Workable material
Ferrous materials, glass, hard coatings, ceramics, non-alloys and others
Grit size (µm)
250, 125, 74, 54, 40, 20, 9, 5 and 2
Diameter (mm)
Ø200, Ø250 and Ø300
Backing
Cutting rate
Lifetime
Versatility
Workable material
Ferrous materials, glass, hard coatings, ceramics, titanium alloys, non-alloys and others
Grit size (µm)
250, 125, 74, 54, 40, 20, 9, 5 and 2
Diameter (mm)
Ø200, Ø250 and Ø300
Backing
Cutting rate
Lifetime
Versatility
Workable material
Hard metals, glass, hard coatings, ceramics, brittle materials and others
Grit size (µm)
250, 125, 74, 54, 40, 20 and 9
Diameter (mm)
Ø200, Ø250 and Ø300
Backing
Cutting rate
Lifetime
Versatility
Workable material
Hard metals, glass, hard coatings, ceramics, brittle materials and others
Grit size (µm)
250, 125, 74, 54, 40, 20 and 9
Diameter (mm)
Ø200, Ø250 and Ø300
Backing
Cutting rate
Lifetime
Versatility
The term materialography used today is a factual extension of metallography, which include many other groups of materials, such as ceramics, plastics and composite materials that are examined in the same way. Materialography is the science of examining a material's microstructure, which is its internal composition at a microscopic level. By polishing and analyzing a material's surface, materialography helps engineers understand properties like strength, corrosion resistance, and potential failure points.