of ProductInUse. Side Mounting Plate (Shown Installed). Front orientation. Electric Slide Mounts. Electric Slides for Stepper Motors, Side Mount.

    Horizontal Mounting Plate

    (Shown Installed)

    Vertical Mounting

    Plate (Shown Installed)

    Side Mounting Plate (Shown

    Installed)

    Two-axis mounting plates secure two slides together for motion along two axes.
    Mounting
    Position
    Mounting
    Location
    Material
    Each
    Horizontal—Aluminum
    		6734K8190000000
    Vertical—Aluminum
    		6734K822000000
    —SideAluminum
    		6734K821000000

    Set Screw Precision Flexible Shaft Couplings

    Image of Product. Front orientation. Flexible Shaft Couplings. Set Screw Precision Flexible Shaft Couplings.
    Tighten the set screws to fasten these couplings to your shaft. Set screws bite into the shaft to hold the couplings in place. All are lightweight, corrosion-resistant aluminum.
    Spiral Cut—Spiral couplings have long, continuous cuts in the body, making them flexible enough to handle parallel, axial, and angular misalignment. Often used for light duty encoder and stepper drive applications, they allow zero backlash (no play) and never need lubrication. They’re also known as helical beam couplings. Spiral couplings are less rigid than parallel couplings.
    Misalignment
    Capability
    For Shaft
    Diameter
    Overall
    Lg., mm
    OD,
    mm
    Max. Rotation
    Speed
    Max. Torque,
    in·lbf
    Angular
    Axial,
    mm
    For Rotary Motion
    Each
    Spiral Cut
     
    7075 Aluminum
    5 mm × 2 mm25.419.1Not Rated253°0.2Forward/Reverse, Start/Stop4147N149000000
    5 mm × 3 mm19.112.7Not Rated52°0.12Forward/Reverse, Start/Stop4147N12300000
    5 mm × 3 mm25.419.1Not Rated253°0.2Forward/Reverse, Start/Stop4147N15100000
    5 mm × 4 mm25.419.1Not Rated253°0.2Forward/Reverse, Start/Stop4147N15200000
    5 mm × 5 mm19.112.7Not Rated52°0.12Forward/Reverse, Start/Stop4147N12500000
    5 mm × 5 mm19.119.1Not Rated203°0.15Forward/Reverse, Start/Stop4147N13900000
    5 mm × 5 mm22.415.9Not Rated123°0.2Forward/Reverse, Start/Stop4147N13200000
    5 mm × 5 mm25.419.1Not Rated253°0.2Forward/Reverse, Start/Stop4147N15300000
    6 mm × 5 mm19.119.1Not Rated203°0.15Forward/Reverse, Start/Stop4147N14300000
    6 mm × 5 mm22.415.9Not Rated123°0.2Forward/Reverse, Start/Stop4147N13500000
    6 mm × 5 mm25.419.1Not Rated253°0.2Forward/Reverse, Start/Stop4147N15600000
    8 mm × 5 mm19.119.1Not Rated203°0.15Forward/Reverse, Start/Stop4147N14600000
    8 mm × 5 mm25.419.1Not Rated253°0.2Forward/Reverse, Start/Stop4147N15900000
    8 mm × 5 mm38.125.4Not Rated633°0.2Forward/Reverse, Start/Stop4147N16800000
    10 mm × 5 mm25.425.4Not Rated423°0.15Forward/Reverse, Start/Stop4147N18700000
    10 mm × 5 mm38.125.4Not Rated633°0.2Forward/Reverse, Start/Stop4147N17300000
    13 mm × 5 mm31.831.8Not Rated843°0.15Forward/Reverse, Start/Stop4147N222000000
     

    Stepper Servomotors

    Image of Product. Front orientation. Servomotors. Stepper Servomotors.
    Combine the high torque at low speeds that traditional stepper motors are known for with the greater torque performance and positioning reliability of a servomotor. They create rotary motion based on signals from a drive (sold separately). As these servomotors move, their encoder relays the shaft’s distance, direction, and speed back to the drive. The drive increases your system’s efficiency by taking the electrical signal from the encoder and dynamically adapting the motor’s movements, also accounting for inconsistent loads and unexpected forces.
    Maximum Holding Torque—Holding torque is the force needed to move the shaft out of position when it is stationary. Torque generally decreases as speed increases. Use a torque-speed curve to confirm which motor will work for your application. Click on a part number and select "Product Detail" to view the curve for a motor.
    Servomotors
    Servomotor
    Encoder Cords
    Servomotor
    Power Cords
    Overall
    Shaft
    Max. Holding
    Torque, in·ozf
    Max. Rotation
    Speed, rpm
    Voltage,
    V DC
    Full Step
    Increment
    Lg.
    Wd.
    Ht.
    Dia.,
    mm
    Lg.,
    mm
    Ctr.-to-Base
    Lg.
    Enclosure
    Rating
    Each
    Each
    Each
    NEMA 17 Frame Size
    70.81,740481.8°4.6"1.7"2.2"5220.83"IP54
    		5203N1100000005203N10300000005203N1010000000
     
