By: Roland Bryon Heywood
"Designing Against Fatigue of Metals" by Roland Bryon Heywood is a seminal work in the field of materials science, specifically focusing on the design principles to mitigate fatigue in metals. Here is a comprehensive overview of the book:
Fatigue Mechanisms: The book delves into the fundamental mechanisms of fatigue, including the nature of fretting corrosion and fretting fatigue, and their impact on the structural integrity of metals under various loading conditions.
Design Principles: Heywood provides detailed guidelines on how to design metal structures to withstand fatigue. This includes discussions on the relationship between loading conditions and fatigue strength, as well as strategies to enhance the durability of metal components.
Materials Science: The book covers the properties of metals relevant to fatigue, such as tensile strength and the implications of different testing methods (e.g., bending tests) on fatigue strength.
The book is structured to provide a comprehensive understanding of fatigue in metals, starting with the basic principles and progressing to advanced design techniques. It includes:
Given its publication in 1962, "Designing Against Fatigue of Metals" was a pioneering work in its field. While there is no specific critical reception available in the search results, the book's influence can be inferred from its continued relevance in the field of materials science and engineering. The book's hardcover edition and its inclusion in library catalogs suggest its importance as a reference text for engineers and researchers.
The book was first published in 1962 by Reinhold Publishing in hardcover format. It has an ISBN of 9780412068201 and contains 436 pages. The book is considered a classic in the field and is still referenced today, although it may be challenging to find a copy due to its age.
In summary, "Designing Against Fatigue of Metals" by Roland Bryon Heywood is a foundational text that provides a thorough understanding of fatigue mechanisms and design principles for metals. Its influence continues to be felt in the field of materials science and engineering.