SMC LEYG32LA-200-R5C918 LEYG Series Electric Actuator/Guide Rod Type Step Motor (Servo 24 VDC) Applicable To The JXC Series

The SMC LEYG32LA-200-R5C918 is a cutting-edge electric actuator from the LEYG Series, designed to deliver exceptional performance and precision. This guide rod type step motor operates on a 24 VDC servo system, making it perfectly compatible with the JXC Series controllers. Key features of the LEYG Series include a compact integration of guide rods, which enhances lateral load resistance and ensures high non-rotating accuracy. The actuator boasts a lateral end load capacity that is five times greater than traditional rod types, particularly in size 25 with a 100-stroke configuration. Versatility is a hallmark of this actuator, as it is compatible with both sliding and ball bushing bearings, and can handle moment loads and stoppers when using sliding bearings. The LEYG Series offers advanced speed control and positioning capabilities, supporting up to 64 points for precise operations. Users can select between positioning and pushing control, with the ability to hold the actuator in place when the rod is pushed against a workpiece. With a positioning repeatability of ±0.02 mm or less, this actuator ensures consistent and reliable performance. It is compatible with a wide range of controllers, including JXC51, JXC61, JXCE1, JXC91, JXCP1, JXCD1, JXCL1, JXCM1, LECA6, LECP1, LECPA, and LECP6, among others. The LEYG Series also features a high output motor available in 100/200 W options, offering improved high-speed transfer capabilities and compatibility with high acceleration/deceleration rates of up to 5,000mm/S2. The actuator includes a pulse input type and an internal absolute encoder for enhanced functionality. Compatible drivers for this actuator include LECSA, LECSB(-T), LECSC(-T), LECSS, LECSS-T, LECSN-T, LECY, and others, ensuring seamless integration into various systems. Overall, the SMC LEYG32LA-200-R5C918 is an ideal choice for applications requiring precision, reliability, and versatility in electric actuation.