Ultra-high-strain-rate deformation induced HCP-to-FCC phase transformation and its interaction with {112¯2} twin in pure Ti

In this work, HCP-to-FCC phase transformation and its interaction with {11[Formula: see text]2} compression twins (CTWs) in CP-Ti under ultra-high-strain-rate compression (∼106/s) was investigated. Muti-scale characterization and analysis demonstrate the both B- and P-type FCCTi lamellae are profusely generated and exhibit significant growth capability and intensive interaction with the CTWs. Particularly, two adjacent FCCTi lamellae with a twinning relationship can be formed within the CTW and matrix, respectively. Moreover, two adjacent FCCTi lamellae with nearly identical orientation can be formed within the two different CTW variants. Two possible mechanisms were proposed to account for this unique phenomenon.

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Publication Details

Journal
Materials Research Letters
Published
2025-11-15
DOI
https://doi.org/10.1080/21663831.2025.2584206
Citations
2
Primary Topic
Boron and Carbon Nanomaterials Research
Type
article
Field-Weighted Citation Impact
1.04
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article

Ultra-high-strain-rate deformation induced HCP-to-FCC phase transformation and its interaction with {112¯2} twin in pure Ti

Gaofei Liang, Wanting Sun, Bo Mao, Shuangjie Chu et al.
2 citations
Materials Research Letters
Boron and Carbon Nanomaterials Research
1.04
article

Ultra-high-strain-rate deformation induced HCP-to-FCC phase transformation and its interaction with {112¯2} twin in pure Ti

Gaofei Liang, Wanting Sun, Bo Mao, Shuangjie Chu, Qian Liu, Xing Zhang, Hao Wang, Yafei Wang, Yuqian Wang, Qifei Zhang, Bo Zhou
article en
2 citations

Abstract

In this work, HCP-to-FCC phase transformation and its interaction with {11[Formula: see text]2} compression twins (CTWs) in CP-Ti under ultra-high-strain-rate compression (∼106/s) was investigated. Muti-scale characterization and analysis demonstrate the both B- and P-type FCCTi lamellae are profusely generated and exhibit significant growth capability and intensive interaction with the CTWs. Particularly, two adjacent FCCTi lamellae with a twinning relationship can be formed within the CTW and matrix, respectively. Moreover, two adjacent FCCTi lamellae with nearly identical orientation can be formed within the two different CTW variants. Two possible mechanisms were proposed to account for this unique phenomenon.

Materials Research LettersVol. 14(1)
University of Nevada, Reno (US), Shanghai Jiao Tong University (CN), Soochow University (CN), Lancaster University (GB)
Openalex Percentile: Top 21%
Boron and Carbon Nanomaterials Research
1.04
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