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27篇 您的检索式:作者名="R.D.K."
    题名 作者 年代 出处 被引量
1Effect of cooling rate on the microstructure and mechanical properties of Nb-microalloyed steels显示文摘S. Shanmugam N.K. Ramisetti R.D.K. Misra T. Mannering D. Panda S. Jansto 2007Materials Science & Engineering A2007,,:2
2Nanoscale deformation of multiaxially forged ultrafine-grained Mg-2Zn-2Gd alloy with high strength-high ductility combination and comparison with the coarse-grained counterpart显示文摘Cold processing of magnesium(Mg) alloys is a challenge because Mg has a hexagonal close-packed(HCP)lattice with limited slip systems, which makes it difficult to plastically deform at low temperature. To address this challenge, a combination of annealing of as-cast alloy and multi-axial forging was adopted to obtain isotropic ultrafine-grained(UFG) structure in a lean Mg-2Zn-2Gd alloy with high strength(yield strength: ~227 MPa)-high ductility(% elongation: ~30%) combination. This combination of strength and ductility is excellent for the lean alloy, enabling an understanding of deformation processes in a formable high strength Mg-rare earth alloy. The nanoscale deformation behavior was studied via nanoindentation and electron microscopy, and the behavior was compared with its low strength(yield strength: ~46 MPa)-low ductility(% elongation: ~7%) coarse-grained(CG) counterpart. In the UFG alloy, extensive dislocation slip was an active deformation mechanism, while in the CG alloy, mechanical twinning occurred.The differences in the deformation mechanisms of UFG and CG alloys were reflected in the discrete burst in the load-displacement plots. The deformation of Mg-2Zn-2Gd alloys was significantly influenced by the grain structure, such that there was change in the deformation mechanism from dislocation slip(non-basal slip) to nanoscale twins in the CG structure. The high plasticity of UFG Mg alloy involved high dislocation activity and change in activation volume.K. Li V.S.Y.Injeti P. Trivedi L.E. Murr R.D.K. Misra 2018Journal of Materials Science & Technology2018,34,2:2
3Microstructure and mechanical properties of TMCP heavy plate microalloyed steel显示文摘Jun Hu Lin-Xiu Du Hui Xie Xiu-Hua Gao R.D.K. Misra 2014Materials Science & Engineering A2014,,:2
4Effect of cooling rate on the microstructure and mechanical properties of Nb-microalloyed steels显示文摘S. Shanmugam N.K. Ramisetti R.D.K. Misra T. Mannering D. Panda S. Jansto 2007Materials Science & Engineering A2007,,:2
5Effect of Ti-Mg-Ca treatment on properties of heat-affected zone after high heat input welding显示文摘The combined influence of Mg and Ca treatment on the properties of heat-affected zone (HAZ) of low-carbon steel after high heat input welding was systematically studied. Experimental steels deoxidized with different elements were prepared, i.e., C-Mn steel with Al, Ti-Ca steel with Ti and Ca, Ti-Mg-Ca steel with Ti, Mg and Ca. Results showed that the inclusions in C-Mn steel were mainly Al2O3 and MnS with low density and large size. However, the average size was refined to only ~0.34 μm in Ti-Mg-Ca steel and the amount increased remarkably. Microstructure of simulated HAZ for 200 kJ/cm changed from ferrite side plates or upper bainite to acicular ferrite after treatment with Ti, Mg and Ca. Ca addition decreased the strain field around inclusions and enhanced the ability of acicular ferrite nucleation. In situ observation of Ti-Mg-Ca steel showed that the movement of austenite grain boundaries was retarded and nucleation sites of acicular ferrite were greater than Ti-Ca steel because of Mg addition. Impact energy of HAZ at — 40℃ was increased from 7 to 232 J and showed excellent stability because of Ti-Mg-Ca treatment. High volume fraction of acicular ferrite acted as obstacles toward cleavage cracks.Hao-nan Lou Chao Wang Bing-xing Wang Zhao-dong Wang R.D.K. Misra 2019Journal of Iron and Steel Research(International)2019,26,5:2
6An electron backscattered diffraction study on the dynamic recrystallization behavior of a nickel–chromium alloy (800H) during hot deformation显示文摘Yu Cao Hongshuang Di Jingqi Zhang Jiecen Zhang Tianjun Ma R.D.K. Misra 2013Materials Science & Engineering A2013,,:2
