Martensite Stabilization Effect in the Ni50Ti50 Alloy After Preliminary Deformation by Cooling Under Constant Stress

The martensite stabilization effect was studied in Ni − 50.0 at% Ti alloy after cooling under stress and compared to the same observed effect after deformation in the martensite state. After cooling under stress, three peaks of heat release were observed during the first heating, and an increase in...

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Veröffentlicht in:Shape memory and superelasticity : advances in science and technology 2020-06, Vol.6 (2), p.223-231
Hauptverfasser: Belyaev, Sergey, Resnina, Natalia, Ivanova, Alexandra, Ponikarova, Irina, Iaparova, Elizaveta
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container_title Shape memory and superelasticity : advances in science and technology
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creator Belyaev, Sergey
Resnina, Natalia
Ivanova, Alexandra
Ponikarova, Irina
Iaparova, Elizaveta
description The martensite stabilization effect was studied in Ni − 50.0 at% Ti alloy after cooling under stress and compared to the same observed effect after deformation in the martensite state. After cooling under stress, three peaks of heat release were observed during the first heating, and an increase in the residual strain significantly increased the temperature of the third peak. The existence of three peaks was attributed to the formation of both non-oriented and oriented martensite upon cooling under stress. The way of the preliminary deformation hardly affected the shift in the finish temperature of the reverse transformation. Thus, the reason for the martensite stabilization effect did not depend on the type of deformation. It was assumed that the damaged intermartensite interfaces, which formed when the oriented martensite plates touched each other during growth, lost their mobility and overheating was needed to provide their movement upon subsequent heating. It was found that the way of the preliminary deformation influenced the martensite stabilization effect for the start temperature of the reverse transformation. It was assumed that this effect might be caused by different variations in the stored elastic energy during the active deformation in martensite or on cooling under stress.
doi_str_mv 10.1007/s40830-020-00282-2
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source SpringerNature Journals
subjects Characterization and Evaluation of Materials
Chemistry and Materials Science
Cooling
Cooling effects
Deformation effects
Elastic deformation
Heat treating
Heating
Invited Paper
Martensite
Materials Science
Overheating
Special Issue: A Tribute to Prof. Dr. Gunther Eggeler
Stabilization
Titanium base alloys
title Martensite Stabilization Effect in the Ni50Ti50 Alloy After Preliminary Deformation by Cooling Under Constant Stress
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