SMC LEJS40T6A-700-R2 LEJS Series Electric Actuator/High Rigidity Slider Type Ball Screw Drive AC Servo Motor Corresponding To LECS -T Series Driver

The SMC LEJS40T6A-700-R2 Electric Actuator is a high-performance solution designed for precision and reliability in demanding industrial applications. This actuator features a high rigidity slider type ball screw drive, ensuring optimal performance with an AC servo motor that seamlessly integrates with the LECS-T Series Driver. Engineered for efficiency, the LEJS40T6A-700-R2 boasts a low-profile design with a reduced height dimension by approximately 36%, enhancing stability with a lower center of gravity. This makes it ideal for applications where space is at a premium without compromising on performance. The actuator supports a maximum workload of 85 kg, making it suitable for heavy-duty tasks. Precision is at the core of the LEJS Series, offering a positioning repeatability of ±0.02 mm, ensuring consistent and accurate operations. It is capable of handling rapid movements with a maximum acceleration and deceleration of 20000 mm/S², which is essential for high-speed automation processes. For environments requiring stringent cleanliness standards, the LEJS40T6A-700-R2 complies with ISO Class 4 (Class 10) cleanroom specifications, specifically in the 11-LEJS model, making it suitable for sensitive applications such as semiconductor manufacturing and pharmaceutical production. Compatibility is a key feature, with the actuator supporting a range of drivers including LECSA, LECSB(-T), LECSC(-T), LECSS, LECSS-T, LECSN-T, and LECY. Although some models like LECSB-S, LECSC-S, and LECSS-S have been discontinued, the LEJS40T6A-700-R2 remains versatile for integration into existing systems. This actuator is an ideal choice for engineers and manufacturing professionals seeking a robust, precise, and adaptable solution for their automation needs. With its advanced features and compliance with industry standards, the LEJS40T6A-700-R2 is engineered to enhance productivity and operational efficiency.