Read Online and Download Ebook Modern Geometries: Non-Euclidean, Projective, and Discrete Geometry (2nd Edition) By Michael Henle
Modern Geometries: Non-Euclidean, Projective, And Discrete Geometry (2nd Edition) By Michael Henle. Change your habit to put up or throw away the time to only chat with your good friends. It is done by your everyday, don't you really feel tired? Now, we will show you the brand-new behavior that, in fact it's an older practice to do that can make your life a lot more certified. When feeling tired of consistently talking with your close friends all leisure time, you can find guide qualify Modern Geometries: Non-Euclidean, Projective, And Discrete Geometry (2nd Edition) By Michael Henle and afterwards read it.
Modern Geometries: Non-Euclidean, Projective, and Discrete Geometry (2nd Edition) By Michael Henle
Discover the secret to enhance the quality of life by reading this Modern Geometries: Non-Euclidean, Projective, And Discrete Geometry (2nd Edition) By Michael Henle This is a type of publication that you require currently. Besides, it can be your favored book to read after having this publication Modern Geometries: Non-Euclidean, Projective, And Discrete Geometry (2nd Edition) By Michael Henle Do you ask why? Well, Modern Geometries: Non-Euclidean, Projective, And Discrete Geometry (2nd Edition) By Michael Henle is a book that has different particular with others. You may not need to understand that the author is, how famous the job is. As wise word, never ever evaluate the words from who speaks, however make the words as your inexpensive to your life.
Guides that exist come from lots of collections on the planet. It suggests that you will locate the hundreds publications from lots of authors and publishers from the globe. We recognize that such individuals will certainly require the book from various other nation. If they have to invest much money to order and also wait for many times, you can obtain different means right here. Here, you can easily obtain the easiest way to link to guide as Modern Geometries: Non-Euclidean, Projective, And Discrete Geometry (2nd Edition) By Michael Henle directly.
By visiting this page, you have actually done the appropriate staring factor. This is your begin to pick guide Modern Geometries: Non-Euclidean, Projective, And Discrete Geometry (2nd Edition) By Michael Henle that you desire. There are bunches of referred e-books to read. When you wish to obtain this Modern Geometries: Non-Euclidean, Projective, And Discrete Geometry (2nd Edition) By Michael Henle as your publication reading, you could click the web link web page to download and install Modern Geometries: Non-Euclidean, Projective, And Discrete Geometry (2nd Edition) By Michael Henle In couple of time, you have actually possessed your referred books as your own.
Make this publication as favorite book to read now. There is no better publication with the same topic as this. You can see how words that are created are truly suitable to motivate your condition making far better. Currently, you can likewise feel that the important things of Modern Geometries: Non-Euclidean, Projective, And Discrete Geometry (2nd Edition) By Michael Henle are extended not only for making great possibilities for the readers yet likewise provide excellent ambience for the result of what to write.
From the Inside Flap
PREFACE What Is Modern Geometry?
For most of recorded history, Euclidean geometry has dominated geometric thinking. Today, however, while Euclidean geometry is still central to much engineering and applied science, other geometries also playa major role in mathematics, computer science, biology, chemistry and physics. This book surveys these geometries, including non-Euclidean metric geometries (hyperbolic geometry and elliptic geometry) and nonmetric geometries (for example, projective geometry), The study of such geometries complements and deepens the knowledge of the world contained in Euclidean geometry.
Modern geometry is a fascinating and important subject. Above all, it is pure mathematics filled with startling results of great beauty and mystery. It also lies at the foundation of modern physics and astronomy, since non-Euclidean geometries appear to be the geometry of physical reality in several different ways: on the surface of the earth, as well as in the universe as a whole at very small and very large scales. Finally, modern geometry plays an important role in the intellectual history of Western civilization. Its development, in the nineteenth century, radically altered our conception of physical and geometric space, creating a revolution in philosophical, scientific, artistic and mathematical thought comparable to the Copernican revolution, which changed forever the relationship between science, mathematics, and the real world. The main purpose of this book is to describe the mathematics behind this revolution. Analytic versus Synthetic Geometry
Despite its crucial influence on modern scientific thought, non-Euclidean is not well known. In part, this is due to the general neglect of geometry in the mathematics curriculum. However, another factor is the axiomatic format in which geometry is usually presented. Axiomatic geometry (also called synthetic geometry) is a legacy of the Greeks and suited admirably their view of geometry. However, it has no particular relevance to the modern viewpoint and indeed tends to obscure connections among the real world, geometry, and other parts of mathematics. In an age in which applications are paramount, there is no reason why geometry alone among mathematical subjects should be singled out for a quasi-archaic treatment that conceals its practical value. An axiomatic approach is particularly inappropriate with the current generation of mathematics students, since they have had only the briefest exposure to it in high school geometry classes. It makes much more sense to base a geometry course on analytic methods, with which students are much more familiar.
The purpose of this book is to provide a brief, but solid, introduction to modern geometry using analytic methods. The central idea is to relate geometry to familiar ideas from analytic geometry, staying firmly in the Cartesian plane and building on skills already known and extensively practiced there. The principal geometric concept used is that of congruence or geometric transformation. Thus, the Erlanger Programm, fundamental to modern geometry, is introduced and used explicitly throughout. The hope is that the resulting treatment will be accessible to all who are interested in geometry.
