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Toughening of chromium-manganese-molybdenum steel with unstable austenite
Toughening of melt one, after deformation at 1000 and 500 C and at 1000 to 300 C, was achieved as result of martensitic transformation caused by subsequent cooling; toughening of melts two and three was achieved by martensitic transformation during plastic deformation at room temperature and at -196 C; after toughening and tempering at 500 C, steel had high strength (176 to 186 kg/sq mm) with satisfactory plasticity (6 to 10%). (see also English translation in Metal Science and Heat Treatment n 3-4 Mar-Apr 1964 p 197-9)
Toughening of chromium-manganese-molybdenum steel with unstable austenite
Toughening of melt one, after deformation at 1000 and 500 C and at 1000 to 300 C, was achieved as result of martensitic transformation caused by subsequent cooling; toughening of melts two and three was achieved by martensitic transformation during plastic deformation at room temperature and at -196 C; after toughening and tempering at 500 C, steel had high strength (176 to 186 kg/sq mm) with satisfactory plasticity (6 to 10%). (see also English translation in Metal Science and Heat Treatment n 3-4 Mar-Apr 1964 p 197-9)
Toughening of chromium-manganese-molybdenum steel with unstable austenite
Uprochnenie khromomargantsevomolibdenovoi stali s nestabil'nym austenitom
Kovalenko, O.I. (author)
1964
3 pages
Article (Journal)
Russian
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