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3M Trizact Cloth Belt 217EA uses proprietary microreplication technology in which micron-graded aluminum oxide particles are formed into tiny pyramids of abrasive mineral and then coated on a JE-weight rayon backing. As these pyramids wear, fresh, sharp mineral is continually exposed to produce a consistent cut and a predictable, fine finish.

3M Trizact Cloth Belt 217EA uses proprietary microreplication technology in which micron-graded aluminum oxide particles are formed into tiny pyramids of abrasive mineral and then coated on a JE-weight rayon backing. As these pyramids wear, fresh, sharp mineral is continually exposed to produce a consistent cut and a predictable, fine finish.

3M Trizact Cloth Belt 217EA uses proprietary microreplication technology in which micron-graded aluminum oxide particles are formed into tiny pyramids of abrasive mineral and then coated on a JE-weight rayon backing. As these pyramids wear, fresh, sharp mineral is continually exposed to produce a consistent cut and a predictable, fine finish.

3M Trizact Cloth Belt 217EA uses proprietary microreplication technology in which micron-graded aluminum oxide particles are formed into tiny pyramids of abrasive mineral and then coated on a JE-weight rayon backing. As these pyramids wear, fresh, sharp mineral is continually exposed to produce a consistent cut and a predictable, fine finish.

Scotch-Brite EXL Deburring Wheel features a hard, dense consistency that quickly deburrs, finishes, and polishes all types of metals, composites, glass and leaves a smooth, clean surface. Its conformable characteristic makes the wheel ideal for deburring stamped or laser cut parts, or for finishing after belt sanding.

Scotch-Brite EXL Deburring Wheel features a hard, dense consistency that quickly deburrs, finishes, and polishes all types of metals, composites, glass and leaves a smooth, clean surface. Its conformable characteristic makes the wheel ideal for deburring stamped or laser cut parts, or for finishing after belt sanding.

3M Trizact Cloth Belt 217EA uses proprietary microreplication technology in which micron-graded aluminum oxide particles are formed into tiny pyramids of abrasive mineral and then coated on a JE-weight rayon backing. As these pyramids wear, fresh, sharp mineral is continually exposed to produce a consistent cut and a predictable, fine finish.

3M Trizact Cloth Belt 217EA uses proprietary microreplication technology in which micron-graded aluminum oxide particles are formed into tiny pyramids of abrasive mineral and then coated on a JE-weight rayon backing. As these pyramids wear, fresh, sharp mineral is continually exposed to produce a consistent cut and a predictable, fine finish.

3M Trizact Cloth Belt 217EA uses proprietary microreplication technology in which micron-graded aluminum oxide particles are formed into tiny pyramids of abrasive mineral and then coated on a JE-weight rayon backing. As these pyramids wear, fresh, sharp mineral is continually exposed to produce a consistent cut and a predictable, fine finish.

3M Trizact Cloth Belt 217EA uses proprietary microreplication technology in which micron-graded aluminum oxide particles are formed into tiny pyramids of abrasive mineral and then coated on a JE-weight rayon backing. As these pyramids wear, fresh, sharp mineral is continually exposed to produce a consistent cut and a predictable, fine finish.

3M Trizact Cloth Belt 217EA uses proprietary microreplication technology in which micron-graded aluminum oxide particles are formed into tiny pyramids of abrasive mineral and then coated on a JE-weight rayon backing. As these pyramids wear, fresh, sharp mineral is continually exposed to produce a consistent cut and a predictable, fine finish.

3M Trizact Cloth Belt 217EA uses proprietary microreplication technology in which micron-graded aluminum oxide particles are formed into tiny pyramids of abrasive mineral and then coated on a JE-weight rayon backing. As these pyramids wear, fresh, sharp mineral is continually exposed to produce a consistent cut and a predictable, fine finish.