Anthony D´Angelo Jr.

The book reviews the algebra, trigonometry, and basic calculus students need to be successful in solving problems. Next, a review of kinematics and Newton’s laws are discussed, and numerous examples are solved. Mechanisms include the slider crank, offset slider crank, gears and gear trains, belts and chains, and cams. A graphical and analytical approach is taken when covering slider crank mechanisms. The book uses vectors and Kennedy's theorem to solve a variety of included examples. Gears and gear trains as well as belts and chains are discussed. Finally, cams using graphical and analytical techniques are introduced. The concluding chapter gives multiple projects used in the class to capture the lectures and computer modeling using Excel and MATLAB.

The book reviews the algebra, trigonometry, and basic calculus students need to be successful in solving problems. Next, a review of kinematics and Newton’s laws are discussed, and numerous examples are solved. Mechanisms include the slider crank, offset slider crank, gears and gear trains, belts and chains, and cams. A graphical and analytical approach is taken when covering slider crank mechanisms. The book uses vectors and Kennedy's theorem to solve a variety of included examples. Gears and gear trains as well as belts and chains are discussed. Finally, cams using graphical and analytical techniques are introduced. The concluding chapter gives multiple projects used in the class to capture the lectures and computer modeling using Excel and MATLAB.

This book is intended for students taking a Machine Design course leading to a Mechanical Engineering Technology degree. It can be adapted to a Machine Design course for Mechanical Engineering students or used as a reference for adopting systems engineering into a design course. The book introduces the fundamentals of systems engineering, the concept of synthesis, and the basics of trade-off studies. It covers the use of a functional flow block diagram to transform design requirements into the design space to identify all success modes. The book discusses fundamental stress analysis for structures under axial, torsional, or bending loads. In addition, the book discusses the development of analyzing shafts under combined loads by using Mohr’s circle and failure mode criterion. Chapter 3 provides an overview of fatigue and the process to develop the shaft-sizing equations under dynamic loading conditions. Chapter 4 discusses power equations and the nomenclature and stress analysis for spur and straight bevel gears and equations for analyzing gear trains. Other machine component topics include derivation of the disc clutch and its relationship to compression springs, derivation of the flat belt equations, roller and ball bearing life equations, roller chains, and keyways. Chapter 5 introduces the area of computational machine design and provides codes for developing simple and powerful computational methods to solve: cross product required to calculate the torques and bending moments on shafts, 1D stress analysis, reaction loads on support bearings, Mohr’s circle, shaft sizing under dynamic loading, and cone clutch. The final chapter shows how to integrate Systems Engineering into machine design for a capstone project as a project-based collaborative design methodology. The chapter shows how each design requirement is transformed through the design space to identify the proper engineering equations.