More Pages: Stanley Page 1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20 21 22 23 24 25 26 27 28 29 30 31 32 33 34 35 36 37 38 39 40 41 42 43 44 45 46 47 48 49 50 51 52 53 54 55 56 57 58 59 60 61 62 63 64 65 66 67 68 69 70 71 72 73 74 75 76 77 78 79 80 81 82 83 84 85 86 87 88 89 90 91 92 93 94 95 96 97 98 99 100


Best Maryland Booth Book Ever Written

The very best

Preserving and Carrying the toils of Helen and Scott Nearing

Excellent, well organized, perfect for the beginner.

Great Hollywood Films Study Guide !Although the some movies he uses for example are very old (Casablanca, Double Indemnity, Birth of a nation, King Kong, Psycho, etc) and sometimes its really hard to get on DVD, nevertheless they are all important & significant films that all film buffs should watch.
Stanley was my professor when I was in college. He used to be a judge for Emmy Awards. He's been teaching films/media for over 30 years. By reading this book you can really tell that he really love movies!
This book is recommended for beginner to novice film students. Or just normal people can enjoy as well. Many diagrams and pictures.
It is also a great book if you are making a movie.


A must have for the zooarchaeology student.

A Man's Touch

gala optica

Last stop, The End of History"Pointing out that Marx deffines communist economies as classless economies without markets, this book examines his claim that classless economies with markets are in some sense inferior to communist economies. From its analysis, two conclusions emerge. First, Marx's major arguments for abolishing commodity exchange rely on moral and philosophical premises, derived from Feuerback in the earlier writings and from Hegel in the later. Second, Marx's ideal of a communist economy is incompatible with his materialist approach to history...'
Your move.


Sui GenerisThe book is divided into two parts; the first, titled "Algebra and Analysis with Connections to Geometry", deals with numbers, functions, equations, polynomials, and number systems. The second, titled "Geometry with Connections to Algebra and Analysis", deals with congurence, symmetry, similarity, area annd volume, axiomatics, and trigonometry.
To give some idea of coverage, the second chapter (on real and complex numbers) discusses irrational numbers, a proof of the irrationality of e, the nested intervals property of the reals, countable and uncountable sets, and the diagonal proof of the uncountability of the reals. The chapter on equations briefly discusses cubic and quartic equations and states the unsolvability of the general quintic; the names of Gauss, Ruffini and Galois are mentioned. The chapter on integers and polynomials discusses induction, recursive definitions, simple diophantine equations and the fundamental theorem of arithmetic. It also indicates the analogies between the integers and the set of polynomials (both are integral domains). The chapter on number system structures discusses modular arithmetic, the Chinese remainder theorem, and gives examples of number fields other than the real and complex number systems (e.g. quadratic fields, and finite fields).
The projects at the end of each chapter extend the material covered in a natural way, and are challenging. To give some stray examples, the coordinatisation of the Riemann sphere, the Cardano-Tartaglia method for solving cubic equations, Fermat's last theorem for n = 4, constructible numbers, and the impossibility of squaring the circle and doubling the cube.
The chapter bibliographies are annotated, up-to-date, and list excellent books for further study.
I have a few criticisms. The first is that surjective functions are not discussed, and in this connection the Schroder-Bernstein theorem does not get mentioned or proved. A second and more serious criticism is the slender coverage of analytic geometry. Only five or six pages are devoted to this. As a consequence, the authors cannot discuss the rich field of algebraic curves in particular, and algebraic geometry in general. There is also no mention of projective transformations (i.e. projective geometry) or continuous transformations (i.e. topology). Finally, there is no mention of Klein's Erlanger program.
These quibbles aside, the book is well-conceived and well-written. It can join Courant and Robbins' "What is Mathematics", and Stillwell's "Mathematics and its History" as a book that gives a bird's eye perspective of (part of) the discipline.
Professors teaching undergrad courses would want this book on their shelves; it shows some of the connections between high school material and the relatively abstract courses taught at college (e.g. Galois theory, group theory, algebraic number theory, and real and complex analysis). Undergrad students might want this book for the same reasons. High school teachers who want a bird's eye perspective of high school mathematics from a sophisticated point of view might also want a copy; suggested lines of development can be used as enrichment topics.