Dixon Valve Coupling MSCAM2 Universal Hose Coupling 1/2 in Npt

Product Description

The DIXON VALVE COUPLING MSCAM2 is a universal hose coupling with male NPT ends, designed for connecting hose assemblies in fluid-handling systems. Built from malleable iron, it delivers reliable durability in demanding service environments. The coupling features a 1/2 inch NPT thread standard and is rated for a maximum working pressure of 150 psi. This type of fitting is commonly installed by plumbers, pipefitters, and industrial maintenance technicians wherever secure, leak-resistant hose terminations are required.

The MSCAM2 coupling is suited for use in plumbing, irrigation, industrial fluid transfer, and general-purpose hose connection applications. Its NPT thread form ensures compatibility with standard pipe and hose fittings found in residential, commercial, and light industrial settings. The malleable iron construction makes it appropriate for applications where ductility and resistance to impact stress are priorities over corrosion resistance in wet or chemical environments.

Key Features

• 1/2 inch NPT thread on male ends for standard pipe system integration
• Malleable iron construction provides impact resistance and durability under stress
• Rated to 150 psi maximum working pressure
• Universal hose coupling design for broad fitment across common hose assemblies
• Compact and lightweight at 0.1 pounds for easy handling during installation

Compatibility

Designed as an OEM-style replacement or service fitting for standard 1/2 inch NPT hose coupling applications in plumbing and fluid transfer systems.

Installation Notes

Installation is typically performed by a licensed plumber or pipefitter following applicable IPC and local plumbing code requirements. Shut off the water supply and relieve system pressure before removing or installing any coupling. Apply thread sealant tape or compound to NPT threads per manufacturer and code recommendations to ensure a leak-free joint. Do not overtighten malleable iron fittings, as the material can crack under excessive torque.