One important challenge of microsystems design is the implementation of miniaturized actuation principles efficient at the micro-scale. Shape memory alloys (SMAs) have early on been considered as a potential solution to this problem as these materials offer attractive properties like a high-power to weight ratio, large deformation and the capability to be processed at the micro-scale. This paper reviews various attempts made to introduce SMAs in microsystems as well as design principles for SMA microactuators. It presents the status of current research and potential developments from a material research perspective
Shape memory alloys (SMAs) are metals that "remember" their original shapes. SMAs are useful for suc...
This short monograph presents an analysis and design methodology for shape memory alloy (SMA) compon...
Shape memory alloys (SMAs) impart a potential application in a wide range in micro- and nano-industr...
One important challenge of microsystems design is the implementation of miniaturized actuation princ...
One important challenge of microsystems design is the implementation of miniaturized actuation princ...
One important challenge of microsystems design is the implementation of miniaturized actuation princ...
One important challenge of microsystems design is the implementation of miniaturized actuation princ...
For the past few years, consumer products such as computers, mobile phones, and cameras have drastic...
Shape memory alloys (SMAs) are a class of smart materials characterized by shape memory effect and p...
Shape memory alloys (SMAs) are a class of smart materials characterized by shape memory effect and p...
Shape memory alloys (SMAs) are a class of smart materials characterized by shape memory effect and p...
Shape Memory Alloys are well known and established materials in medical engineering. In recent years...
Shape memory alloys (SMAs) belong to a class of shape memory materials (SMMs), which have the abilit...
Shape memory alloys (SMAs) belong to a class of smart materials with the ability to memorize or reta...
Shape memory alloys (SMAs) belong to a class of smart materials with the ability to memorize or reta...
Shape memory alloys (SMAs) are metals that "remember" their original shapes. SMAs are useful for suc...
This short monograph presents an analysis and design methodology for shape memory alloy (SMA) compon...
Shape memory alloys (SMAs) impart a potential application in a wide range in micro- and nano-industr...
One important challenge of microsystems design is the implementation of miniaturized actuation princ...
One important challenge of microsystems design is the implementation of miniaturized actuation princ...
One important challenge of microsystems design is the implementation of miniaturized actuation princ...
One important challenge of microsystems design is the implementation of miniaturized actuation princ...
For the past few years, consumer products such as computers, mobile phones, and cameras have drastic...
Shape memory alloys (SMAs) are a class of smart materials characterized by shape memory effect and p...
Shape memory alloys (SMAs) are a class of smart materials characterized by shape memory effect and p...
Shape memory alloys (SMAs) are a class of smart materials characterized by shape memory effect and p...
Shape Memory Alloys are well known and established materials in medical engineering. In recent years...
Shape memory alloys (SMAs) belong to a class of shape memory materials (SMMs), which have the abilit...
Shape memory alloys (SMAs) belong to a class of smart materials with the ability to memorize or reta...
Shape memory alloys (SMAs) belong to a class of smart materials with the ability to memorize or reta...
Shape memory alloys (SMAs) are metals that "remember" their original shapes. SMAs are useful for suc...
This short monograph presents an analysis and design methodology for shape memory alloy (SMA) compon...
Shape memory alloys (SMAs) impart a potential application in a wide range in micro- and nano-industr...