EWP 90deg Swivel Elbow Adapter Fitting -16AN OR

The EWP 90deg Swivel Elbow Adapter Fitting -16AN OR from Davies Craig is a precision hose adapter engineered for modern electric water pump cooling systems and high-performance engine builds. This 90-degree swivel fitting accommodates -16AN hose configurations—critical for custom cooling loops where space constraints and directional changes demand flexible, leak-free connections. Whether you're integrating an EWP into a LS engine bay, building a custom water cooling circuit, or retrofitting a classic platform with modern thermal management, this adapter provides the directional versatility that rigid hard-line plumbing cannot achieve.

The 90-degree swivel design allows you to route coolant lines without kinking or crimping, preserving flow integrity and preventing pressure drop across the junction. Davies Craig engineering ensures that this fitting handles the pressure dynamics of electrically driven pump systems, which often operate at variable RPMs and require robust, consistent seal performance. The -16AN designation (metric equivalent -16 metric) is a universal sizing standard in automotive cooling and fuel system applications, ensuring compatibility with braided stainless hose, compression fittings, and barbed adapters throughout your system. The swivel joint mechanism reduces installation stress on connected hose runs and accommodates minor angular misalignment without sacrificing durability.

This adapter is ideal for EWP installations in tight engine compartments, track-focused builds, and street rods where routing efficiency matters. Mechanics and fabricators rely on Davies Craig fittings to eliminate hose whip, reduce vibration-induced wear, and maintain clean, organized cooling layouts. Compatible with -16AN braided hose and standard automotive AN compression adapters, installation requires basic line routing preparation and hose crimping tools. Weighing only 0.6 lbs and measuring a compact 4 x 4 x 4.8 inches, this swivel elbow integrates seamlessly into space-limited environments without compromising flow capacity or system reliability.