材料科学
钛
延展性(地球科学)
钛合金
打滑(空气动力学)
形状记忆合金
格子(音乐)
六方晶系
同种类的
复合材料
冶金
合金
结晶学
热力学
蠕动
物理
化学
声学
作者
Shaolou Wei,Kyung‐Shik Kim,John Foltz,Cemal Cem Taşan
标识
DOI:10.1002/adma.202406382
摘要
Abstract Mechanical properties of titanium alloys, one of humankind's most essential structural materials, suffer from the lack of 〈 c + a 〉 dislocations on pyramidal slip planes, failing homogeneous plastic strain accommodation. This mechanical treasure is not easily accessible in titanium alloys because of the required excessively high stress levels. The present work demonstrates that such a dilemma may be overcome by meticulously tuning the c / a ratio, the simplest crystallographic parameter of the hexagonal close‐packed lattice, through Sn alloying. Combining this lattice‐scale design concept with a cross‐rolling based polycrystal‐scale design solution, this study showcases a facile route to bimodal ( α + β ) titanium alloys with exceptional strength–ductility synergy.
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