Microstructure of Ti(CN)-WC-NbC-Ni Cermets

An investigation of the microstructural evolution and dissolution phenomena in a Ti(C0.7N0.3)–xWC–yNbC–20Ni system is reported. In Ti(C0.7N0.3)–yNbC–20Ni systems, a phase separation occurs between the Ti(CN) core and the (Ti,Nb)(CN) rim phases when the system contains >15 wt% NbC. This phase sepa...

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Published inJournal of the American Ceramic Society Vol. 84; no. 4; pp. 843 - 849
Main Authors Ahn, Sun-Yong, Kim, Seong-Won, Kang, Shinhoo
Format Journal Article
LanguageEnglish
Published Westerville, Ohio American Ceramics Society 01.04.2001
Blackwell
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Abstract An investigation of the microstructural evolution and dissolution phenomena in a Ti(C0.7N0.3)–xWC–yNbC–20Ni system is reported. In Ti(C0.7N0.3)–yNbC–20Ni systems, a phase separation occurs between the Ti(CN) core and the (Ti,Nb)(CN) rim phases when the system contains >15 wt% NbC. This phase separation results from the increased misfit between the cores and the solid‐solution rim phases with the addition of NbC. Based on data obtained from a previous study and compositional analyses of the rim structure of the Ti(C0.7N0.3)–yNbC–20Ni system, the average dissolution rates of WC and NbC appear to be approximately the same with respect to that of Ti(CN), under given sintering conditions (1510°C for 1 h). In addition, compositional changes in the rim structure of the Ti(C0.7N0.3)–xWC–yNbC–20Ni system are compared with those for a Ti(C0.7N0.3)–xWC–20Ni system to explain the effect of NbC on WC dissolution in the Ti(C0.7N0.3)–WC–NbC–Ni system. The presence of NbC in the Ti(C0.7N0.3)–xWC–20Ni system is found to suppress the dissolution of WC.
AbstractList An investigation of the microstructural evolution and dissolution phenomena in a Ti(C0.7N0.3)–xWC–yNbC–20Ni system is reported. In Ti(C0.7N0.3)–yNbC–20Ni systems, a phase separation occurs between the Ti(CN) core and the (Ti,Nb)(CN) rim phases when the system contains >15 wt% NbC. This phase separation results from the increased misfit between the cores and the solid‐solution rim phases with the addition of NbC. Based on data obtained from a previous study and compositional analyses of the rim structure of the Ti(C0.7N0.3)–yNbC–20Ni system, the average dissolution rates of WC and NbC appear to be approximately the same with respect to that of Ti(CN), under given sintering conditions (1510°C for 1 h). In addition, compositional changes in the rim structure of the Ti(C0.7N0.3)–xWC–yNbC–20Ni system are compared with those for a Ti(C0.7N0.3)–xWC–20Ni system to explain the effect of NbC on WC dissolution in the Ti(C0.7N0.3)–WC–NbC–Ni system. The presence of NbC in the Ti(C0.7N0.3)–xWC–20Ni system is found to suppress the dissolution of WC.
An investigation of the microstructural evolution and dissolution phenomena in a Ti(C 0.7 N 0.3 )– x WC– y NbC–20Ni system is reported. In Ti(C 0.7 N 0.3 )– y NbC–20Ni systems, a phase separation occurs between the Ti(CN) core and the (Ti,Nb)(CN) rim phases when the system contains >15 wt% NbC. This phase separation results from the increased misfit between the cores and the solid‐solution rim phases with the addition of NbC. Based on data obtained from a previous study and compositional analyses of the rim structure of the Ti(C 0.7 N 0.3 )– y NbC–20Ni system, the average dissolution rates of WC and NbC appear to be approximately the same with respect to that of Ti(CN), under given sintering conditions (1510°C for 1 h). In addition, compositional changes in the rim structure of the Ti(C 0.7 N 0.3 )– x WC– y NbC–20Ni system are compared with those for a Ti(C 0.7 N 0.3 )– x WC–20Ni system to explain the effect of NbC on WC dissolution in the Ti(C 0.7 N 0.3 )–WC–NbC–Ni system. The presence of NbC in the Ti(C 0.7 N 0.3 ) –x WC–20Ni system is found to suppress the dissolution of WC.
Titanium carbonitride-based cermets are important components of high speed cutting tools. A typical hard phase in cermets has a core/rim structure. Dissolution-reprecipitation is involved in the mechanism for the formation of the structure. An investigation of the microstructural evolution and dissolution phenomena in a Ti(C sub 0.7 N sub 0.3 )-xWC-yNbC-20Ni system is reported. In Ti(C sub 0.7 N sub 0.3 )-yNbC-20Ni systems, a phase separation occurs between the Ti(CN) core and the (Ti,Nb)(CN) rim phases when the system contains > 15 wt.% NbC. This phase separation results from the increased misfit between the cores and the solid-solution rim phases wtih the addition of NbC. Based on data obtained from a prevous study and compositional analyses of the rim structure of the Ti(C sub 0.7 N sub 0.3 )-yNbC-20Ni system, the average dissolution rates of WC and NbC appear to approximately the same with respect to that of Ti(CN), under given sintering conditions (1510 deg C for 1 h). In addition, compositional changes in the rim structure of the Ti(C sub 0.7 N sub 0.3 )-xWC-yNbC-20Ni system are compared with those for a Ti(C sub 0.7 N sub 0.3 )-xWC-20Ni system to explain the effect of NbC on WC dissolution in the Ti(C sub 0.7 N sub 0.3 )-WC-NbC-Ni system. The presence of NbC in the Ti(C sub 0.7 N sub 0.3 )-xWC-20Ni system is found to suppress the dissolution of WC.
Author Kim, Seong-Won
Ahn, Sun-Yong
Kang, Shinhoo
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  fullname: Kang, Shinhoo
  organization: School of Materials Science and Engineering, Seoul National University, Seoul 151-742, Korea
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Issue 4
Keywords Tungsten carbide
Niobium carbide
Cermet
Phase separation
Titanium Carbides nitrides
Nickel
Microstructure
Powder metallurgy
Lattice parameters
Dissolution
Language English
License CC BY 4.0
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N. Padture—contributing editor
Member, American Ceramic Society.
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Snippet An investigation of the microstructural evolution and dissolution phenomena in a Ti(C0.7N0.3)–xWC–yNbC–20Ni system is reported. In Ti(C0.7N0.3)–yNbC–20Ni...
An investigation of the microstructural evolution and dissolution phenomena in a Ti(C 0.7 N 0.3 )– x WC– y NbC–20Ni system is reported. In Ti(C 0.7 N 0.3 )– y...
Titanium carbonitride-based cermets are important components of high speed cutting tools. A typical hard phase in cermets has a core/rim structure....
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SubjectTerms Applied sciences
ceramic-metal systems
Exact sciences and technology
Metals. Metallurgy
microstructure
Powder metallurgy. Composite materials
Production techniques
Sintered metals and alloys. Pseudo alloys. Cermets
titanium carbonitride
Title Microstructure of Ti(CN)-WC-NbC-Ni Cermets
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