This is the first book review on the books I listed here that are good for students. The first subject is classical dynamics, on which I recommended two books. The book I am gonna review in this post is "Classical Dynamics" by Donald T. Greenwood, Dover Publication.
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This is a concise book, whose main text contains 324 pages. Such a small size gives students confidence to read it cover to cover. regarding the mathematical prerequisite, although it claims to be a graduate textbook, it assumes only familiarity with basic calculus and some knowledge in differential equations.
The book is very well organized into seven chapters. The first chapter introduces basic concepts such as generalized coordinates, constraints, virtual work, and so on that are essential and enough for the following chapters. Chapter two derives Lagrange's equations, discusses integrals of motion, and applies the theory to small oscillations. Many interesting examples are worked out in this chapter. Chapter 3 then analyzes four special applications of Lagrange's equations, namely Rayleigh's Dissipation Functions, Impulsive Motion, Gyroscopic Systems, Velocity-Dependent Potentials.
Chapter 4 turns to the other pillar of the theory of classical dynamics: Hamilton's equations. It first elaborates the Hamilton's principle with logical clarity, then derives Hamilton's equations with examples. Finally, it discusses other variational principles and Liouville's theorem.
Chapters 5 and 6 should be considered as a whole. Chapter 5 tells one how to obtain principal functions and characteristic functions by using the Hamilton-Jacobi method. Chapter 6 explores the theory of canonical transformations and its application to dyanamics in more details and in a generalized way, in vewing that a principle function is a generating function for a canonical transformation between two points in phase space. These two chapters contain lots of details that are worth reading carefully.
The last one, Chapter 7 discusses special relativity by applying previously introduced methods. However, I found that such a chapter is actually not very necessary, at least for me. If one did not know much special relativity, he/she would not expect to learn much from this chapter. If one knew special relativity very well, then he/she should simply skip the chapter. But anyway, if you like, it is still fun to read it.
Now, pros and cons. Compared to other polular or standard books on this subject, this book is very well balanced between volume, conciseness, and the amount of details, it is easy to read. The book works every example in a detailed and heuristic way, which are good for the readers to develop their own problem-solving skills. The pictorial illustrations in the book are also very nice. At the end of each chapter, there are a bunch of excercise problems carefully chosen by the author. Final resutls of these problems are given at the end of the book so that readers can check their own answers after working through the solutions by themselves. I found that these problems are extremely usefull and interesting; hence, I solved each of them step by step.
Frankly speaking, I did not find any nonnegligible disadvantage of this book. Someone has a review on Amzaon.com, saying that "it fails to address issues like how one can use Lagrange's equations (or Hamilton's, for that matter) to correctly account for the effects of nonlinear dissipative forces". But I disagree, because I think topics like nonlinear system should be better treated in a more contemporary method, e.g. in the book: Classical Dynamics: a contemporary approach, which is the target of my next book review.
You may feel that the book is a bit too old, since it was first published in 1977. But come on, the subject is Classical dynamics, on which a book can never be too old to read.
Another overwhelming reason to own it is that it is priced at only 10.37USD.
Can anybody convince me to give up this one and buy the 100USD Goldstein's book instead? No way, of course not.
By the way, would anyone read the book and have trouble in solving any of the problem, please contact me, I can share my solutions with you.





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Thanks for your comments. In a two-body problem system, the angular momentum is not constant as stated by the Newton law. The rate of change of momentum (torque) is alternating but due to gravitational waves radiation energy loss, the torque is not symetrical with respect to the perihelion and aphelion line of axis. This explains the mercury perihelion advance. For more details see topic gravitational waves radiation.PDF in http://www.gravitomagnetism.com
I have now defined the gravitational radiation of masse particles. see new Newton law page 5. http://www.gravitomagnetism.com
By using the light dynamics, the radiation pressure for any reflective surface can be derived. By using the same approach the light rocket engine thrust equation can be derived.See light dynamics.PDF http://www.gravitomagnetism.com
Allais Effect has been solved
1) The pioneer anomaly (hidden matter)
2) The Allais Effect (gravity shield)
3) The galaxy disk shape flatness (no explanation).
4) The spiral form aspiration of matter by the accretion disk (frame dragging, science fiction).
5) The matter bipolar jets trajectory (magneto hydrodynamics theory, incoherent theory since the magnetic field cannot deflect neutral matter = circumstantial theory = confusion).
6) Galaxy rotation curve flatness (dark matter, MOND theory).
7) The source of matter bipolar jets (contradicts event horizon theory, science fiction)
See summary page 9 and page 1 for new Newton law
http://www.gravitomagnetism.com
Dear Sir,
I have now solved the pioneer anomaly and also other 5 cosmological blunders of the last 85 years, see the summary page 8, new Newton law page 1, http://www.gravitomagnetism.com
Regards
Joseph Nduriri ++33(0)6–31-13–61-55