At the same time, synthetic methods should not be neglected. Hence, we present (in Part VI) axiom systems for Euclidean and absolute geometry. Presenting alternative systems demonstrates how axiomatics can clarify logical relationships among geometric concepts and among different geometries. Use of the Book
This book is intended for an undergraduate geometry course at the sophomore level or higher. Parts I, II, and VII are the heart of the book. The remaining parts are almost independent of each other. They include material on solid geometry, projective geometry, discrete geometry, and axiom systems. (See the Dependency Chart on page ix.) These parts can be added to a syllabus, depending on the time available, and the interests of the instructor and students. In this way, a wide variety of different courses can be constructed. Prerequisites
A previous acquaintance with (high school) Euclidean geometry and analytic geometry is needed to read this book. Specific Euclidean topics used include the sum of the angles of a triangle, the congruence of triangles, and the theory of parallels. From analytic geometry, the reader needs to be familiar with Cartesian and polar coordinates, and to be able to graph straight lines and circles from their equations (including parametric equations). Some familiarity with vector operations (addition and scalar multiplication) is also useful, and some linear algebra is used (but only in later chapters on projective geometry and discrete geometry).
About the Author
Michael Henle is Professor of Mathematics and Computer Science at Oberlin College and has had two visiting appointments, at Howard University and the Massachusetts Institute of Technology, as well as two semesters teaching in London in Oberlin's own program. He is the author of two books: A Combinatorial Introduction to Topology (W. H. Freeman and Co., 1978, reissued by Dover Publications, 1994) and Modern Geometries: The Analytic Approach (Prentice-Hall, 1996). He is currently editor of The College Mathematics Journal.
Excerpt. © Reprinted by permission. All rights reserved.
PREFACE What Is Modern Geometry?
For most of recorded history, Euclidean geometry has dominated geometric thinking. Today, however, while Euclidean geometry is still central to much engineering and applied science, other geometries also playa major role in mathematics, computer science, biology, chemistry and physics. This book surveys these geometries, including non-Euclidean metric geometries (hyperbolic geometry and elliptic geometry) and nonmetric geometries (for example, projective geometry), The study of such geometries complements and deepens the knowledge of the world contained in Euclidean geometry.
Modern geometry is a fascinating and important subject. Above all, it is pure mathematics filled with startling results of great beauty and mystery. It also lies at the foundation of modern physics and astronomy, since non-Euclidean geometries appear to be the geometry of physical reality in several different ways: on the surface of the earth, as well as in the universe as a whole at very small and very large scales. Finally, modern geometry plays an important role in the intellectual history of Western civilization. Its development, in the nineteenth century, radically altered our conception of physical and geometric space, creating a revolution in philosophical, scientific, artistic and mathematical thought comparable to the Copernican revolution, which changed forever the relationship between science, mathematics, and the real world. The main purpose of this book is to describe the mathematics behind this revolution.
Analytic versus Synthetic GeometryDespite its crucial influence on modern scientific thought, non-Euclidean is not well known. In part, this is due to the general neglect of geometry in the mathematics curriculum. However, another factor is the axiomatic format in which geometry is usually presented. Axiomatic geometry (also called synthetic geometry) is a legacy of the Greeks and suited admirably their view of geometry. However, it has no particular relevance to the modern viewpoint and indeed tends to obscure connections among the real world, geometry, and other parts of mathematics. In an age in which applications are paramount, there is no reason why geometry alone among mathematical subjects should be singled out for a quasi-archaic treatment that conceals its practical value. An axiomatic approach is particularly inappropriate with the current generation of mathematics students, since they have had only the briefest exposure to it in high school geometry classes. It makes much more sense to base a geometry course on analytic methods, with which students are much more familiar.
The purpose of this book is to provide a brief, but solid, introduction to modern geometry using analytic methods. The central idea is to relate geometry to familiar ideas from analytic geometry, staying firmly in the Cartesian plane and building on skills already known and extensively practiced there. The principal geometric concept used is that of congruence or geometric transformation. Thus, the Erlanger Programm, fundamental to modern geometry, is introduced and used explicitly throughout. The hope is that the resulting treatment will be accessible to all who are interested in geometry.
At the same time, synthetic methods should not be neglected. Hence, we present (in Part VI) axiom systems for Euclidean and absolute geometry. Presenting alternative systems demonstrates how axiomatics can clarify logical relationships among geometric concepts and among different geometries.
Use of the BookThis book is intended for an undergraduate geometry course at the sophomore level or higher. Parts I, II, and VII are the heart of the book. The remaining parts are almost independent of each other. They include material on solid geometry, projective geometry, discrete geometry, and axiom systems. (See the Dependency Chart on page ix.) These parts can be added to a syllabus, depending on the time available, and the interests of the instructor and students. In this way, a wide variety of different courses can be constructed.
PrerequisitesA previous acquaintance with (high school) Euclidean geometry and analytic geometry is needed to read this book. Specific Euclidean topics used include the sum of the angles of a triangle, the congruence of triangles, and the theory of parallels. From analytic geometry, the reader needs to be familiar with Cartesian and polar coordinates, and to be able to graph straight lines and circles from their equations (including parametric equations). Some familiarity with vector operations (addition and scalar multiplication) is also useful, and some linear algebra is used (but only in later chapters on projective geometry and discrete geometry).
Modern Geometries: Non-Euclidean, Projective, and Discrete Geometry (2nd Edition)
By Michael Henle PDF
Modern Geometries: Non-Euclidean, Projective, and Discrete Geometry (2nd Edition)
By Michael Henle EPub
Modern Geometries: Non-Euclidean, Projective, and Discrete Geometry (2nd Edition)
By Michael Henle Doc
Modern Geometries: Non-Euclidean, Projective, and Discrete Geometry (2nd Edition)
By Michael Henle iBooks
Modern Geometries: Non-Euclidean, Projective, and Discrete Geometry (2nd Edition)
By Michael Henle rtf
Modern Geometries: Non-Euclidean, Projective, and Discrete Geometry (2nd Edition)
By Michael Henle Mobipocket
Modern Geometries: Non-Euclidean, Projective, and Discrete Geometry (2nd Edition)
By Michael Henle Kindle