Geometry Question: What is Geometry Revisited by Coxeter?

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"Geometry Revisited" by H. S. M. Coxeter and Samuel L. Greitzer is a comprehensive resource aimed at high school students and undergraduates, focusing on advanced geometric concepts often not covered in standard curricula. The book is particularly beneficial for those preparing for math competitions like AMC VIII to AMC XII, providing insights into various theorems and properties related to triangles, circles, and transformations. While some readers appreciate its utility for contest preparation, others find it lacks depth compared to Coxeter's "Introduction to Geometry." The text emphasizes using established geometric principles to solve problems efficiently, which can be appealing for competitive contexts. Overall, it serves as a valuable tool for students looking to enhance their understanding of geometry and improve their problem-solving skills in mathematics competitions.

For those who have used this book

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Table of Contents:
Code:
[LIST]
[*] Preface
[*] Points and Lines Connected with a Triangle
[LIST]
[*] The extended Law of Sines
[*] Ceva's theorem
[*] Points of interest
[*] The incircle and excircles
[*] The Steiner-Lehmus theorem
[*] The orthic triangle
[*] The medial triangle and Euler line
[*] The nine-point circle
[*] Pedal triangles
[/LIST]
[*] Some Properties of Circles
[LIST]
[*] The power of a point with respect to a circle
[*] The radical axis of two circles
[*] Coaxal circles
[*] More on the altitudes and orthocenter of a triangle
[*] Simson lines
[*] Ptolemy's theorem and its extension
[*] More on Simson lines
[*] The Butterfly
[*] Morley's theorem
[/LIST]
[*] Collinearity and Concurrence
[LIST]
[*] Quadrangles; Varignon's theorem
[*] Cyclic quadrangles; Brahmagupta's formula
[*] Napoleon triangles
[*] Menelaus's theorem
[*] Pappus's theorem
[*] Perspective triangles; Desargues's theorem
[*] Hexagons
[*] Pascal's theorem
[*] Brianchon's theorem
[/LIST]
[*] Transformations
[LIST]
[*] Translation
[*] Rotation
[*] Half-turn
[*] Reflection
[*] Fagnano's problem
[*] The three jug problem
[*] Dilatation
[*] Spiral similarity
[*] A genealogy of transformations
[/LIST]
[*] An Introduction to Inversive Geometry
[LIST]
[*] Separation
[*] Cross ratio
[*] Inversion
[*] The inversive plane
[*] Orthogonality
[*] Feuerbach's theorem
[*] Coaxal circles
[*] Inversive distance
[*] Hyperbolic functions
[/LIST]
[*] An Introduction to Projective Geometry
[LIST]
[*] Reciprocation
[*] The polar circle of a triangle 
[*] Conics
[*] Focus and directrix
[*] The projective plane
[*] Central conics
[*] Stereographic and gnomonic projection
[/LIST]
[*] Hints and Answers to Exercises
[*] References
[*] Glossary
[*] Index 
[/LIST]
 
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Good for high school math competitions. Almost all the topics are not covered in a standard high school math course.
 
The Book is used for AMC VIII to AMC XII.The best book ever written for Mathematics Olympiad Geometry.
 
It seems that the best thing people can say about this book is that it helps you to win high school math competitions.

I read this book after finishing my undergraduate degree in mathematics. I found it enjoyable, but I preferred Coxeter's Introduction to Geometry because it had more depth and breadth.
 
I agree. I am not nuts about this book. Winning contests involves using facts that you may not understand fully how to prove. This book is like that. E.g. the discussion of the "power of the point" claims correctly that this theorem of Euclid is an easy corollary of the principle of similarity. True enough.

However what they do not mention is that the theory of similarity is quite deep, and was not available to Euclid when he proved this theorem, so he gave a different proof using Pythagoras. Indeed if one uses Euclid's proof, then one can use this result to deduce the important principle of similarity without going to as much difficulty as is usually done.

If like me you are interested in the logical connections between different results, then you believe in doing them in logical order, not assuming the most difficult and deep ones first without justification, and then using them to make other results appear easy.

If however you want to solve contest problems quickly, then you want to use all the big guns available on the littlest peanut problems, in order to dispatch them in enough time to finish the test with the highest possible score. There is no harm in this, and I was myself so motivated in high school, but not so much any more.
 
The book is fascinating. If your education includes a typical math degree curriculum, with Lebesgue integration, functional analysis, etc, it teaches QFT with only a passing acquaintance of ordinary QM you would get at HS. However, I would read Lenny Susskind's book on QM first. Purchased a copy straight away, but it will not arrive until the end of December; however, Scribd has a PDF I am now studying. The first part introduces distribution theory (and other related concepts), which...
I've gone through the Standard turbulence textbooks such as Pope's Turbulent Flows and Wilcox' Turbulent modelling for CFD which mostly Covers RANS and the closure models. I want to jump more into DNS but most of the work i've been able to come across is too "practical" and not much explanation of the theory behind it. I wonder if there is a book that takes a theoretical approach to Turbulence starting from the full Navier Stokes Equations and developing from there, instead of jumping from...

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