Holley 19-395 Sniper Billet EFI Fuel Pressure Regulator with 8AN ORB Ports and Bypass for Gas, E85, and Methanol

The Holley 19-395 Sniper Billet EFI Fuel Pressure Regulator delivers precise fuel pressure regulation for high-performance fuel injection systems. Designed with a durable aluminum body, this regulator features a black anodized finish that resists corrosion and adds a sleek look to your engine bay. It supports fuel pressures from 40 to 130 psi, making it suitable for a variety of racing and performance applications. The regulator includes multiple O-ring ports for secure connections: 8 AN female O-ring inlet, 8 AN female O-ring outlet, and 6 AN female O-ring return, ensuring leak-free performance under demanding conditions. Additionally, a 1/8-inch NPT port allows for auxiliary connections or gauge installation, enhancing system monitoring and control. The bypass feature helps maintain stable fuel pressure during throttle changes, contributing to smoother engine operation and optimal fuel delivery. Crafted from high-quality materials, this regulator is compatible with gasoline, E85, and methanol fuels, offering versatility for different fuel setups. Its compact design allows for flexible installation options within your fuel system. Whether upgrading an existing setup or building a custom fuel system, the Holley Sniper EFI Fuel Pressure Regulator provides reliable performance with precise control and durable construction, making it an essential component for high-performance and racing applications.

Features:

• Supports fuel pressure from 40 to 130 psi for versatile performance tuning

• Aluminum body with black anodized finish for durability and corrosion resistance

• Includes 8 AN female O-ring inlet and outlet ports for secure fuel connections

• 6 AN female O-ring return port for excess fuel management

• 1/8-inch NPT port for auxiliary gauges or sensors

• Bypass feature maintains stable fuel pressure during throttle changes

• Compatible with gasoline, E85, and methanol fuels for flexible fuel system design