Stepper Motors
Popular for their high torque at low speeds and stand still, stepper motors are the drive of choice when precise positioning is needed. Combined with ADI Trinamic's industry-leading technologies turni
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PD-1461
PRODUCTION
NEMA 24 smart stepper motor 12 to 52V, 3Nm, 256 µSteps, EtherCAT interface, closed loop
PD-1243
PRODUCTION
NEMA 17 smart stepper motor 22Ncm, 256 µSteps, SixPoint ramp controller with CAN interface, SensOstep, StallGuard2 and CoolStep, StealthChop
PD-1378
PRODUCTION
NEMA 23 smart stepper motor 12 to 52V, 55Ncm, 256 µSteps, S-Shaped and SixPoint ramp controller with CAN interface, closed loop
PD-1278
PRODUCTION
NEMA 24 smart stepper motor 12 to 52V, 3Nm, 256 µSteps, SixPoint ramp controller with CAN interface, SensOstep, StallGuard2 and CoolStep, StealthChop
PD-1210
PRODUCTION
NEMA8 / 20mm flange size stepper motor and the TMCM-1210 controller / driver
PD-1276
PRODUCTION
NEMA 23 smart stepper motor 12 to 52V, 55Ncm, 256 µSteps, SixPoint ramp controller with CAN interface, SensOstep, StallGuard2 and CoolStep, StealthChop
PD-1076
PRODUCTION
NEMA 23 smart stepper motor 9 to 51V, 55Ncm, 256 µSteps, with S/D and UART interface, StallGuard2, CoolStep and StealthChop
PD-1241
PRODUCTION
NEMA 17 smart stepper motor 10 to 30V, 40Ncm, 256 µSteps, SixPoint ramp controller, with USB, S/D, CAN and RS485 interface, SensOstep, StallGuard2 and CoolStep, StealthChop
PD-1370
PRODUCTION
NEMA 17 smart stepper motor 9 to 28V, 22Ncm, 256 µSteps, S-Shaped and SixPoint ramp controller with RS485 interface, closed loop
PD-1260
PRODUCTION
NEMA 23 smart stepper motor 12 to 52V, 55Ncm, 256 µSteps, SixPoint ramp controller with USB, S/D RS485 and CAN interface, SensOstep, StallGuard2 and CoolStep, StealthChop
Microstepping for Smooth and Precise Movements
Stepper motors typically use a permanently magnetized rotor and motor coils as a stator. By sending an electrical current through the motor coils, an electromagnetic field is created that forces the magnetic rotor into the desired position. A typical hybrid stepper has 50 magnetic pol pairs that allow the motor to approach 200 full steps, meaning 200 positions per full 360° revolution. However, smaller steps like half steps or microsteps can be generated using additional current states. This increases the accuracy, torque, and efficiency of the motor while reducing step loss, vibrations, and noise.
Microstepping for Smooth and Precise Movements
Stepper motors typically use a permanently magnetized rotor and motor coils as a stator. By sending an electrical current through the motor coils, an electromagnetic field is created that forces the magnetic rotor into the desired position. A typical hybrid stepper has 50 magnetic pol pairs that allow the motor to approach 200 full steps, meaning 200 positions per full 360° revolution. However, smaller steps like half steps or microsteps can be generated using additional current states. This increases the accuracy, torque, and efficiency of the motor while reducing step loss, vibrations, and noise.
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