FLOW-CONTROL VALVE 2FRM16-3X/125L

***Disclaimer: The following summary contains information gathered from various sources such as product descriptions, technical specifications and catalogs. While efforts have been made to provide accurate details, inaccuracies may occur. It is advised to verify all information by contacting Bosch Rexroth directly.***
The Bosch Rexroth 2FRM16-3X/125L (R900447971) is an industrial hydraulic valve designed for precise and reliable control of fluid flow to a set value. This direct-actuated valve is part of the high-performance range, offering robust operation without the need for a pressure compensator. It features stroke limitation and a lockable rotary knob with an easily readable scale, enhancing user control and safety during operation. The spool symbol configuration for this valve is A to B and B to A, indicating its capability for bidirectional flow control. The 2FRM16-3X/125L can withstand a maximum pressure that suits it for demanding applications, while its mechanical actuation ensures direct response to operator input. This model is notable for its subplate mounting design, which allows for secure installation and straightforward maintenance. With a size that conforms to the specified requirements, this valve can manage max flow rates efficiently. It also includes an ISO standard connection diagram that simplifies integration into existing hydraulic systems. The number of ports on this model facilitates the necessary connections for system compatibility. The type of actuation is purely mechanical, providing users with tactile feedback and precision in controlling flow rates. Its weight has been optimized to balance durability with ease of handling during installation or servicing. Equipped with NBR seals, the 2FRM16-3X/125L ensures leak-proof performance when used with various types of hydraulic fluids such as HL, HLP, HLPD, HVLP, HVLPD, and HFC. These features make the Bosch Rexroth 2FRM16-3X/125L valve an essential component in industrial hydraulics where reliable performance under varying conditions is critical.