10TD2500-1X/PWR10A00-P2,2-M-S10-MP (2 PACK)

***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 Hengst directly.***
The Hengst 10TD2500-1X/PWR10A00-P2,2-M-S10-MP (1013333B) is a hydraulic tank-mounted return line filter designed for efficient filtration of solids from liquids within hydraulic or lubrication systems. This duplex filter features a multilayer glass fiber material designated as PWR10, providing a filtration grade of 10. It is constructed with an aluminum housing and utilizes NBR seals, ensuring durability and reliability in various applications. The nominal size of the filter is 2500, and it supports a maximum working pressure of 10 bar with a bypass cracking pressure of 3.5 bar. Designed for tank top mounting, it incorporates a segment change-over valve for ease of use and maintenance. This model is equipped with an optical indicator to signal when the filter requires servicing, enhancing operational efficiency and reducing downtime. The port designation is 3'' - 3000psi, conforming to SAE standards, and features horizontal port positioning for streamlined installation. The support cage material is standard, while the adhesive basis used in its construction is PUR-Basis. The product's design classifies it as suitable for tank-mounted applications where high-performance filtration is essential. Ideal for systems requiring robust filtration capabilities, this model ensures effective removal of contaminants to maintain fluid cleanliness and protect system components from wear and damage. Its suitability for HFC/HFA fluids further broadens its application range in specific environments where these fluids are used. With its reliable performance and thoughtful design features, the Hengst 10TD2500-1X/PWR10A00-P2,2-M-S10-MP serves as an integral component in maintaining optimal system functionality and longevity.