Non-Euclidean Geometry /
Throughout most of this book, non-Euclidean geometries in spaces of two or three dimensions are treated as specializations of real projective geometry in terms of a simple set of axioms concerning points, lines, planes, incidence, order and continuity, with no mention of the measurement of distances...
Clasificación: | Libro Electrónico |
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Autor principal: | |
Formato: | Electrónico eBook |
Idioma: | Inglés |
Publicado: |
Cambridge :
Cambridge University Press,
2014.
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Colección: | Bibliografija "Spectrum."
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Temas: | |
Acceso en línea: | Texto completo |
Tabla de Contenidos:
- Front Cover
- NON-EUCLIDEAN GEOMETRY
- Copyright Page
- PREFACE TO THE SIXTH EDITION
- CONTENTS
- CHAPTER I. THE HISTORICAL DEVELOPMENT OF NON-EUCLIDEAN GEOMETRY
- 1.1 Euclid
- 1.2 Saccheri and Lambert
- 1.3 Gauss, Wachter, Schweikart, Taurinus
- 1.4 Lobatschewsky
- 1.5 Bolyai
- 1.6 Riemann
- 1.7 Klein
- CHAPTER II. REAL PROJECTIVE GEOMETRY: FOUNDATIONS
- 2.1 Definitions and axioms
- 2.2 Models
- 2.3 The principle of duality
- 2.4 Harmonic sets
- 2.5 Sense
- 2.6 Triangular and tetrahedral regions
- 2.7 Ordered correspondences
- 2.8 One-dimensional projectivities2.9 Involutions
- CHAPTER III. REAL PROJECTIVE GEOMETRY: POLARITIES, CONICS AND QUADRICS
- 3.1 Two-dimensional projectivities
- 3.2 Polarities in the plane
- 3.3 Conies
- 3.4 Projectivities on a conic
- 3.5 The fixed points of a collineation
- 3.6 Cones and reguli
- 3.7 Three-dimensional projectivities
- 3.8 Polarities in space
- CHAPTER IV. HOMOGENEOUS COORDINATES
- 4.1 The von Staudt-Hessenberg calculus of points
- 4.2 One-dimensional projectivities
- 4.3 Coordinates in one and two dimensions
- 4.4 Collineations and coordinate transformations4.5 Polarities
- 4.6 Coordinates in three dimensions
- 4.7 Three-dimensional projectivities
- 4.8 Line coordinates for the generators of a quadric
- 4.9 Complex projective geometry
- CHAPTER V. ELLIPTIC GEOMETRY IN ONE DIMENSION
- 5.1 Elliptic geometry in general
- 5.2 Models
- 5.3 Reflections and translations
- 5.4 Congruence
- 5.5 Continuous translation
- 5.6 The length of a segment
- 5.7 Distance in terms of cross ratio
- 5.8 Alternative treatment using the complex line
- CHAPTER VI. ELLIPTIC GEOMETRY IN TWO DIMENSIONS6.1 Spherical and elliptic geometry
- 6.2 Reflection
- 6.3 Rotations and angles
- 6.4 Congruence
- 6.5 Circles
- 6.6 Composition of rotations
- 6.7 Formulae for distance and angle
- 6.8 Rotations and quaternions
- 6.9 Alternative treatment using the complex plane
- CHAPTER VII. ELLIPTIC GEOMETRY IN THREE DIMENSIONS
- 7.1 Congruent transformations
- 7.2 Clifford parallels
- 7.3 The Stephanos-Cartan representation of rotations by points
- 7.4 Right translations and left translations
- 7.5 Right parallels and left parallels7.6 Study's representation of lines by pairs of points
- 7.7 Clifford translations and quaternions
- 7.8 Study's coordinates for a line
- 7.9 Complex space
- CHAPTER VIII. DESCRIPTIVE GEOMETRY
- 8.1 Klein's projective model for hyperbolic geometry
- 8.2 Geometry in a convex region
- 8.3 Veblen's axioms of order
- 8.4 Order in a pencil
- 8.5 The geometry of lines and planes through a fixed point
- 8.6 Generalized bundles and pencils
- 8.7 Ideal points and lines
- 8.8 Verifying the projective axioms