Transforming martensite in NiTi within nanoseconds

Martensitic transformations enable various emerging applications like the shape memory effect and elastocaloric applications in NiTi. Increasing the speed of this transformation can shorten the response time for actuation and increase the power density of caloric cooling systems. Up to now, research...

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Veröffentlicht in:JPhys materials 2024-10, Vol.7 (4), p.45007
Hauptverfasser: Lünser, Klara, Neumann, Bruno, Schmidt, Daniel, Ge, Yuru, Hensel, Daniel, Khosla, Mallika, Gaal, Peter, Fähler, Sebastian
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container_start_page 45007
container_title JPhys materials
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creator Lünser, Klara
Neumann, Bruno
Schmidt, Daniel
Ge, Yuru
Hensel, Daniel
Khosla, Mallika
Gaal, Peter
Fähler, Sebastian
description Martensitic transformations enable various emerging applications like the shape memory effect and elastocaloric applications in NiTi. Increasing the speed of this transformation can shorten the response time for actuation and increase the power density of caloric cooling systems. Up to now, research on the speed and possible time limits of the martensitic transformation in NiTi has been limited to milli- and microsecond experiments. The dynamics of the transformation for shorter time scales are therefore unknown. Here, we report the fastest transformations in NiTi so far by heating an epitaxial NiTi film with a ns laser pulse and tracking the martensitic transition with in - situ synchrotron x-ray diffraction. We find that the martensite to austenite transition upon heating can proceed within the 7 ns pulse duration of the laser, but it requires substantial overheating as the rate of the transformation increases with the driving energy. The austenite to martensite transition is slower because cooling proceeds by conductive heat transfer, but with appropriate undercooling, the complete transformation from martensite to austenite and back only takes 200 ns. We compare our results to previous experiments on the Heusler alloy Ni–Mn–Ga and (K, Na)NbO 3 and find very similar trends, which reveal that fast martensitic transformations in general follow a universal scaling law.
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Increasing the speed of this transformation can shorten the response time for actuation and increase the power density of caloric cooling systems. Up to now, research on the speed and possible time limits of the martensitic transformation in NiTi has been limited to milli- and microsecond experiments. The dynamics of the transformation for shorter time scales are therefore unknown. Here, we report the fastest transformations in NiTi so far by heating an epitaxial NiTi film with a ns laser pulse and tracking the martensitic transition with in - situ synchrotron x-ray diffraction. We find that the martensite to austenite transition upon heating can proceed within the 7 ns pulse duration of the laser, but it requires substantial overheating as the rate of the transformation increases with the driving energy. The austenite to martensite transition is slower because cooling proceeds by conductive heat transfer, but with appropriate undercooling, the complete transformation from martensite to austenite and back only takes 200 ns. 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subjects Actuation
Austenite
Conductive heat transfer
Cooling systems
Heusler alloys
Intermetallic compounds
Laser beam heating
Martensite
martensitic transformation
Martensitic transformations
Nickel compounds
Nickel titanides
Overheating
Pulse duration
Scaling laws
Shape effects
shape memory alloy
Shape memory alloys
smart material
speed limit
Supercooling
Synchrotron radiation
time dependence
title Transforming martensite in NiTi within nanoseconds
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