This handbook presents a detailed and analytically rigorous study of metal fatigue and fracture in engineering materials, focusing on prediction, analysis, and control within practical engineering contexts. It develops a clear understanding of how materials respond to cyclic loading, environmental influences, and structural stresses over time. The handbook integrates fundamental theories with applied engineering approaches, examining mechanisms of crack initiation, propagation, and eventual failure in metallic components. It further considers the role of material properties, surface treatments, and protective techniques in enhancing durability and performance. Emphasis is placed on analytical methods used to assess structural integrity and predict failure behaviour, enabling engineers to design safer and more reliable systems. The discussion also reflects contemporary advancements in materials engineering, encouraging a systematic and preventative approach to managing fatigue and fracture in critical applications.

This handbook is intended for engineers, researchers, and advanced students seeking to strengthen their expertise in materials behaviour and structural reliability. It supports the development of analytical capability, technical precision, and informed decision-making in engineering design and maintenance.