Seamless construction with no weld bead gives this tubing an interior with unrestricted flow. It can be flared without splitting.

This tubing has the strength to withstand vacuum applications up to 29" Hg.

Crimp these fittings to copper tubing with a crimping tool for a leak-tight connection that doesn’t require heat or soldering. They are comparable to Viega ProPress fittings.

Thicker walls make these fittings—sometimes called flareless or bite fittings—withstand about twice as much pressure as standard compression fittings, so they’re good for hydraulic power applications.

Use these fittings in an air vacuum system to avoid the hassle of brazing and welding. Insert two fittings into a clamp and tighten to form a secure seal in steel tubing.

These fittings have two sleeves for extra gripping power. They bite into steel tubing as you tighten the nut to form a strong seal.

The external hex bolt on these fittings allows for easy installation in cramped spaces.

Typically used with standard-wall and low-pressure iron and steel unthreaded pipe fittings. Also known as Schedule 40.

Typically used with thick-wall and high-pressure iron and steel unthreaded pipe fittings. Also known as Schedule 80.

Also known as Schedule 40, this steel pipe is designed for low-pressure applications.

Pipe has clockwise (right-hand) threads on one end and counterclockwise (left-hand) threads on the other end. When you use a wrench to turn, connections on both ends tighten at the same time.

Made of galvanized steel, this Schedule 40 pipe has fair corrosion resistance and is designed for low-pressure applications.

Typically used with medium-pressure galvanized iron and steel threaded pipe fittings. Also known as Schedule 80.

Typically used with high-pressure iron and steel threaded pipe fittings. Also known as Schedule 160.

Typically used with extreme-pressure iron and steel threaded pipe fittings. Also known as Schedule XXH.

Also know as pump connectors, hose is sized to specific lengths for attaching to pumps.

Hook up this hose to a single-hose paint-spray system to transfer oil- and water-based paints.

Metal interlocked strips create a rigid, durable hose that stays strong under high temperatures.

Also known as mild steel, low-carbon steel is easy to machine, form, and weld. It's widely fabricated into parts that don’t require high strength.

The same steel used in automobile bodies, this AHSS (advanced high-strength steel) allows you to fabricate high-strength parts using thinner material than you could with other types of steel. It is formable, weldable, and more economical than alloy steel.

4130 alloy steel has a low carbon content that provides good weldability. It's often used for structural applications.

Also known as FMC, this conduit offers the crush resistance of metal combined with flexibility to handle bends in tight spaces.

These fittings seal out liquids when connecting liquid-tight flexible metal conduit to a knockout in an outlet box or enclosure.

Even in temperatures as low as -50° F and as high as 220° F, this conduit stays flexible.

Run conduit in food areas—the cover can be cleaned and sterilized without weakening or splitting. This conduit meets NSF/ANSI standard 169 for special-purpose food equipment.

Also known as electrical metallic tubing (EMT), this conduit has thin walls that easily bend with a conduit bender and can be cut with a hacksaw.

Attach conduit to a knockout in an outlet box or enclosure.

Attach conduit to a knockout in an outlet box or enclosure.

Join pieces of conduit.

Reduce the knockout size in an outlet box or enclosure so you can attach a different size of conduit to it.

Join different sizes of conduit.

Also known as intermediate metallic conduit (IMC), this is lighter in weight than thick-wall (rigid) steel conduit, yet it has the same strength.

Also known as conduit bodies, these ports provide access to wire and cable inside thick-wall (rigid) metal conduit for pulling, splicing, and maintenance. They are also used to change the direction of a run.

Connect T‐slotted rails and reinforce joints for structural stability.

Attach sensors, tubes, and other components to T-slotted framing rails and structures.

Stay organized with hooks, bin boxes, shelves, and tool holders that work with T-slotted framing.

Add mounting feet and casters to T-slotted framing structures to level equipment, anchor legs to the floor, or add mobility.

Run cable and tubing in the tightest spaces with channel that is one-quarter the height and one-half the width of regular strut channel.

Up to two times the height of regular strut channel, this high-profile channel is stronger than regular strut channel.

This welded, one-piece strut channel combines two strut channels back-to-back.

For compatibility with quick-connect clamps to secure pipe and conduit without screws and tools, this strut channel has narrow slotted holes.

A spring plus serrated grooves that grip the lip of the channel provide a more secure hold than standard strut channel nuts.

Connect two channels to create a stacked channel.

There's no need for additional fasteners with these nuts—they combine a strut channel nut with a spring and a threaded stud.

Also known as insert nuts, these convert slotted holes to threaded round holes and keep them centered in the channel.

Quickly attach these nuts by twisting them closed at any point along a threaded rod.

Use with hex nuts to connect threaded rod.

Keep hardware centered in the strut channel slot.

Push these brackets into strut channel and tighten the included cam screws for a partially concealed connection.

A tab on the end of these shelf brackets fits inside the strut channel for extra stability.

Cover rough ends of strut channel.

Support the corners of strut channel structures.

For quick mounting of components, these hangers snap into strut channels for a strong hold and easy repositioning.