SUPERELASTICITY

作品数:53被引量:85H指数:5
导出分析报告
相关领域:一般工业技术金属学及工艺更多>>
相关期刊:《Materials Sciences and Applications》《Chinese Physics B》《Applied Mathematics and Mechanics(English Edition)》《International Journal of Smart and Nano Materials》更多>>
相关基金:国家自然科学基金国家重点基础研究发展计划高等学校学科创新引智计划国家高技术研究发展计划更多>>
-

检索结果分析

结果分析中...
条 记 录,以下是1-10
视图:
排序:
Ultralight and superelastic MXene/reduced graphene oxide aerogels for electromagnetic interference shielding
《Nano Research》2025年第1期1-9,共9页Xinfeng Zhou Yang Dai Guoyao Yue Yiman Zhang Lulu Li Zhong-Zhen Yu Peng Min Hao-Bin Zhang 
support from the National Natural Science Foundation of China(Nos.52273064,51922020,52090034,52203080,and 52221006)is gratefully acknowledged.
Lightweight aerogels feature multifunctionality and a high porosity,yet accompanied with poor structure recovery under large strain deformations.In this work,we develop an air bubble-ice crystal dual template and anne...
关键词:LIGHTWEIGHT SUPERELASTICITY MXene aerogel electromagnetic interference shielding reshapeability 
Non-negligible role of gradient porous structure in superelasticity deterioration and improvement of NiTi shape memory alloys被引量:1
《Journal of Materials Science & Technology》2024年第19期48-63,共16页Yintao Zhang Daixiu Wei Yang Chen Lechun Xie Liqiang Wang Lai-Chang Zhang Weijie Lu Guang Chen 
the financial support of the National Natural Science Foundation under Grant No.52274387;project support by the Shanghai Science and Technology Com-mission(Grant No.20S31900100).
Bone-mimicking gradient porous NiTi shape memory alloys(SMAs)are promising for orthopedic im-plants due to their distinctive superelastic functional properties.However,premature plastic deformation in weak areas such ...
关键词:Shape memory alloys SUPERELASTICITY Gradient porous structure Solution treatment Stable recoverable strain 
Inverse gradient nanostructure through gradient cold rolling demonstrated with superelasticity improvement in Ti-50.3Ni shape memory alloy
《Journal of Materials Science & Technology》2024年第18期233-244,共12页Jian Zhang Ke Liu Tong Chen Chen Xu Chen Chen Dingshun Yan Ann-Christin Dippel Jun Sun Xiangdong Ding 
supported by the National Natural Science Foundation of China(Grant Nos.52171007,52101166,51931004);the 111 Projects 2.0(Grant No.BP0618008).
Gradient nanostructured(GNS)metallic materials are commonly achieved by gradient severe plastic de-formation with a gradient of nano-to micro-sized structural units from the surface/boundaries to the center.Certainly,...
关键词:Inverse gradient nanostructured metallics Gradient cold rolling Shape memory alloys Gradient martensitic transformation SUPERELASTICITY 
Gyroid Triply Periodic Minimal Surface Lattice Structure Enables Improved Superelasticity of CuAlMn Shape Memory Alloy
《Acta Metallurgica Sinica(English Letters)》2024年第6期1047-1065,共19页Mengwei Wu Chunmei Ma Ruiping Liu Huadong Fu 
supported by the National Natural Science Foundation of China(No.51974028);the Fundamental Research Funds for the Central Universities(No.2021JCCXJD01);the Key R&D and transformation projects in Qinghai Province(No.2023-HZ-801).
Improving the shape memory effect and superelasticity of Cu-based shape memory alloys(SMAs)has always been a research hotspot in many countries.This work systematically investigates the effects of Gyroid triply period...
关键词:Shape memory alloys SUPERELASTICITY Gyroid triply periodic minimal surface(TPMS)lattice structure Selective laser melting(SLM) 
Enhanced superelasticity and reversible elastocaloric effect in nano-grained NiTi alloys with low stress hysteresis
《Chinese Physics B》2024年第5期557-562,共6页周敏 王维 苏浩健 胡忠军 李来风 
Project supported by the Science Fund of the Key Laboratory of Cryogenic Science and Technology(Grant Nos.CRYO20230203 and CRYO202106);the National Natural Science Foundation of China(Grant Nos.51872299 and 52071223);the National Key Research and Development Program of China(Grant No.2019YFA0704904)。
Solid-state cooling technologies have been considered as potential alternatives for vapor compression cooling systems.The search for refrigeration materials displaying a unique combination of pronounced caloric effect...
