Cheng Fang

Structural Damping and Seismic Engineering Using Iron-based Shape Memory Alloys introduces the fundamental properties and practical applications of iron-based shape memory alloys (Fe-SMAs) from the perspective of seismic engineering. It objectively discusses the superiority of this novel class of materials that could potentially address the limitations of the existing seismic control technology. The results, vividly presented as tables and figures, are demonstrated with religious experimental verifications supplemented by comprehensive numerical investigations. From the knowledge provided, the readers will gain an in-depth understanding of the working mechanisms of various Fe-SMA-based structural devices and members, including braces, dampers, steel connections, base isolators, and concrete components, and as a result they will be provided with a broader vision of next-generation performance-based seismic design for novel adaptive structural systems. The book aims to help bridge the gap between materials science and structural engineering fronts, and to shed light on the opportunity of commercializing Fe-SMA products in construction industry. The cutting-edge research introduced in this book will also provide technical incentives to encourage design professionals, contractors, and building officials to use high performance and smart materials in structural design, allowing them to remain at the forefront of construction technology.

This book introduces readers to the fundamental properties and practical applications of shape memory alloys (SMAs) from the perspective of seismic engineering. It objectively discusses the superiority of this novel class of materials, which could potentially overcome the limitations of conventional seismic control technologies. The results, vividly presented in the form of tables and figures, are demonstrated with rigorous experimental verifications, supplemented by comprehensive numerical and analytical investigations. The book allows readers to gain an in-depth understanding of the working mechanisms of various SMA-based structural devices and members, including beam-to-column connections, dampers, and braces, while also providing them with a broader vision of next-generation, performance-based seismic design for novel adaptive structural systems. Helping to bridge the gap between material science and structural engineering, it also sheds light on the potential of commercializing SMA products in the construction industry. The cutting-edge research highlighted here provides technical incentives for design professionals, contractors, and building officials to use high-performance and smart materials in structural design, helping them stay at the forefront of construction technology.

This book introduces readers to the fundamental properties and practical applications of shape memory alloys (SMAs) from the perspective of seismic engineering. It objectively discusses the superiority of this novel class of materials, which could potentially overcome the limitations of conventional seismic control technologies. The results, vividly presented in the form of tables and figures, are demonstrated with rigorous experimental verifications, supplemented by comprehensive numerical and analytical investigations. The book allows readers to gain an in-depth understanding of the working mechanisms of various SMA-based structural devices and members, including beam-to-column connections, dampers, and braces, while also providing them with a broader vision of next-generation, performance-based seismic design for novel adaptive structural systems. Helping to bridge the gap between material science and structural engineering, it also sheds light on the potential of commercializing SMA products in the construction industry. The cutting-edge research highlighted here provides technical incentives for design professionals, contractors, and building officials to use high-performance and smart materials in structural design, helping them stay at the forefront of construction technology.