SUN HYDRAULICS
ZAG

***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 ZAG (Material Number: ZAG) is a line mount manifold designed with a cross pilot and shuttle body feature, providing efficient hydraulic flow management. This manifold is crafted for systems requiring robust and reliable hydraulic solutions, particularly in applications where space optimization and streamlined installation are crucial. The mounting hole specifications include a diameter of 10.4 mm (.41 in.) with two through holes, ensuring secure attachment in various setups. The ZAG model features an SAE 20 port size, suitable for accommodating substantial fluid flow rates while maintaining system integrity. With open cavities designed to house T-17A cavities, this manifold offers flexibility in configuring hydraulic circuits tailored to specific operational needs. Constructed from 6061T651 aluminum, the Sun Hydraulics ZAG manifold boasts high corrosion resistance without the need for anodizing, making it ideal for environments where durability against corrosive elements is essential. Despite the absence of anodizing, the choice of material ensures that this manifold can withstand pressures up to 3000 psi (210 bar), contingent on system design considerations. This pressure rating makes it suitable for medium-pressure hydraulic applications where reliability and performance are paramount. The Sun Hydraulics ZAG is engineered to seamlessly integrate into existing hydraulic systems or new designs requiring versatile and efficient fluid control components. Its design caters to a wide array of applications by offering customizable configurations through its open cavity structure and standardized port sizing. This adaptability allows engineers and technicians to optimize their hydraulic systems for enhanced performance across diverse operational scenarios.