These high-density ceramic oxide wheels have two layers of fiberglass mesh reinforcement and last up to twice as long as long-life cutoff wheels when cutting aluminum, iron, stainless steel, and steel.

The combination of ceramic alumina and zirconia alumina in these wheels lasts up to ten times longer than aluminum oxide when cutting hard metal such as Inconel, Hastelloy, and tool steel.

Made of premium grade abrasives, these wheels are strong and thick for making notches in aluminum, iron, stainless steel, and steel.

Also known as Type 27, raised-hub, and depressed-center cutoff wheels, these wheels outperform Type 1 wheels when making flush cuts.

Prevent corrosion and discoloration on stainless steel—these wheels contain less than 0.1% iron, chloride, and sulfur contaminants.

Also known as Type 27, raised-hub, and depressed-center cutoff wheels, these wheels outperform Type 1 wheels when making flush cuts.

Use these wheels to cut through metal such as aluminum, iron, stainless steel, and steel.

A ceramic alumina abrasive cuts through stainless steel.

These non-reinforced aluminum oxide wheels create the nearly polished finish required for testing metal.

Two layers of fiberglass mesh reinforcement give these fast-cutting, zirconia alumina wheels at least three times the life of standard cutoff wheels when aluminum, iron, stainless steel, and steel.

These wheels have a zirconia alumina abrasive for cutting ductile cast iron.

These wheels are thinner than standard bench-top cutoff saw wheels, so they cut through aluminum, iron, stainless steel, and steel more quickly.

These wheels are reinforced with fiberglass mesh and designed to last longer than standard wheels when cutting ductile cast iron.

These wheels have a blend of aluminum oxide and silicon carbide abrasives for cutting ductile cast iron.

Make cuts in most metal, including aluminum, iron, stainless steel, and steel.

Cut wood, plywood, and particleboard.

Use these blades for occasional cutting.

A continuous edge on these blades produces smooth cuts. It's coated in diamond grit to cut hard, abrasive materials such as masonry, stone, asphalt, and concrete.

The edge of the blade is segmented to cut faster than a continuous edge.

A razor-sharp knife edge minimizes dust and makes quick, clean cuts through foam sheets such as expanded polystyrene insulation and extruded polystyrene.

A blend of tungsten carbide and diamond grits on the continuous edge of these blades cuts hard, nonmetallic materials including composites and graphite.

Diamond grit bonded to a segmented edge cuts through hard metal such as cast iron.

Make fast, clean cuts in steel sheets, angle iron, rebar, and pipe with the carbide teeth on these blades.

These blades have a continuous edge with diamond grit to cut through ceramics.

A tungsten carbide grit edge cuts through abrasive materials such as composites and fiberglass.

The edge of the blade is segmented to cut faster than a continuous edge.

The edge of the blade is segmented to cut faster than a continuous edge.

Also known as rip blades, these steel blades have large, forward-angled, carbide-tipped teeth for making fast cuts.

Cut wood, plywood, and particleboard.

Also known as dado-head blades, these are for cutting grooves in all types of wood.

Produce smooth cuts in plastic materials including polycarbonate, polyurethane, PVC, and acrylic with the carbide-tipped teeth on these blades.

A blend of tungsten carbide and diamond grits on the continuous edge of this blade cuts hard, nonmetallic materials including composites and graphite.

Make fast, clean cuts in steel sheets, angle iron, rebar, and pipe with the carbide teeth on these blades.

Prevent clogging when cutting soft metal—these blades have plenty of space between the carbide-tipped teeth to allow chips to escape.

Blades and teeth are steel and treated to a Rockwell Hardness between C63 and C65 for increased wear resistance when cutting through steel and cast iron bars, rods, pipe, and tubing.

The blade edge is coated in diamond grit.

This economy cutoff saw has a lightweight nylon handle and is for less prolonged use than the standard air-powered portable cutoff saw.

The right-angle position of this saw's blade makes it suitable for both cutting and grinding with an abrasive wheel.

Make plunge cuts with the rotating cutting bit, or attach a cutoff wheel for straight cuts.

A high-torque motor powers these saws through tough metal, such as angle iron and tool steel. These saws must be hardwired.

Make fast cuts through tough metal, such as angle iron and flat bar, with more than twice the horsepower of bench-top cutoff saws. These saws must be hardwired.

Combine a holder and carbide insert to perform cutoff and grooving tasks on a lathe.

Fit these holders directly into a lathe tool post or appropriately sized holder without the need for a tool block.

Fit these holders directly into a lathe tool post or appropriately sized holder without the need for a tool block.

The rounded nose on these inserts contours the outside of the workpiece and cuts grooves with rounded edges.

Also known as parting blades, use these to separate a finished part from the workpiece.

The carbide tip brazed onto these blades is more wear resistant than high-speed steel.

Made of solid carbide, these saws are harder, stronger, and more wear resistant than high-speed steel for the longest life and best finish on hard material. Use them for cutoff, slitting, and slotting applications.

Also known as jeweler's slotting saws and metal slitting saws, these saws are good for use on wire, tubing, extrusions, and other very thin material that requires delicate cuts.

Attach cutoff wheels, grinding wheels, and other abrasive wheels to hand-held drills and die grinders.

Install cutoff wheels, grinding wheels, and other abrasive discs to the threaded shaft on bench-top motors, grinders, and buffers.

Securely hold cutoff blades in a quick-change tool post.