关键词:elastocaloric effect stress hysteresis SUPERELASTICITY NiTi alloy 
High-Superelasticity NiTi Shape Memory Alloy by Directed Energy Deposition-Arc and Solution Heat Treatment
《Acta Metallurgica Sinica(English Letters)》2024年第1期132-144,共13页Junyi Ma Lin Yu Qing Yang Jie Liu Lei Yang 
The study was supported by the National Natural Science Foundation of China(No.52105396).The authors thank the State Key Laboratory of Materials Processing and Die&Mould Technology,and the Analytical&Testing Center,Huazhong University of Science&Technology for the extensive experiments.
Directed energy deposition-arc(DED-Arc)technology has the advantages of simple equipment,low manufacturing cost and high deposition rate,while the use of DED-Arc has problems of microstructure inhomogeneity,position d...
关键词:Directed energy deposition-arc(DED-Arc) Cold metal transfer(CMT) NiTi shape memory alloys Microstructure Phase transformation Solution heat treatment 
Additive manufacturing of Cu-AI-Mn shape memory alloy with enhanced superelasticity被引量:1
《Rare Metals》2023年第12期4234-4245,共12页Meng-Wei Wu Zhuo-Fan Hu Bing-Bing Yang Ying Tao Rui-Ping Liu Chun-Mei Ma Lei Zhang 
financially supported by the National Natural Science Foundation of China (No.52272258);Fundamental Research Funds for the Central Universities (No.2023ZKPYJD07);Key R&D and transformation projects in Qinghai Province (No.2021-HZ-808)and Hebei Province (No.21314401D);American Chemical Society Petroleum Research Fund for the support (No.PRF-59722-ND10)。
The Cu-based shape memory alloy(SMA)with highly oriented columnar crystals is an ideal candidate for the commercial application,especially the ones obtained through rapid cooling via additive manufacturing method.In t...
关键词:Shape memory alloy(SMA) Selective laser melting(SLM) Columnar grains Superelasticity properties 
Ultralight,ductile metal mechanical metamaterials with super elastic admissible strain(0.1)
《Journal of Materials Science & Technology》2023年第31期227-233,共7页H.Z.Zhong T.Song R.Das C.W.Li J.F.Gu M.Qian 
the China Scholarship Council(CSC)for a CSC scholarship(No.201706230108);Funding from the National Natural Science Foundation of China(No.51971145)and the Australian Research Council(Nos.DP200102666 and No.DE230101344)is acknowledged.
Mechanical metamaterials are architectured cellular materials with unusual properties.Herein we report another type of metal mechanical metamaterials-their elastic admissible strain(EAS)is on the order of 0.1,compared...
关键词:METAMATERIALS Lattice SUPERELASTICITY Elastic admissible strain Ti-6Al-4V Titanium 
Superelastic metastable Ti-Mo-Sn alloys with high elastic admissible strain for potential bio-implant applications被引量:1
《Journal of Materials Science & Technology》2023年第32期45-58,共14页Shuanglei Li Jae H.Kim Seung Won Kang Jae Ho Kim Tae-Hyun Nam Jong-Taek Yeom 
the Korean Ministry of Trade,Industry and Energy(Grant No.200116572).
The demand for titanium alloys simultaneously having high elastic admissible strain and large recovery strain for bio-implant applications is increasing.Ni-free Ti-based shape memory alloys are promising candidates fo...
关键词:Ti-Mo-Sn alloy Shape memory alloy Elastic admissible strain Elastic modulus SUPERELASTICITY 
Development of Ti-26Nb-1.2TiC shape memory composite for biomedical applications
《Journal of Materials Science & Technology》2023年第22期128-138,共11页Quanxiang Sun Dechuang Zhang Xian Tong Jianguo Lin Jixing Lin Yuncang Li Cuie Wen 
supported by the National Natural Science Foundation of China (Grant Nos.51971190 and 11872053);support for this research by the Australian Research Council (ARC)through the Discovery Project (No.DP210101862);Future Fellowship (No.FT160100252).
Ti-Nb alloys have great potential in biomedical applications as bone-implant materials due to their low elastic modulus,superelasticity,high corrosion resistance,and good biocompatibility.However,the low yield strengt...
关键词:Corrosion resistance CYTOTOXICITY Mechanical properties SUPERELASTICITY Ti-Nb alloy Ti-Nb-TiC shape memory composite 
检索报告 对象比较 聚类工具 使用帮助 返回顶部