This thesis aims to examine SMART materials, in particular shape memory alloys. SMAs own a unique ability to return to a predefined shape after being deformed or heated. Super-elasticity allows them to recover from large strains, enabling adaptive structures and smart systems. Applications range from aerospace to biomedicine, with ongoing research focusing on perfecting their performance. This study analyses their historical background, their chemical composition, a comparison with conventional materials and some applications in aeronautics and aerospace such as actuators, vortex generators, variable geometry chevrons, morphing wings and superelastic tires for Martian and Lunar Rover vehicles.

This thesis aims to examine SMART materials, in particular shape memory alloys. SMAs own a unique ability to return to a predefined shape after being deformed or heated. Super-elasticity allows them to recover from large strains, enabling adaptive structures and smart systems. Applications range from aerospace to biomedicine, with ongoing research focusing on perfecting their performance. This study analyses their historical background, their chemical composition, a comparison with conventional materials and some applications in aeronautics and aerospace such as actuators, vortex generators, variable geometry chevrons, morphing wings and superelastic tires for Martian and Lunar Rover vehicles.

Leghe a memoria di forma e loro applicazioni aerospaziali

WARNAKULA ADITTA DONDEENU, SHARLOTH
2024/2025

Abstract

This thesis aims to examine SMART materials, in particular shape memory alloys. SMAs own a unique ability to return to a predefined shape after being deformed or heated. Super-elasticity allows them to recover from large strains, enabling adaptive structures and smart systems. Applications range from aerospace to biomedicine, with ongoing research focusing on perfecting their performance. This study analyses their historical background, their chemical composition, a comparison with conventional materials and some applications in aeronautics and aerospace such as actuators, vortex generators, variable geometry chevrons, morphing wings and superelastic tires for Martian and Lunar Rover vehicles.
2024
Shape Memory Alloys and their applications in aerospace
This thesis aims to examine SMART materials, in particular shape memory alloys. SMAs own a unique ability to return to a predefined shape after being deformed or heated. Super-elasticity allows them to recover from large strains, enabling adaptive structures and smart systems. Applications range from aerospace to biomedicine, with ongoing research focusing on perfecting their performance. This study analyses their historical background, their chemical composition, a comparison with conventional materials and some applications in aeronautics and aerospace such as actuators, vortex generators, variable geometry chevrons, morphing wings and superelastic tires for Martian and Lunar Rover vehicles.
Leghe a memoria
Shape memory alloys
Super elasticità
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Utilizza questo identificativo per citare o creare un link a questo documento: https://hdl.handle.net/20.500.12608/98130