Moog D661-5046 Pilot-Operated Servovalve for Analog Signals
Moog D661-5046 Pilot-Operated Servovalve for Analog Signals
Product Introduction: It is a member of the Moog D661 series of servo valves, which integrates electronics and an analog interface. The valve core slides in the bushing and is hydraulically pilot-controlled. It is designed to meet the most demanding application requirements and can provide high dynamic performance. It can convert electrical signals into hydraulic signals and then control the actuator through a hydraulic control system to achieve precise control of displacement, speed, etc.
Hydraulic Data: The rated flow rate per land at a pressure difference of 35 bar (500 psi) is 20 to 200 l/min (5.3 to 52.8 gpm); the maximum flow rate is 250 l/min; the maximum operating pressure of ports P, A, and B is 350 bar (5,000 psi); the maximum operating pressure of port T with internal Y is 210 bar (3,000 psi); the maximum operating pressure of port T with external Y is 350 bar (5,000 psi); the step response time for 0 to 100% step is 6.5 to 18 ms.
Electrical Data: The supply voltage is 24 VDC (18 to 32 VDC); the rated signal options are ±10 V and ±10 mA; the electrical connector is 6 + PE; the installation mode is ISO 4401 size 05 (NG 10).
Functional Features: It is a two-stage valve with a sturdy Servo Jet pilot valve, which can achieve excellent dynamic response; the optimized valve body design can obtain a high rated flow rate; it has different fault insurance options to better adapt to different application scenarios; it has high accuracy and excellent static and dynamic performance; the main valve core position uses a displacement sensor for electrical feedback, and the built-in electronic amplifier performs closed-loop control on the valve core displacement to ensure control accuracy and stability; there is no pilot stage internal leakage, so the power consumption is low, and it is especially suitable for multi-valve control systems.
Application Scenarios: Widely used in various industrial fields that require high-precision control and large flow control, such as numerical control machine tools, aerospace, petroleum chemical industry, and electric power. It can be used in equipment that requires precise control of actuator movement, such as the hydraulic control system of numerical control machine tools and the attitude control system of aerospace vehicles.
