Microstructure Refinement in W-Y2O3 Alloy Fabricated by Wet Chemical Method with Surfactant Addition and Subsequent Spark Plasma Sintering
暂无分享,去创建一个
Yongchang Liu | Nan Liu | Q. Guo | Zongqing Ma | Z. Alothman | Y. Yamauchi | Chenxi Liu | Z. Dong | Md. Shahriar A. Hossain | Yong-chang Liu
[1] J. Vimala,et al. Synthesis of high purity tungsten nanoparticles from tungsten heavy alloy scrap by selective precipitation and reduction route , 2016 .
[2] Z. Hens,et al. From ligands to binding motifs and beyond; the enhanced versatility of nanocrystal surfaces. , 2016, Dalton transactions.
[3] C. S. Liu,et al. Characterization of ODS-tungsten microwave-sintered from sol-gel prepared nano-powders , 2014 .
[4] M. Muhammed,et al. Processing and sintering of yttrium-doped tungsten oxide nanopowders to tungsten-based composites , 2014, Journal of Materials Science.
[5] Haijun Zhang,et al. Low temperature preparation of tungsten nanoparticles from molten salt , 2014 .
[6] E. Ma,et al. Nanostructured high-strength molybdenum alloys with unprecedented tensile ductility. , 2013, Nature materials.
[7] M. Muhammed,et al. Fabrication of nanostructured W–Y2O3 materials by chemical methods , 2012 .
[8] M. Muhammed,et al. Spark plasma sintering of tungsten-yttrium oxide composites from chemically synthesized nanopowders and microstructural characterization , 2011 .
[9] M. Muhammed,et al. Chemically produced nanostructured ODS–lanthanum oxide–tungsten composites sintered by spark plasma , 2011 .
[10] V. Philipps,et al. Tokamak plasma response to droplet spraying from melted plasma-facing components , 2011 .
[11] Mark F. Horstemeyer,et al. Investigation on Sintering Mechanism of Nanoscale Tungsten Powder Based on Atomistic Simulation , 2010 .
[12] Cao Xu. Interactions between Anionic Surfactants and Cations , 2010 .
[13] Long-Qing Chen,et al. Effect of second-phase particle morphology on grain growth kinetics , 2009 .
[14] S. Hong,et al. Fabrication of high temperature oxides dispersion strengthened tungsten composites by spark plasma sintering process , 2009 .
[15] N. Baluc,et al. Sintering and characterization of W–Y and W–Y2O3 materials , 2009 .
[16] Akira Hasegawa,et al. Development of ultra-fine grained W–(0.25–0.8)wt%TiC and its superior resistance to neutron and 3 MeV He-ion irradiations , 2008 .
[17] Satyen K. Deb,et al. Opportunities and challenges in science and technology of WO3 for electrochromic and related applications , 2008 .
[18] Hiroaki Kurishita,et al. Development of ultra-fine grained W–TiC and their mechanical properties for fusion applications , 2007 .
[19] T. Ihli,et al. Development of a helium-cooled divertor: Material choice and technological studies , 2007 .
[20] A. Voevodin,et al. Nanocomposite and nanostructured tribological materials for space applications , 2005 .
[21] B. Ding,et al. Nanostructured W–La2O3 electrode materials with high content La2O3 doping , 2005 .
[22] E. Diegele,et al. Development of a helium-cooled divertor concept: design-related requirements on materials and fabrication technology , 2004 .
[23] 徐静,et al. Formation mechanism of intragranular structure in nano-composites , 2004 .
[24] K. F. Russell,et al. Improvement in the ductility of molybdenum alloys due to grain boundary segregation , 2002 .
[25] R. Buckman,et al. Evaluation of oxide dispersion strengthened (ODS) molybdenum and molybdenum–rhenium alloys , 1999 .
[26] G. Vieider,et al. Development of tungsten armor and bonding to copper for plasma-interactive components , 1998 .
[27] J. Schlosser,et al. Lifetime of Be-, CFC- and W-armoured ITER divertor plates , 1996 .