TY - JOUR
T1 - Application and modelling of Shape-Memory Alloys for structural vibration control
T2 - State-of-the-art review
AU - Tabrizikahou, Alireza
AU - Kuczma, Mieczysław
AU - Łasecka-Plura, Magdalena
AU - Noroozinejad Farsangi, Ehsan
AU - Noori, Mohamamd
AU - Gardoni, Paolo
AU - Li, Shaofan
N1 - The research was funded by the research projects of Poznan University of Technology (grant numbers: 0412/SBAD/0060, 0412/SBAD/0061 and 0411/SBAD/0006).
PY - 2022/8/1
Y1 - 2022/8/1
N2 - One of the most essential components of structural design for civil engineers is to build a system that is resistant to environmental conditions such as harsh chemical environments, and catastrophic disasters like earthquakes and hurricanes. Under these circumstances and disturbances, conventional building materials such as steel and concrete may demonstrate inadequate performance in the form of corrosion, deterioration, oxidizing, etc. Shape Memory Alloys (SMAs) are novel metals with distinct features and desirable potential to overcome the inadequacies of existing construction materials and enable the structure to tolerate disturbances more efficiently. Shape Memory Effect (SME) and Pseudoelasticity (PE) have been the most attractive characteristics that scientists have focused on among the various features that SMAs exhibit. The SME enables the material to retain its original shape after severe deformation, whereas the PE behaviour of SMAs provides a wide range of deformation while mitigating a substantial amount of susceptible stresses. These behaviours are the consequence of the phase transformation between austenite and martensite. Many investigations on the modelling and application of SMAs in structural systems to endure applied dynamic loadings in the form of active, passive, and hybrid vibration control systems have been undertaken. The focus of this paper is to present an overview of the SMA-based applications and most frequently employed constitutive modelling, as well as their limits in structural vibration control and seismic isolation devices.
AB - One of the most essential components of structural design for civil engineers is to build a system that is resistant to environmental conditions such as harsh chemical environments, and catastrophic disasters like earthquakes and hurricanes. Under these circumstances and disturbances, conventional building materials such as steel and concrete may demonstrate inadequate performance in the form of corrosion, deterioration, oxidizing, etc. Shape Memory Alloys (SMAs) are novel metals with distinct features and desirable potential to overcome the inadequacies of existing construction materials and enable the structure to tolerate disturbances more efficiently. Shape Memory Effect (SME) and Pseudoelasticity (PE) have been the most attractive characteristics that scientists have focused on among the various features that SMAs exhibit. The SME enables the material to retain its original shape after severe deformation, whereas the PE behaviour of SMAs provides a wide range of deformation while mitigating a substantial amount of susceptible stresses. These behaviours are the consequence of the phase transformation between austenite and martensite. Many investigations on the modelling and application of SMAs in structural systems to endure applied dynamic loadings in the form of active, passive, and hybrid vibration control systems have been undertaken. The focus of this paper is to present an overview of the SMA-based applications and most frequently employed constitutive modelling, as well as their limits in structural vibration control and seismic isolation devices.
KW - Active control
KW - Passive control
KW - Review
KW - Shape Memory Alloy
KW - Structural seismic response
KW - Vibration
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U2 - 10.1016/j.conbuildmat.2022.127975
DO - 10.1016/j.conbuildmat.2022.127975
M3 - Review article
AN - SCOPUS:85131928551
SN - 0950-0618
VL - 342
JO - Construction and Building Materials
JF - Construction and Building Materials
M1 - 127975
ER -