Engineering Dynamics Labs with SolidWorks Motion 2014 (W/DVD)

　　This book is designed as a software-based lab book to complement a standard textbook in an engineering dynamics course, which is usually taught at the undergraduate level. This book can also be used as an auxiliary workbook in a CAE or Finite Element Analysis course for undergraduate students. Each book comes with a disc containing video demonstrations, a quick introduction to SolidWorks eBook, and all the part files used in the book.

　　This textbook has been carefully developed with the understanding that CAE software has developed to a point that it can be used as a tool to aid students in learning engineering ideas, concepts and even formulas. These concepts are demonstrated in each section of this book. Using the graphics-based tools of SolidWorks Simulation can help reduce the dependency on mathematics to teach these concepts substantially. The contents of this book have been written to match the contents of most mechanics of materials textbooks.

　　There are 11 chapters in this book. Each chapter contains two sections. Each section is designed for a student to follow the exact steps in that section and learn a concept or topic of Engineering Dynamics. Typically, each section takes 20-40 minutes to complete the exercises.

　　Each copy of this book comes with a disc containing videos that demonstrate the steps used in each section of the book, a 121 page introduction to Part and Assembly Modeling with SolidWorks in PDF format, and all the files readers may need if they have any trouble. The concise introduction to SolidWorks PDF is designed for those students who have no experience with SolidWorks and want to feel more comfortable working on the exercises in this book. All of the same content is available for download on the book’s companion website.

本書特色

　　1. A software-based lab book to complement a standard engineering dynamics textbook.
　　2. Chapters mapped to standard textbooks.
　　3. Facilitates learning of theories, concepts, and formulas.
　　4. Easy to understand; step-by-step instructions.
　　5. Comes with an 121-page PDF e-book, a concise introduction of 3D modeling using SolidWorks 2014.
　　6. Provides a companion DVD and a companion webpage containing resources including videos of each exercise in the book.

作者簡介

　　Professor Lee graduated from the Department of Civil Engineering, National Cheng Kung University, Tainan, Taiwan in 1977 and was subsequently qualified as a Professional Engineer. With his P.E. license, he became a structural engineering practitioner as well as a software developer in Taipei. During that period, he and his partners designed many high-rise buildings and developed several finite element analysis programs, which were then commercialized. He received his M.S. in 1984 and Ph.D. in 1989, both from University of Iowa, USA. After that, he started to work as a Research Scientist in an Industry-University Cooperated Research Center of the University of Iowa. One of his functions was to integrate commercially available FEM programs with the programs developed by the Center, creating new engineering capabilities to support the industrial members of the Center. Today, Professor Lee is teaching in National Cheng Kung University, one of the most prestigious universities in Taiwan. He has authored three English books: "Finite Element Simulations with ANSYS Workbench" (2010, 2011, 2012,2013, 2014), "Mechanics of Materials Labs with SolidWorks Simulation" (2013, 2014) and "Engineering Dynamics Labs with SolidWorks Motion" (2013, 2014); and two Chinese books: "Engineering Analysis with ANSYS: Fundamentals and Concepts" (2005) and "Taguchi Methods: Principles and Practices of Quality Design" (2000, 2008, 2011). He runs 6 km every morning and takes care his gardens during weekends.

1. Particle Kinematics
2. Particle Dynamics: Force and Acceleration
3. Particle Dynamics: Work and Energy
4. Particle Dynamics: Impulse and Momentum
5. Planar Rigid Body Kinematics
6. Planar Rigid Body Dynamics: Force and Acceleration
7. Planar Rigid Body Dynamics: Work and Energy
8. Planar Rigid Body Dynamics: Impulse and Momentum
9. 3D Rigid Body Kinematics
10. 3D Rigid Body
11. Vibrations