SUN HYDRAULICS
FXAGXHV

***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 FXAGXHV (FXAGXHV) is a fixed orifice, pressure-compensated flow control valve designed to provide precise flow regulation for both meter-in and meter-out applications, even in scenarios with significant pressure fluctuations. This model is available in various flow rates, featuring a sharp-edged orifice design that minimizes variations due to changes in fluid viscosity. Its flush mount capability allows the valve to be installed with a minimal footprint, directly on the manifold surface. The valve can handle pressures up to 5000 psi (350 bar) at ports 1 and 2. The FXAGXHV incorporates Sun's floating style construction, which reduces the risk of internal parts binding from excessive installation torque or variations in cavity and cartridge machining. It fits into a T8A cavity and belongs to series P with a capacity of 0.5 gpm (2 L/min). The valve requires an installation torque between 25-30 lbf ft (35-40 Nm) and uses a Viton seal kit (990008006). Flow tolerances for this model vary by rate: A Flow Rate at 32 cc/min, B Flow Rate at 40 cc/min, D and F Flow Rates at 48 cc/min, H and J Flow Rates at 64 cc/min, and L Flow Rate at 72 cc/min. These valves are claimed to have an accuracy of \u00b110%, with production testing set to \u00b15% for customer condition differences. However, accuracy may be limited below certain flow rates due to spool leakage and orifice conditions. This valve is not suited for addressing heat problems unless properly sized relative to current valves; it may generate heat as priority flow controls are not inherently efficient devices. The compensating pressure is approximately 100 psi (7 bar), sufficient for operational capacity without compromising circuit performance.