690 EL 0008 H3XL-A0V-09A5,0-R0V00 (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 690 EL 0008 H3XL-A0V-09A5,0-R0V00 (1013572B) is an inline filter designed for high-performance filtration applications. This model features a single-filter configuration with a multilayer glass fiber material, designated as H3XL, providing efficient filtration with a grade of 3. The filter is equipped with a bypass valve coded at 9 and has a bypass cracking pressure of 7.0 bar, ensuring reliable operation under varying flow conditions. It is constructed with robust stainless steel housing and support cage material, making it suitable for demanding environments. The filter also includes an FKM seal, identified by the seal code V, which enhances its chemical compatibility and durability. This model supports top mounting and has ports positioned horizontally, conforming to the ISO228-1 standard with G1/2 port designation. It can handle a maximum working pressure of up to 700 bar and has a nominal pressure rating of 690 bar, making it suitable for high-pressure systems. The filter's collapse pressure rating is set at 30 bar, ensuring structural integrity under extreme conditions. Additionally, the Hengst filter includes an optical indicator for monitoring purposes but does not feature a check valve or cyclone effect. The adhesive basis used in this model is PUR-Basis, contributing to its overall reliability and performance in various fluid applications. Its suitability for HFC/HFA fluids expands its versatility across different operational settings. With its precision engineering and durable materials, the Hengst 690 EL 0008 H3XL-A0V-09A5,0-R0V00 provides dependable filtration solutions for critical systems requiring high efficiency and resilience against pressure fluctuations.