Stainless Steel Reducing Hex Bushings

A hex bushing features male threads on the outside and smaller female threads on the inside, fitting inside a female fitting to reduce line size within minimal physical space. An adapter typically couples different thread types or connection configurations and extends the overall run length rather than inserting flush into an existing port.

A bushing is used to reduce the port or line diameter between connecting components, instruments, and pipe runs. Commonly installed in process piping, instrumentation ports, and equipment skids, bushings enable secure transitions between differing pipe dimensions while maintaining structural integrity and leak resistance under system operating pressures.

Yes. Reducing hex bushings are manufactured in various nominal pipe diameters to accommodate step-down requirements across process piping networks. Small bore fittings are provided in sizes from 1/2 inch through 2 inches, offering dependable step-down combinations across ASME pressure classes including 3000# and 6000# ratings.

Our small bore fittings, including forged stainless steel bushings, are available in pressure ratings of 3000# and 6000#. These forged classes are specifically manufactured to meet the strict pressure and temperature demands of industrial fluid circuits, high-pressure process systems, and specialized equipment skid packages.

These forged fittings comply with ASME B16.11 and MSS-SP-83 standards, which govern dimensions, tolerances, materials, and testing protocols. Adherence to these industry standards ensures interchangeability, structural reliability, and secure, leak-free mechanical seals across critical process piping and heavy-duty industrial systems.

Reducing bushings and small bore fittings are supplied in forged stainless steel, forged carbon steel, and specialty alloys. Selecting stainless steel provides enhanced corrosion resistance and long-term durability in demanding process environments, chemical handling applications, and high-pressure industrial fluid networks.