23E2240

The SBSLA Size 23 [57mm] external stepper ball screw linear actuator integrates a stepper motor with high-performance precision ball screws. Available in multiple ball screw types and nut sizes, it offers various screw end machinations, encoder options (EK2/EK3), and customizable configurations. Suitable for automation applications needing compact, accurate, and reliable linear motion with the benefit of encoder and brake integration.

SKU: 23E2240 Category:

Description

The SBSLA Size 23 [57mm] External Stepper Ball Screw Linear Actuator is engineered for demanding linear motion applications that require precise control and compact integration. This actuator family combines a robust stepper motor with high-precision ball screws (multiple types including 1002, 1004, 1005, 1010, 1015, 1020, 1202, 1210), offering C7 accuracy and ball sizes from Ø1.5875 to Ø2.381 mm to suit a wide range of load and speed requirements.

  • Key Features:
    • Compact NEMA 23 (57mm) size for easy system integration
    • High-performance ball screws with surface hardness HRC58~62 and SCM415H nut material for longevity
    • Anti-rust oil treatment for enhanced durability
    • Multiple nut sizes (A, B, C, D, H, W, X, E) and end machining options (threaded, smooth, custom)
    • Configurable with incremental encoders (EK2, EK3) and optional power-off brake
  • Technical Specifications:
    • Thread direction: Right-hand
    • Number of threads: 1 to 4, supporting various application speeds and thrusts
    • Dynamic load up to 5100 N, static load up to 9800 N (application/model dependent)
    • Positioning accuracy: ±0.05 mm, total runout: 0.12 mm, axial play ≤0.03 mm
  • Typical Applications:
    • Precision pick-and-place machines
    • Automated inspection systems
    • Medical and laboratory automation
    • Semiconductor, packaging, and small-parts assembly

With modular configuration, high reliability, and excellent repeatability, the SBSLA Size 23 actuator delivers a versatile solution for motion control engineers seeking advanced linear motion in compact footprints.