SUN HYDRAULICS
EDJ

***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 Sun Hydraulics directly.***
The Sun Hydraulics EDJ (Material Number: EDJ) is a line mount manifold designed for hydraulic systems. This product features a body type suitable for line mounting, with no specific interface required. It includes port 3 connected to port 2, and has two through holes with a diameter of 0.34 inches (8.6 mm) for mounting purposes. The manifold accommodates SAE 8 port sizes and has one open cavity designed to fit the T-11A cavity type, ensuring compatibility with various hydraulic components. Constructed from 6061T651 aluminum, the EDJ manifold offers excellent corrosion resistance without the need for anodizing, which maintains its integrity in demanding environments while also being cost-effective. This material choice ensures durability and longevity even in corrosive conditions. The manifold is specifically engineered to handle pressures up to 3000 psi (210 bar), making it suitable for high-pressure hydraulic applications where reliability and performance are crucial. Its design allows for efficient fluid flow management within hydraulic systems, providing a robust solution for controlling fluid direction and pressure distribution. The Sun Hydraulics EDJ manifold is particularly useful in systems requiring precise fluid control and is compatible with a range of high flow valves. This product's construction from high-quality aluminum not only provides strength but also ensures that it remains lightweight, facilitating easier installation and integration into existing systems. The careful consideration of material properties and design specifications makes the Sun Hydraulics EDJ manifold an ideal choice for applications where space constraints and weight are critical factors alongside performance requirements in hydraulic system design.