1.2000 G60-A00-0-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 1.2000 G60-A00-0-M (1014963B) is a high-performance hydraulic filter element designed to optimize filtration processes by effectively capturing contaminants and ensuring the cleanliness of hydraulic fluids. This filter element features a stainless steel wire mesh media, designated by the filter media code 'G', which is known for its durability and efficient filtration capabilities. With dimensions of 758 mm in length, 160 mm in outer diameter, and 91.5 mm in inner diameter, this component fits seamlessly into compatible systems. The design includes a standard support cage material, ensuring structural integrity during operation. The Hengst 1.2000 G60-A00-0-M is engineered with a nominal size of 2000 and can withstand collapse pressures up to 30 bar, making it suitable for demanding applications where high-pressure conditions are prevalent. Its seal code 'M' indicates the use of NBR (Nitrile Butadiene Rubber) seals, which provide reliable sealing properties under various temperature ranges and fluid types. Additionally, this filter element is compatible with HFC (water-containing) and HFA (oil-in-water emulsion) fluids, enhancing its versatility across different hydraulic systems. This product is part of series '1' and adheres to specific design classifications that prioritize filtration efficiency and longevity. Although it does not conform to DIN24550 standards or feature a support cage-less design, it remains a robust choice for applications requiring consistent performance under pressure. The Hengst 1.2000 G60-A00-0-M's construction ensures minimal pressure loss while maximizing dirt holding capacity, making it an essential component for maintaining system health and operational efficiency in hydraulic environments.