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Hybrid stepper motor

Lin Engineering 5718 series (NEMA 23) hybrid stepper motor

NEMA 23 1.8° hybrid stepper in three lengths with 0.71 to 2.08 Nm (100.5 to 294.6 oz-in) holding torque, 1.4 to 4.2 A, Class B insulation; E5718 and X5718 versions raise torque to 4.24 Nm.

Key specifications

Temperature-20–50 °C
Current (max)4.2 A
Holding torque0.71–2.08 Nm
NEMA sizes23
Step angle1.8 °
InsulationClass B (130 °C)
Lengths1.74, 2.22 and 3.10 in

Summarised in our own words from Lin Engineering's published data; series maxima, individual models vary. Last checked 2026-10-30. Source 1 · Source 2

Notes on this data

E5718: 260.57 to 600.43 oz-in per the hybrid stepper overview.

Specify Motion is not affiliated with Lin Engineering. Lin Engineering and 5718 series (NEMA 23) are used only to identify the product. Comparisons use published figures; always confirm against the current datasheet.

Typical applications

Industrial automationPackagingLaboratory automation

Alternatives that meet or exceed these figures

Engineers often come to us with a Lin Engineering part number and leave with an alternative that is easier to source, quicker to deliver or a better fit for the machine. These 3 series from our supply network are the closest match on published figures.

Hybrid stepper motor

NEMA 34 High Torque (M86STH)

Meets or exceeds on both published figures compared

86 mm 2-phase hybrid stepper with 22 windings from 2.2 to ~12 Nm, for CNC and heavier industrial axes.

Published maximum5718 series (NEMA 23)NEMA 34 High Torque (M86STH)
Holding torque2.08 Nm11.96 Nm meets or exceeds
Current4.2 A6.2 A meets or exceeds
View NEMA 34 High Torque (M86STH) →
Hybrid stepper motor

NEMA 42 High Torque (M110STH)

Meets or exceeds on both published figures compared

110 mm 2-phase hybrid stepper, 11-33 Nm, for high-torque industrial and CNC axes; pairs with high-voltage AC stepper drives.

Published maximum5718 series (NEMA 23)NEMA 42 High Torque (M110STH)
Holding torque2.08 Nm33 Nm meets or exceeds
Current4.2 A8 A meets or exceeds
View NEMA 42 High Torque (M110STH) →
Hybrid stepper motor

Leadshine CM Series (2-phase)

Meets or exceeds on both published figures compared

Leadshine's current 2-phase open-loop hybrid stepper range from 20 mm to 130 mm frames, with encoder, brake, IP65 and gearbox variants.

Published maximum5718 series (NEMA 23)Leadshine CM Series (2-phase)
Holding torque2.08 Nm45 Nm meets or exceeds
Current4.2 A7 A meets or exceeds
View Leadshine CM Series (2-phase) →

Figures are the highest published for each series and are not always measured the same way. A higher figure is not automatically a better choice: mounting, duty cycle, feedback, connectors and approvals matter too. An engineer will check the fit against your application before recommending anything.

What a hybrid stepper motor is

A hybrid stepper motor moves in fixed angular steps, typically 1.8° or 200 full steps per revolution, as a drive switches current through its windings in sequence. It combines a permanent-magnet rotor with toothed iron stator and rotor sections, giving high holding torque and fine resolution. With a microstepping drive, each full step is split into smaller steps for smoother motion. Steppers usually run open loop, so position is known by counting steps rather than measured.

When engineers choose a hybrid stepper motor

Choose a hybrid stepper for low-cost, simple positioning at low to moderate speed, such as indexing, dosing, small axes and instruments. It holds position strongly at standstill and needs no tuning. The trade-offs are falling torque at speed, resonance and possible lost steps if overloaded. Where speed is high, loads vary or a missed position would cause a fault, a closed-loop stepper or servo is safer.

How to specify the Lin Engineering 5718 series (NEMA 23)

Send these with your enquiry and an engineer can confirm the right 5718 series (NEMA 23) variant or an equivalent:

  • Holding torque (Nm)
  • Torque needed at operating speed (Nm at rpm)
  • Frame size (NEMA or mm)
  • Step angle (°)
  • Phase current and inductance (A, mH)
  • Drive voltage (V)
  • Shaft, encoder and IP options

Common mistakes to avoid

  • Sizing on holding torque instead of the pull-out curve
  • Driving with too low a supply voltage, losing high-speed torque
  • Leaving out torque margin, typically 30% to 50%
  • Ignoring resonance in the mid-speed range

Lin Engineering 5718 series (NEMA 23): frequently asked questions

What is the Lin Engineering 5718 series (NEMA 23)?

NEMA 23 1.8° hybrid stepper in three lengths with 0.71 to 2.08 Nm (100.5 to 294.6 oz-in) holding torque, 1.4 to 4.2 A, Class B insulation; E5718 and X5718 versions raise torque to 4.24 Nm. Published series figures include temperature -20 °C, temperature 50 °C, current 4.2 A, holding torque 0.71 Nm. It is made by Lin Engineering; Specify Motion can help source it or propose an equivalent.

Who makes the Lin Engineering 5718 series (NEMA 23)?

The Lin Engineering 5718 series (NEMA 23) is made by Lin Engineering and is listed here for engineers comparing options. Specify Motion is not affiliated with Lin Engineering; brand names are used only to identify the product.

What is the temperature of the Lin Engineering 5718 series (NEMA 23)?

The published series minimum temperature is -20 °C. Individual models and sizes in the 5718 series (NEMA 23) range vary, so check the exact variant against your duty cycle, mounting and environment, or ask our engineers to confirm the right size for you.

Is there an alternative to the Lin Engineering 5718 series (NEMA 23)?

Yes. On published figures, NEMA 34 High Torque (M86STH) and NEMA 42 High Torque (M110STH) are the closest match from our supply network. An engineer confirms the fit against your application before recommending anything.

Why do stepper motors lose torque at high speed?

Winding inductance limits how fast current can rise each step. As speed increases there is less time per step, so current and torque fall. A higher drive voltage raises current faster and extends the torque curve. Always size from the pull-out torque curve at your drive voltage.

Does microstepping increase accuracy?

Microstepping makes motion smoother and gives finer resolution, but accuracy is not improved in proportion. Each microstep produces only a small torque increment, so load torque can shift the actual position. Accuracy is mostly set by the motor's step accuracy and the load.

Further reading: How to select a stepper motor · Servo vs stepper · Servo and stepper motors

Other hybrid stepper motor series

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