Crystallography and metallography of carbides in high alloy steels

Materials Characterization

Volumn 59, Issue 7, 2008, Pages 825-841

  Hetzner, Dennis W ^a   Van Geertruyden, William ^b  

^a TIMKEN COMPANY   (United States)

^b EMV Technologies LLC   (United States)

Author keywords

Carbides; Carburizable bearing steels; Crystallography; Electron beam backscattered diffraction; High speed steels; X ray diffraction

Indexed keywords

CRYSTALLOGRAPHY; ELECTRON BEAMS; STEEL; X RAY DIFFRACTION;

CARBURIZABLE BEARING STEELS; HIGH SPEED STEELS;

CARBIDES;

EID: 43849098179     PISSN: 10445803     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.matchar.2007.07.005     Document Type: Article

References (31)

1. Arbusow M., and Kurdjumow G. J Phys USSR 5 (1941) 101
2. Gludd W., Otto K.V., and Ritter H. Ber dtsch chem Ges 62 (1929) 2483
3. Jack K.H. Structural transformations in the tempering of high carbon martensitic steel. JISI 169 (1951) 26-36
4. Hirotsu Y., and Nagakura S. Crystal structure and morphology of the carbide precipitation from martensite high carbon steel during the first stage of tempering. Acta Met 20 (1972) 645-655
5. Beswick J.M. The effect of prior cold work on the martensite transformation in 52100 steel. Met Trans A 15A 2 (Feb. 1984) 299-306
6. The International Centre for Diffraction Data, Powder Diffraction Data, Newton Square, PA.
7. Boehm HH, Gang DH. Unpublished. Timken Research, ca 1967.
8. Metals handbook. 8th Ed. Metallography, Structure and Phase Diagrams vol. 8 (1973), ASM, Metals Park, OH 404
9. Goldschmidt H.J. The structure of carbides in alloy steels, part I - general survey. JISI (Dec. 1948) 345-362
10. Goldschmidt H.J. The structure of carbides in alloy steels, part II - carbide formation in high speed steels. JISI (March 1952) 189-204
11. Blickwede D.J., Cohen M., and Roberts G.A. The effect of vanadium on the constitution of high speed steel. TASM 142 (1950) 1161-1191
12. Blickwede D.J., and Cohen M. The isolation of carbides from high speed steel. Met Trans. 185 (1949) 578-584
13. Kayser F., and Cohen M. Carbides in high speed steels. Met Prog (June 1952) 9-85
14. Crafts W., and Lamont J.L. Secondary hardening of tempered martensitic alloy steel. Trans AIME 180 (1949) 471-512
15. Bridge J.E., Manir G.N., and Philip T.V. Carbides in M-50 high speed steel. Met Trans 2 (Aug. 1971) 2209-2214
16. ASTM E975.
17. VanderVoort G.F., Manilova E.P., and Michael J.R. A study of selective etching of carbides in steel. Microsc Microstruct Anal 10 Suppl 2 (2004) 76-77
18. VanderVoort, G.F., Metals Handbook, 9th Ed., Vol. 9.
19. Michael J.R., and Goehner R.P. crystallographic phase identification in the scanning electron microscope: backscattered electron Kikuchi patterns imaged with a CCD-based detector. MSA Bull 23 (1993) 168
20. US Patent #4,659,241.
21. US Patent #6,702,981.
22. Hetzner D.W. Carburizable high speed steel alloys. In: Beswick J.M. (Ed). Bearing Steel Technology. ASTM, STP vol. 419 (2001), American Society for Testing and Materials, West Conshohocken, PA
23. Hetzner D.W. Continued developments in easily carburizable high speed steel alloys. J. ASTM Int. 3 2 (Feb. 2006)
24. US Patent #5,002,729.
25. US Patent #5,424,028.
26. ASTM E963.
27. International tables for X-ray crystallography. Symmetry Groups vol. I (1962), The International Union of Crystallography, Birmingham, England
28. Richardson F.D. The thermodynamics of metallurgical carbides and of carbon in iron. JISI 175 (Sept. 1953) 33-51
29. 2C carbide and the ferrite matrix in the M50-Nil bearing steel. Met Trans 33A 7 (2002) 1963-1969
30. 2C Carbide Precipitation. Innovations in ultrahigh-strength steel technology. Proc. 34th Sagamore Conf., Lake George, NY, U. S. Army Lab. Comm., MTL, Adelphi, MD (1987) 89-111
31. Madeleine Durand-Charre, The Microstructure of Steels and Cast Irons, Ed. Springer, Chapter 4, p. 51-73.