Phase Transformation, Twinning, and Detwinning of NiTi Shape-Memory Alloy Subject to a Shock Wave Based on Molecular-Dynamics Simulation

Martensitic transformation, reverse martensitic transformation, twinning, and detwinning of equiatomic nickel–titanium shape-memory alloy (NiTi SMA) under the action of a shock wave are studied using a molecular-dynamics simulation. In the loading process of a shock wave, B2 austenite is transformed...

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Published inMaterials Vol. 11; no. 11; p. 2334
Main Authors Wang, Man, Jiang, Shuyong, Zhang, Yanqiu
Format Journal Article
LanguageEnglish
Published Switzerland MDPI AG 21.11.2018
MDPI
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ISSN1996-1944
1996-1944
DOI10.3390/ma11112334

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Abstract Martensitic transformation, reverse martensitic transformation, twinning, and detwinning of equiatomic nickel–titanium shape-memory alloy (NiTi SMA) under the action of a shock wave are studied using a molecular-dynamics simulation. In the loading process of a shock wave, B2 austenite is transformed into B19′ martensite, whereas in the unloading process of the shock wave, B19′ martensite is transformed into B2 austenite. With repeated loading and unloading of the shock wave, martensitic transformation occurs along with twinning, but reverse martensitic transformation appears along with detwinning. The mechanisms for the twinning and detwinning of NiTi SMA subjected to a shock wave are revealed in order to lay the theoretical foundation to investigate the shape-memory effect and superelasticity.
AbstractList Martensitic transformation, reverse martensitic transformation, twinning, and detwinning of equiatomic nickel⁻titanium shape-memory alloy (NiTi SMA) under the action of a shock wave are studied using a molecular-dynamics simulation. In the loading process of a shock wave, B2 austenite is transformed into B19' martensite, whereas in the unloading process of the shock wave, B19' martensite is transformed into B2 austenite. With repeated loading and unloading of the shock wave, martensitic transformation occurs along with twinning, but reverse martensitic transformation appears along with detwinning. The mechanisms for the twinning and detwinning of NiTi SMA subjected to a shock wave are revealed in order to lay the theoretical foundation to investigate the shape-memory effect and superelasticity.Martensitic transformation, reverse martensitic transformation, twinning, and detwinning of equiatomic nickel⁻titanium shape-memory alloy (NiTi SMA) under the action of a shock wave are studied using a molecular-dynamics simulation. In the loading process of a shock wave, B2 austenite is transformed into B19' martensite, whereas in the unloading process of the shock wave, B19' martensite is transformed into B2 austenite. With repeated loading and unloading of the shock wave, martensitic transformation occurs along with twinning, but reverse martensitic transformation appears along with detwinning. The mechanisms for the twinning and detwinning of NiTi SMA subjected to a shock wave are revealed in order to lay the theoretical foundation to investigate the shape-memory effect and superelasticity.
Martensitic transformation, reverse martensitic transformation, twinning, and detwinning of equiatomic nickel⁻titanium shape-memory alloy (NiTi SMA) under the action of a shock wave are studied using a molecular-dynamics simulation. In the loading process of a shock wave, B2 austenite is transformed into B19' martensite, whereas in the unloading process of the shock wave, B19' martensite is transformed into B2 austenite. With repeated loading and unloading of the shock wave, martensitic transformation occurs along with twinning, but reverse martensitic transformation appears along with detwinning. The mechanisms for the twinning and detwinning of NiTi SMA subjected to a shock wave are revealed in order to lay the theoretical foundation to investigate the shape-memory effect and superelasticity.
Martensitic transformation, reverse martensitic transformation, twinning, and detwinning of equiatomic nickel–titanium shape-memory alloy (NiTi SMA) under the action of a shock wave are studied using a molecular-dynamics simulation. In the loading process of a shock wave, B2 austenite is transformed into B19′ martensite, whereas in the unloading process of the shock wave, B19′ martensite is transformed into B2 austenite. With repeated loading and unloading of the shock wave, martensitic transformation occurs along with twinning, but reverse martensitic transformation appears along with detwinning. The mechanisms for the twinning and detwinning of NiTi SMA subjected to a shock wave are revealed in order to lay the theoretical foundation to investigate the shape-memory effect and superelasticity.
Author Zhang, Yanqiu
Jiang, Shuyong
Wang, Man
AuthorAffiliation 2 College of Materials Science and Chemical Engineering, Harbin Engineering University, Harbin 150001, China
1 College of Mechanical and Electrical Engineering, Harbin Engineering University, Harbin 150001, China; wang_man28@hrbeu.edu.cn (M.W.); zhangyanqiu0924@sina.com (Y.Z.)
AuthorAffiliation_xml – name: 1 College of Mechanical and Electrical Engineering, Harbin Engineering University, Harbin 150001, China; wang_man28@hrbeu.edu.cn (M.W.); zhangyanqiu0924@sina.com (Y.Z.)
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Keywords molecular-dynamics simulation
shape-memory alloy
NiTi alloy
shock loading
matrensitic transformation
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Snippet Martensitic transformation, reverse martensitic transformation, twinning, and detwinning of equiatomic nickel–titanium shape-memory alloy (NiTi SMA) under the...
Martensitic transformation, reverse martensitic transformation, twinning, and detwinning of equiatomic nickel⁻titanium shape-memory alloy (NiTi SMA) under the...
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SubjectTerms Alloys
Austenite
Crystal structure
Cyclic loads
Engineering
Experiments
Grain size
Intermetallic compounds
Lasers
Martensite
Martensitic transformations
Mechanical properties
Molecular dynamics
Nickel base alloys
Nickel titanides
Phase transitions
Repeated loading
Researchers
Shape effects
Shape memory
Shape memory alloys
Shock waves
Studies
Superelasticity
Temperature effects
Twinning
Title Phase Transformation, Twinning, and Detwinning of NiTi Shape-Memory Alloy Subject to a Shock Wave Based on Molecular-Dynamics Simulation
URI https://www.ncbi.nlm.nih.gov/pubmed/30469359
https://www.proquest.com/docview/2210571202
https://www.proquest.com/docview/2137478172
https://pubmed.ncbi.nlm.nih.gov/PMC6267087
Volume 11
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