Foundations of geometry /

Synopsis: Foundations of Geometry, Second Edition is written to help enrich the education of all mathematics majors and facilitate a smooth transition into more advanced mathematics courses. The text also implements the latest national standards and recommendations regarding geometry for the prepara...

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Bibliographic Details
Main Author: Venema, Gerard
Format: Book
Language:English
Published: Boston : Pearson, [2012]
Edition:2nd ed.
Subjects:
Table of Contents:
  • Preface
  • 1: Prologue: Euclid's Elements
  • 1-1: Geometry before Euclid
  • 1-2: Logical structure of Euclid's Elements
  • 1-2: Logical structure of Euclid's Elements
  • 1-3: Historical significance of Euclid's Elements
  • 1-4: Look at Book I of the Elements
  • 1-5: Critique of Euclid's Elements
  • 1-6: Final observations about the Elements
  • 2: Axiomatic Systems And Incidence Geometry
  • 2-1: Structure of an axiomatic system
  • 2-2: Example: incidence geometry
  • 2-3: Parallel postulates in incidence geometry
  • 2-4: Axiomatic systems and the real world
  • 2-5: Theorems, proofs, and logic
  • 2-6: Some theorems from incidence geometry
  • 3: Axioms For Plane Geometry
  • 3-1: Undefined terms and two fundamental axioms
  • 3-2: Distance and the ruler postulate
  • 3-3: Plane separation
  • 3-4: Angle measure and the protractor postulate
  • 3-5: Crossbar theorem and the Linear Pair theorem
  • 3-6: Side-angle-side postulate
  • 3-7: Parallel postulates and models
  • 4: Neutral Geometry
  • 4-1: Exterior Angle theorem and existence of perpendiculars
  • 4-2: Triangle congruence conditions
  • 4-3: Three inequalities for triangles
  • 4-4: Alternate interior angles theorem
  • 4-5: Saccheri-Legendre theorem
  • 4-6: Quadrilaterals
  • 4-7: Statements equivalent to the Euclidean parallel postulate
  • 4-8: Rectangles and defect
  • 4-9: Universal hyperbolic theorem
  • 5: Euclidean Geometry
  • 5-1: Basic theorems of Euclidean geometry
  • 5-2: Parallel projection theorem
  • 5-3: Similar triangles
  • 5-4: Pythagorean theorem
  • 5-5: Trigonometry
  • 5-6: Exploring the Euclidean geometry of the triangle
  • 6: Hyperbolic Geometry
  • 6-1: Basic theorems of hyperbolic geometry
  • 6-2: Common perpendiculars
  • 6-3: Angle of parallelism
  • 6-4: Limiting parallel rays
  • 6-5: Asymptotic triangles
  • 6-6: Classification of parallels
  • 6-7: Properties of the critical function
  • 6-8: Defect of a triangle
  • 6-9: Is the real world hyperbolic?
  • 7: Area
  • 7-1: Neutral area postulate
  • 7-2: Area in Euclidean geometry
  • 7-3: Dissection theory
  • 7-4: Proof of the dissection theorem in Euclidean geometry
  • 7-5: Associated Saccheri quadrilateral
  • 7-6: Area and defect in hyperbolic geometry
  • 8: Circles
  • 8-1: Circles and lines in neutral geometry
  • 8-2: Circles and triangles in neutral geometry
  • 8-3: Circles in Euclidean geometry
  • 8-4: Circular continuity
  • 8-5: Circumference and area of Euclidean circles
  • 8-6: Exploring Euclidean circles.
  • 9: Constructions
  • 9-1: Compass and straightedge constructions
  • 9-2: Neutral constructions
  • 9-3: Euclidean constructions
  • 9-4: Construction of regular polygons
  • 9-5: Area constructions
  • 9-6: Three impossible constructions
  • 10: Transformations
  • 10-1: Properties of isometries
  • 10-2: Rotations, translations, and glide reflections
  • 10-3: Classification of Euclidean motions
  • 10-4: Classification of hyperbolic motions
  • 10-5: Transformational approach to the foundations
  • 10-6: Similarity transformations in Euclidean geometry
  • 10-7: Euclidean inversions in circles
  • 11: Models
  • 11-1: Cartesian model for Euclidean geometry
  • 11-2: Poincare disk model for hyperbolic geometry
  • 11-3: Other models for hyperbolic geometry
  • 11-4: Models for elliptic geometry
  • 12: Polygonal Models And The Geometry Of Space
  • 12-1: Curved surfaces
  • 12-2: Approximate models for the hyperbolic plane
  • 12-3: Geometric surfaces
  • 12-4: Geometry of the universe
  • 12-5: Conclusion
  • 12-6: Further study
  • 12-7: Templates
  • Appendices:
  • A: Euclid's Book I
  • A-1: Definitions
  • A-2: Postulates
  • A-3: Common notions
  • A-4: Propositions
  • B: Systems of axioms for geometry
  • B-1: Hilbert's axioms
  • B-2: Birkoff's axioms
  • B-3: MacLane's axioms
  • B-4: SMSG axioms
  • B-5: UCSMP axioms
  • C: Postulates used in this book
  • C-1: Criteria used in selecting the postulates
  • C-2: Statements of the postulates
  • C-3: Logical relationships
  • D: Van Hiele model
  • E: Set notation and the real numbers
  • E-1: Some elementary set theory
  • E-2: Axioms for the real numbers
  • E-3: Properties of the real numbers
  • E-4: One-to-one and onto functions
  • E-5: Continuous functions
  • F: Hints for selected exercises
  • Bibliography
  • Index.