RV08-20A-6T-V-09/06.5 RELIEF VALVE

***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 Hydraforce directly.***
The Hydraforce 5600065.06.5 (5600065.06.5) is a precision-engineered hydraulic relief valve, designed specifically for lower flow circuits that demand minimal internal leakage. Known as the RV0820X, this valve is a screw-in, cartridge style, direct-acting, poppet type relief valve that plays a crucial role in hydraulic systems by controlling the pressure levels within the circuit. The operation of the RV0820X involves blocking flow from port 1 to port 2 until the pressure at port 1 is sufficient to displace the spring-opposed poppet from its seat, thereby allowing flow through the valve. This model boasts several key features aimed at enhancing performance and adaptability across various applications. It offers multiple pressure adjustment options, including non-adjustable factory presets and positive stops in adjustments options A, B, and C to prevent springs from going solid. This ensures reliable operation and longevity of the valve under different conditions. Additionally, it can handle optional spring ranges up to 248 bar (3600 psi) and responds rapidly to changes in pressure. For applications requiring bidirectional pressure control, this model can be equipped with a bidirectional pressure seal option. Its compact size makes it ideal for integration into space-constrained environments while maintaining high efficiency and reliability in its function. The Hydraforce RV0820X also includes notes on supersession and considerations for replacement with newer models like the RVD5820 which offers comparable or enhanced features such as better pressure rise characteristics and smaller size for competitive costs. The VC082B cavity variation might be required for installation depending on specific manifold configurations.