    Servomotor Drives
    Image of Product. Front orientation. Servomotor Drives. Stepper Servomotors.
    Drives have several control modes that power the motor—sequencing, position, speed, or torque. You can program target positions with speeds and accelerations in the drive to trigger sequences with minimal input from a controller. You can also use a computer, programmable logic controller (PLC), microcontroller, or indexer to set motion parameters, tune the motor to your mechanical system, and stream multiple commands to the driver to carry out complex motion sequences.
    Overall
    No. of
    Inputs/Outputs
    Max. Current
    per Phase, amp
    Control Communication Protocol
    Operating
    Voltage, V DC
    Lg.
    Wd.
    Ht.
    Inputs
    Outputs
    Enclosure
    Rating
    Each
    For 48V DC Motor Voltage
    20EtherCAT, Modbus TCP/IP, EtherNet/IP, PROFINET24 to 485.2"1.1"6.7"22IP20
    		5203N2010000000
     

    Clamping Precision Flexible Shaft Couplings

    Image of Product. Front orientation. Flexible Shaft Couplings. Clamping Precision Flexible Shaft Couplings, Spiral Cut.

    Spiral Cut

    Designed to grip evenly around your shaft, these couplings provide more holding power than set screw couplings without marring the shaft. Tighten the clamping screws to secure.
    Spiral Cut—Spiral couplings have long cuts in their body for flexibility to handle parallel, axial, and angular misalignment better than parallel couplings. However, they’re not as rigid. Often used for light duty encoder and stepper drive applications, they allow zero backlash (no play) and never need lubrication. They’re also known as helical beam couplings.
    7075 Aluminum—7075 aluminum couplings are lightweight with good corrosion resistance.
    303 Stainless Steel—303 stainless steel couplings offer excellent corrosion resistance.
    Misalignment
    Capability
    For Shaft
    Diameter
    Overall
    Lg., mm
    OD,
    mm
    Max. Rotation
    Speed, rpm
    Max. Torque,
    in·lbf
    Parallel,
    mm
    Angular
    Axial,
    mm
    For Rotary Motion
    Each
    Spiral Cut
     
    7075 Aluminum
    5 mm × 3/16"22156,00070.23°0.12Forward/Reverse, Start/Stop2464K1000000
    5 mm × 3/16"28206,000100.23°0.12Forward/Reverse, Start/Stop2464K1400000
    5 mm × 1/4"28206,000100.23°0.12Forward/Reverse, Start/Stop2464K1700000
    5 mm × 3 mm22156,00070.23°0.12Forward/Reverse, Start/Stop2463K1700000
    5 mm × 4 mm22156,00070.23°0.12Forward/Reverse, Start/Stop2463K1800000
    5 mm × 4 mm28206,000100.23°0.12Forward/Reverse, Start/Stop2463K2100000
    5 mm × 5 mm22156,00070.23°0.12Forward/Reverse, Start/Stop2463K300000
    5 mm × 5 mm28206,000100.23°0.12Forward/Reverse, Start/Stop2463K2200000
    6 mm × 5 mm28206,000100.23°0.12Forward/Reverse, Start/Stop2463K400000
     
    303 Stainless Steel
    3 mm × 5 mm22156,000100.23°0.12Forward/Reverse, Start/Stop2463K103000000
    4 mm × 5 mm22156,000100.23°0.12Forward/Reverse, Start/Stop2463K105000000
    5 mm × 5 mm22156,000100.23°0.12Forward/Reverse, Start/Stop2463K106000000
    5 mm × 5 mm28206,000150.23°0.12Forward/Reverse, Start/Stop2463K123000000
    5 mm × 6 mm28206,000150.23°0.12Forward/Reverse, Start/Stop2463K125000000
     
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