This book highlights the critical challenges faced in total hip replacement (THR) procedures, particularly concerning the performance and longevity of acetabular components. Despite advancements in implant technology, issues such as improper orientation and material failure continue to result in complications, including dislocation and wear. Recognizing the need for more reliable solutions, this book explores the optimization of safe zone orientation and the development of composite materials, specifically focusing on metal-on-polymer (MoP) implants. By investigating these factors through numerical analysis, finite element analysis (FEA), and experimental studies, the book seeks to enhance implant performance, reduce failure rates, and ultimately improve patient outcomes in THR surgeries.

This book highlights  the critical challenge of improving the design and performance of hip implants, which are essential for enhancing patient outcomes in hip replacement surgeries. The book focuses on utilizing Finite Element Analysis (FEA) to optimize implant designs, ensuring they can withstand complex mechanical loads and reduce the risk of failure. It is hoped that readers will gain a deeper understanding of the significance of implant design and the role of FEA in predicting and enhancing implant performance, ultimately leading to better, more durable solutions in orthopedic surgeries.

This book highlights the design and performance of bio-inspired approach to a flying drone design. The flying drone design in this book is a micro-air vehicle (MAV) where the wingspan of the drone is less than 15cm. It focuses on the wing design of the MAV which is a flapping wing that is based on bat wings. In the first part, this book delves into the past work that has been done in this area and gives a bigger picture of the design approach as well as the blind spots that are in the field. In the second part, the book presents a novel design process with experiments that have been done to measure the performance of the design.

This book highlights the critical challenges faced in total hip replacement (THR) procedures, particularly concerning the performance and longevity of acetabular components. Despite advancements in implant technology, issues such as improper orientation and material failure continue to result in complications, including dislocation and wear. Recognizing the need for more reliable solutions, this book explores the optimization of safe zone orientation and the development of composite materials, specifically focusing on metal-on-polymer (MoP) implants. By investigating these factors through numerical analysis, finite element analysis (FEA), and experimental studies, the book seeks to enhance implant performance, reduce failure rates, and ultimately improve patient outcomes in THR surgeries.

This book highlights  the critical challenge of improving the design and performance of hip implants, which are essential for enhancing patient outcomes in hip replacement surgeries. The book focuses on utilizing Finite Element Analysis (FEA) to optimize implant designs, ensuring they can withstand complex mechanical loads and reduce the risk of failure. It is hoped that readers will gain a deeper understanding of the significance of implant design and the role of FEA in predicting and enhancing implant performance, ultimately leading to better, more durable solutions in orthopedic surgeries.

This book highlights the design and performance of bio-inspired approach to a flying drone design. The flying drone design in this book is a micro-air vehicle (MAV) where the wingspan of the drone is less than 15cm. It focuses on the wing design of the MAV which is a flapping wing that is based on bat wings. In the first part, this book delves into the past work that has been done in this area and gives a bigger picture of the design approach as well as the blind spots that are in the field. In the second part, the book presents a novel design process with experiments that have been done to measure the performance of the design.