- Cited by 19
Men, Hua Fu, Junying Pang, Shujie Ma, Chaoli and Zhang, Tao 2006. Formation and Thermal Stability of Cu<SUB>46.25</SUB>Zr<SUB>44.25</SUB>Al<SUB>7.5</SUB>Er<SUB>2</SUB> Bulk Metallic Glass with a Diameter of 12 mm. MATERIALS TRANSACTIONS, Vol. 47, Issue. 11, p. 2882.
Men, H. Pang, S.J. and Zhang, T. 2007. Thermal stability and microhardness of new Co-based bulk metallic glasses. Materials Science and Engineering: A, Vol. 449-451, Issue. , p. 538.
Li, Y. Poon, S. J. Shiflet, G. J. Xu, J. Kim, D. H. and Löffler, J. F. 2007. Formation of Bulk Metallic Glasses and Their Composites. MRS Bulletin, Vol. 32, Issue. 08, p. 624.
Wu, Hong Liu, Yong He, Shiwen Liu, Zuming and Huang, Baiyun 2008. Effect of yttrium addition on the glass forming ability of Co-based alloys. International Journal of Materials Research, Vol. 99, Issue. 6, p. 689.
Yuan, Zi-Zhou Bao, Shi-Lei Lu, Ye Zhang, Da-Peng and Yao, Lin 2008. A new criterion for evaluating the glass-forming ability of bulk glass forming alloys. Journal of Alloys and Compounds, Vol. 459, Issue. 1-2, p. 251.
Zhang, Tao Li, Ran and Pang, Shujie 2009. Effect of similar elements on improving glass-forming ability of La–Ce-based alloys. Journal of Alloys and Compounds, Vol. 483, Issue. 1-2, p. 60.
Greer, A. Lindsay 2009. Metallic glasses…on the threshold. Materials Today, Vol. 12, Issue. 1-2, p. 14.
Ding, Hong-Yu Li, Yang and Yao, Ke-Fu 2010. Preparation of a Pd-Cu-Si Bulk Metallic Glass with a Diameter up to 11 mm. Chinese Physics Letters, Vol. 27, Issue. 12, p. 126101.
Zhu, C.L. Wang, Q. Wang, Y.M. Qiang, J.B. and Dong, C. 2010. Co–B–Si–Ta bulk metallic glasses designed using cluster line and alloying. Journal of Alloys and Compounds, Vol. 504, Issue. , p. S34.
Xia, L. Chan, K.C. and Tang, M.B. 2011. Enhanced glass forming ability and refrigerant capacity of a Gd55Ni22Mn3Al20 bulk metallic glass. Journal of Alloys and Compounds, Vol. 509, Issue. 23, p. 6640.
Zhang, Tao Yang, Qin Ji, YunFei Li, Ran Pang, ShuJie Wang, JianFeng and Xu, Tao 2011. Centimeter-scale-diameter Co-based bulk metallic glasses with fracture strength exceeding 5000 MPa. Chinese Science Bulletin, Vol. 56, Issue. 36, p. 3972.
Xia, L. Chan, K.C. Kwok, S.K. and Yu, P. 2011. Enhanced plasticity of a Zr50Cu48Al2 bulk metallic glass. Journal of Non-Crystalline Solids, Vol. 357, Issue. 5, p. 1469.
Li, Yan Li, Ran Pang, Shujie Chen, Bingqing Georgarakis, Konstantinos Le Moulec, Alain Vaughan, Gavin Zhang, Tao and Yavari, Alain R. 2012. Investigation of viscosity and crystallization in supercooled-liquid region of Zr-based glassy alloys. Journal of Non-Crystalline Solids, Vol. 358, Issue. 2, p. 150.
Greer, A.L. 2014. Physical Metallurgy. p. 305.
Cheng, Yangyang Chen, Chen Shi, Minjie and Zhang, Tao 2015. Synthesis of CoCrMoCB bulk metallic glasses with high strength and good plasticity via regulating the metalloid content. Journal of Non-Crystalline Solids, Vol. 410, Issue. , p. 155.
Qiao, Junwei Jia, Haoling and Liaw, Peter K. 2016. Metallic glass matrix composites. Materials Science and Engineering: R: Reports, Vol. 100, Issue. , p. 1.
Hua, Neng Bin Chen, Wen Zhe and Liao, Zhen Long 2018. Effects of Zr Content on the Bending Property and Crystallization Behavior of Ductile Zr-Based Bulk Metallic Glasses. Materials Science Forum, Vol. 913, Issue. , p. 765.
Kim, Jeong Tae Hong, Sung Hwan Bian, Xilei Gokuldoss, Prashanth Konda Song, Kaikai Eckert, Jürgen Park, Jin Man and Kim, Ki Buem 2018. Effect of boron addition on thermal and mechanical properties of Co-Cr-Mo-C-(B) glass-forming alloys. Intermetallics, Vol. 99, Issue. , p. 1.
Kim, J.T. Hong, S.H. Kim, Y.S. Park, H.J. Maity, T. Chawake, N.M. Prashanth, K.G. Park, J.M. Song, K.K. Wang, W.M. Eckert, J. and Kim, K.B. 2019. Co-Cr-Mo-C-B metallic glasses with wide supercooled liquid region obtained by systematic adjustment of the metalloid ratio. Journal of Non-Crystalline Solids, Vol. 505, Issue. , p. 310.
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Bulk glass formation of the Co–Cr–Mo–C–B–Er alloy system was investigated in this paper. The Co50Cr15Mo14C15B6 (at.%) alloy could be cast into fully glassy rod with a diameter up to 2 mm. By adding 2 at.% Er to this alloy, the critical diameter for glass formation reached 10 mm. The excellent glass formability of the Er-doped alloy was mainly attributed to its relatively large reduced glass transition temperature of 0.61, near-eutectic composition, and the necessity of redistribution of the Er atoms for precipitation of crystalline Co6Mo6C phase in the undercooled liquid on cooling.
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- ISSN: 0884-2914
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