Chukwuma C. Onuoha, Chenxin Jin, Zoheir N. Farhat, Georges J. Kipouros & Kevin P. Plucknett. (2016) The effects of TiC grain size and steel binder content on the reciprocating wear behaviour of TiC-316L stainless steel cermets. Wear 350-351, pages 116-129.
Crossref

Randall M. GermanRandall M. German. 2016. Particulate Composites. Particulate Composites 83 135 .

Shih-Hsien Chang, Ming-Hung Chang & Kuo-Tsung Huang. (2015) Study on the sintered characteristics and properties of nanostructured WC–15 wt% (Fe–Ni–Co) and WC–15 wt% Co hard metal alloys. Journal of Alloys and Compounds 649, pages 89-95.
Crossref

A. I. Tolochin, A. V. Laptev, I. Yu. Okun & M. S. Kovalchenko. (2011) Composite WC–35% Ni produced from ultrafine WC + NiO powders. I. Density and structure. Powder Metallurgy and Metal Ceramics 50:5-6, pages 313-321.
Crossref

V.T. Golovchan & N.V. Litoshenko. (2010) The stress–strain behavior of WC-Co hardmetals. Computational Materials Science 49:3, pages 593-597.
Crossref

A. I. Tolochin, A. V. Laptev, M. E. Golovkova & M. S. Koval’chenko. (2008) Ultrafine high-cobalt hard alloys. II. Connection between mechanical properties and structure. Powder Metallurgy and Metal Ceramics 47:5-6, pages 316-323.
Crossref

Irina Hussainova. (2005) Microstructure and erosive wear in ceramic-based composites. Wear 258:1-4, pages 357-365.
Crossref

Gervais Gauthier, Michel Coster, Liliane Chermant & Jean-Louis Chermant. (1996) Morphological Segmentation of Cutting Tools. Microscopy Microanalysis Microstructures 7:5-6, pages 339-344.
Crossref

M. P. Thomas & A. Rosen. (1995) The validity of transverse rupture strength data for WC-Co hard materials. Journal of Materials Science Letters 14:21, pages 1512-1514.
Crossref

J. J. Fernandes, C. Pacheco Da Silva, L. Guerra Rosa & C. Saraiva Martins. (1994) Effects of surface roughness on the flexural strength of a hardmetal. Journal of Materials Science 29:8, pages 2008-2012.
Crossref

B. Roebuck & E. A. Almond. (1988) Deformation and fracture processes and the physical metallurgy of WC–Co hardmetals. International Materials Reviews 33:1, pages 90-112.
Crossref

Jean-Louis Chermant. (1986) Characterization of the microstructure of ceramics by image analysis. Ceramics International 12:2, pages 67-80.
Crossref

Randall M. GermanRandall M. German. 1985. Liquid Phase Sintering. Liquid Phase Sintering 201 221 .

Randall M. GermanRandall M. German. 1985. Liquid Phase Sintering. Liquid Phase Sintering 223 236 .

M.K. Hibbs, R. Sinclair & D.J. Rowcliffe. (1984) Defect interactions in deformed WC. Acta Metallurgica 32:6, pages 941-947.
Crossref

M. G. Loshak & Yu. B. Gnuchii. (1983) A mechanical model of deformation and failure of tungsten-cobalt hard alloys. Report 1. Strength of Materials 15:11, pages 1558-1569.
Crossref

J. Dusza, Ľ. Parilák, J. Diblḱ & M. Šlesár. (1983) Elastic and plastic behaviour of WC - Co composites. Ceramics International 9:4, pages 144-146.
Crossref

V Jayaram, R Sinclair & D.J Rowcliffe. (1983) Intergranular cracking in WC-6% Co: An application of the von mises criterion. Acta Metallurgica 31:3, pages 373-378.
Crossref

Hellmut F. Fischmeister. 1983. Science of Hard Materials. Science of Hard Materials 1 45 .

K. S. Chernyavskii & G. G. Travushkin. (1980) Modern concepts of the relationship of structure and strength of WC-Co sintered carbides (review). Strength of Materials 12:4, pages 412-422.
Crossref

C. T. Peters. (1979) The relationship between Palmqvist indentation toughness and bulk fracture toughness for some WC-Co cemented carbides. Journal of Materials Science 14:7, pages 1619-1623.
Crossref

H. E. Exner. (1979) Physical and chemical nature of cemented carbides. International Materials Reviews 24:1, pages 149-173.
Crossref

S. Malkin & R. Levinger. (1978) Quantitative characterization of surface damage to WC-cobalt composites by electrochemical grinding. Wear 51:1, pages 157-167.
Crossref

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