SGMVV-5ED3BLE Original Yaskawa Large capacity servo motor SGMVV-5ED3BLE
Introducing Yaskawa’s Premier Servo Motor: SGMVV-5ED3BLE
The Yaskawa SGMVV-5ED3BLE Large Capacity Servo Motor exemplifies cutting-edge engineering and precision control suited for a range of sophisticated applications. Tailored for high performance, this servo motor integrates advanced technology with reliable engineering, making it an ideal choice for industries demanding unparalleled efficiency and versatility.
Product Specifications
Feature | Details |
---|---|
Brand | Yaskawa |
Model | SGMVV-5ED3BLE |
Rated Output | 55 kW |
Voltage | Three phase AC 400V |
Serial Encoder | 20 Bit Absolute Value Type |
Rated Speed | 1500 r/min |
Main Mechanical Structure | Support mounting type, straight shaft with keyway and screw |
Optional Parts | Hold brake (DC 24V), Oil seal |
Innovative Design and Functionality
Designed for a spectrum of applications, the SGMVV-5ED3BLE showcases exceptional capabilities with a rated output ranging from 22 kW to 55 kW. With a no-speed reducer setup, this motor efficiently handles inertia and maximizes torque, making it suitable for both light and heavy loads. The motor’s robust construction ensures reliable operation—massive thrust coupled with a high speed of 1500 r/min means that even dynamic loads are managed seamlessly.
Applications and Industry Potential
The Yaskawa SGMVV-5ED3BLE is not just a component; it becomes the heart of precision control in automation systems. Its versatile design lends itself well to various applications, from semiconductor manufacturing to electronic packaging and general machinery. Its unwavering consistency guarantees performance, preserving both speed and precision, while the advanced encoder technology ensures optimal feedback for enhanced operational control.
Reliability Meets Efficiency
With Yaskawa’s rich heritage of innovation and reliability, this servo motor guarantees compliance with international standards, ensuring it can be trusted for global applications. The unique design minimizes speed fluctuations and promotes a stable operation with reduced vibrational effects, empowering engineers and technicians to create efficient, robust systems that adapt to ever-evolving demands.