7Ultrafine-grained Al–0.2Sc–0.1Zr alloy: The mechanistic contribution of nano-sized precipitates on grain refinement during the novel process of accumulative continuous extrusion显示文摘Y.F. Shen R.G. Guan Z.Y. Zhao R.D.K. Misra 2015Acta Materialia2015,,:1
8Microstructure and properties of low manganese and niobium containing HIC pipeline steel显示文摘S.S. Nayak R.D.K. Misra J. Hartmann F. Siciliano J.M. Gray 2008Materials Science & Engineering A (-)2008,,1:1
9Microstructure and high strength–toughness combination of a new 700<ce:hsp sp='0.25'/>MPa Nb-microalloyed pipeline steel显示文摘S. Shanmugam N.K. Ramisetti R.D.K. Misra J. Hartmann S.G. Jansto 2007Materials Science & Engineering A2007,,1:1
10Magnetic drug-targeting carrier encapsulated with thermosensitive smart polymer: Core–shell nanoparticle carrier and drug release response显示文摘J. Zhang R.D.K. Misra 2007Acta Biomaterialia2007,,6:1
11A nanograined/ultrafine-grained low-carbon microalloyed steel processed by warm rolling显示文摘Jun Hu Lin-Xiu Du Hui Xie Peng Yu R.D.K. Misra 2014Materials Science & Engineering A2014,,:1
12Correlation between microstructure and impact toughness of weld heat-affected zone in 5 wt.% manganese steels显示文摘The microstructure in welding heat-affected zones of 5 wt.% manganese steels was studied, and its effect on impact toughness was analyzed. The simulated coarse-grained heat-affected zone (CGHAZ) had the lowest impact toughness of ~39 J at — 40℃ because of coarse-grained structure and least volume fraction of retained austenite (RA) of 1.2 vol.%. The impact toughness of simulated intercritical heat-affected zone (ICHAZ) and fine-grained heat-affected zone (FGHAZ) were ~165 and ~45 J, respectively, at — 40℃. The effective grain size of simulated FGHAZ was smaller than that of the simulated ICHAZ. Furthermore, microstructural investigation revealed that the simulated FGHAZ and ICHAZ had similarity in volume fraction and stability of RA. However, tempered martensite was present in ICHAZ and absent in FGHAZ. It is proposed that the presence of tempered martensite contributed to good impact toughness in simulated ICHAZ.Jun-hui Li Hong-hong Wang Qiang Luo Li Li Chao Sun R.D.K. Misra 2019Journal of Iron and Steel Research(International)2019,26,7:1
13Microstructure–hardness relationship in quenched and partitioned medium-carbon and high-carbon steels containing silicon显示文摘S.S. Nayak R. Anumolu R.D.K. Misra K.H. Kim D.L. Lee 2008Materials Science & Engineering A2008,,1:1
14An analysis of the microstructure of the heat-affected zone of an ultra-low carbon and niobium-bearing acicular ferrite steel using EBSD and its relationship to mechanical properties显示文摘Aimin Guo R.D.K. Misra Jibin Liu Ling Chen Xinlai He S.J. Jansto 2010Materials Science & Engineering A2010,,23:1
15Biomimetic chitosan–nanohydroxyapatite composite scaffolds for bone tissue engineering显示文摘W.W. Thein-Han R.D.K. Misra 2008Acta Biomaterialia2008,,4:1
16New generation of chitosan-encapsulated ZnO quantum dots loaded with drug: Synthesis, characterization and in vitro drug delivery response显示文摘Q. Yuan S. Hein R.D.K. Misra 2010Acta Biomaterialia2010,,:1
17Structure–process–property relationship of the polar graphene oxide-mediated cellular response and stimulated growth of osteoblasts on hybrid chitosan network structure nanocomposite scaffolds显示文摘D. Depan B. Girase J.S. Shah R.D.K. Misra 2011Acta Biomaterialia2011,,9:1
18Impact toughness and microstructure relationship in niobium- and vanadium-microalloyed steels processed with varied cooling rates to similar yield strength显示文摘S. Shanmugam R.D.K. Misra T. Mannering D. Panda S.G. Jansto 2006Materials Science & Engineering A2006,,2:1
19Advancing nanograined/ultrafine-grained structures for metal implant technology: Interplay between grooving of nano/ultrafine grains and cellular response显示文摘P.K.C Venkatsurya W.W. Thein-Han R.D.K. Misra M.C. Somani L.P. Karjalainen 2010Materials Science & Engineering C2010,,7:1
20Microstructure of high strength niobium-containing pipeline steel显示文摘S. Shanmugam R.D.K. Misra J. Hartmann S.G. Jansto 2006Materials Science & Engineering A2006,,1:1
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