17.100 PWR10-G00-0-M (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 17.100 PWR10-G00-0-M (1007603B) is a high-performance hydraulic filter element designed to optimize filtration efficiency in various hydraulic systems. This filter element plays a crucial role in maintaining the cleanliness and performance of hydraulic fluids by effectively capturing contaminants. It features a multilayer glass fiber material, known for its excellent retention and dirt holding capacity, ensuring minimal pressure loss during operation. The filter measures 197 mm in length, with an outer diameter of 60 mm and an inner diameter of 32.3 mm, making it suitable for applications requiring compact yet efficient filtration solutions. Engineered to withstand a collapse pressure rating of 16 bar, this filter element is robust and reliable under demanding conditions. The design includes an NBR seal (seal code M), which provides excellent compatibility with various hydraulic fluids, ensuring leak-free performance. The support cage material is standard, contributing to the structural integrity of the filter without compromising on weight or space. This model does not include suitability for HFC/HFA fluids or compliance with DIN24550 standards, focusing instead on delivering optimal performance in conventional hydraulic systems. With its nominal size of 100 and part of the series 17 design class, the Hengst 17.100 PWR10-G00-0-M is ideal for applications where precise filtration is essential to protect sensitive components from wear and damage due to particulate contamination. Overall, the Hengst 17.100 PWR10-G00-0-M offers a reliable solution for maintaining system efficiency and longevity by providing superior filtration capabilities tailored to meet specific operational requirements within hydraulic systems.