탄소나노튜브 강화 SKD11 냉간금형용 하이브리드 탄소나노소결체 제조 및 특성 평가
Fabrication and Characteristic Evaluation of Hybrid Carbon Nanotubes Reinforced SKD11 Cold Work Tool Steel
0
조회
0
다운로드
1
인용
0
참고문헌
키워드
초록
SKD11 (ASTM D2) tool steel is a versatile high-carbon, high-chromium, air-hardening tool steel that is characterized by a relatively high attainable hardness and numerous, large, chromium rich alloy carbide in the microstructure. SKD11 tool steel provides an effective combination of wear resistance and toughness, tool performance, price, and a wide variety of product forms. The CNTs was good additives to improve the mechanical properties of metal. In this study, 1, 3 vol% CNTs was dispersed in SKD11 matrix by mechanical alloying. The SKD11+ CNT hybrid nanocomposites were investigated by FE-SEM, particle size distribution, hardness and wear resistance. The CNT was well dispersed in the SKD11 matrix and the mechanical properties of the composite were improved by CNTs addition. It shows good feasibility as cold work die tool.
Abstract
SKD11 (ASTM D2) tool steel is a versatile high-carbon, high-chromium, air-hardening tool steel that is characterized by a relatively high attainable hardness and numerous, large, chromium rich alloy carbide in the microstructure. SKD11 tool steel provides an effective combination of wear resistance and toughness, tool performance, price, and a wide variety of product forms. The CNTs was good additives to improve the mechanical properties of metal. In this study, 1, 3 vol% CNTs was dispersed in SKD11 matrix by mechanical alloying. The SKD11+ CNT hybrid nanocomposites were investigated by FE-SEM, particle size distribution, hardness and wear resistance. The CNT was well dispersed in the SKD11 matrix and the mechanical properties of the composite were improved by CNTs addition. It shows good feasibility as cold work die tool.
참고문헌 (18)
- S. Iijima, , Nature, 354, pp.56~ (1991)
- M. M. J. Treacy., , Nature, 381, pp.678~ (1996)
- A. Krishnan., , Phys. Rev., B, 58, pp.14013~ (1998)
- E. W. Wong., , Science, 277, pp.1971~ (1997)
- O. Lourie., , J. Mater. Res, 13, pp.2418~ (1998)
- P. Poncharal., , Science, 283, pp.1513~ (1999)
- J. P. Salvetat., , Adv. Mater, 11, pp.161~ (1999)
- J. P. Salvetat., , Phys. Rev. Lett, 82, pp.944~ (1999)
- M. F. Yu., , Science, 287, pp.637~ (2000)
- M. F. Yu., , Phys. Rev. Lett, 84, pp.5552~ (2000)
- A. M. K. Esawi., , Sci. Tech, 68, pp.486~ (2008)
- A. Esawi., , Composites A, 38, pp.646~ (2007)
- X. H. Chen., , Trans. Nonferrous Met. Soc. China, 15(2), pp.314~ (2005)
- K. T. Kim., , Mater. Sci. Eng. A, 449, pp.46~ (2007)
- K. T. Kim., , Mater. Sci. Eng. A, 430, pp.27~ (2006)
- D. M. Hulbert., , Scripta Mater, 60, pp.835~ (2009)
- Z. A. Munir., , J. Mater. Sci, 41, pp.763~ (2006)
- 이진규, "기계적 밀링 및 방전 플라즈마 소결 공정을 이용한벌크 비정질 복합재의 제조", 한국분말야금학회지, 14(3), pp.197~201 (2007), 한국분말야금학회
