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E-raamat: Euclidean Geometry and its Subgeometries

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  • Sari: Mathematics and Statistics
  • Ilmumisaeg: 31-Dec-2015
  • Kirjastus: Birkhauser Verlag AG
  • Keel: eng
  • ISBN-13: 9783319237756
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  • Formaat: PDF+DRM
  • Sari: Mathematics and Statistics
  • Ilmumisaeg: 31-Dec-2015
  • Kirjastus: Birkhauser Verlag AG
  • Keel: eng
  • ISBN-13: 9783319237756
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In this monograph, the authors present a modern development of Euclidean geometry from independent axioms, using up-to-date language and providing detailed proofs. The axioms for incidence, betweenness, and plane separation are close to those of Hilbert. This is the only axiomatic treatment of Euclidean geometry that uses axioms not involving metric notions and that explores congruence and isometries by means of reflection mappings. The authors present thirteen axioms in sequence, proving as many theorems as possible at each stage and, in the process, building up subgeometries, most notably the Pasch and neutral geometries. Standard topics such as the congruence theorems for triangles, embedding the real numbers in a line, and coordinatization of the plane are included, as well as theorems of Pythagoras, Desargues, Pappas, Menelaus, and Ceva. The final chapter covers consistency and independence of axioms, as well as independence of definition properties.There are over 300 exerc

ises; solutions to many of these, including all that are needed for this development, are available online at the homepage for the book at www.springer.com. Supplementary material is available online covering construction of complex numbers, arc length, the circular functions, angle measure, and the polygonal form of the Jordan Curve theorem.Euclidean Geometry and Its Subgeometries is intended for advanced students and mature mathematicians, but the proofs are thoroughly worked out to make it accessible to undergraduate students as well. It can be regarded as a completion, updating, and expansion of Hilbert"s work, filling a gap in the existing literature.

Preface.- Preliminaries and Incidence Geometry (I).- Affine Geometry: Incidence with Parallelism (IP).- Collineations of an Affine Plane (CAP).- Incidence and Betweenness (IB).- Pasch Geometry (PSH).- Ordering a Line in the Pasch Plane (ORD).- Collineations Preserving Betweenness (COBE).- Neutral Geometry (NEUT).- Free Segments of a Neutral Plane (FSEG).- Rotations about a Point of a Neutral Plane (ROT).- Euclidean Geometry Basics (EUC).- Isometries of a Euclidean Plane (ISM).- Dilations of a Euclidean Plane (DLN).- Every Line in a Euclidean Plane is an Ordered Field (OF).- Similarity on a Euclidean Plane (SIM).- Axial Affinities of a Euclidean Plane (AX).- Rational Points on a Line (QX).- A Line as Real Numbers (REAL); Coordinatization of a Plane (RR).- Belineations on a Euclidean/LUB Plane (AA).- Ratios of Sensed Segments (RS).- Consistency and Independence of Axioms; Other Matters Involving Models.- References.- Index.

Arvustused

This is the most detailed undergraduate textbook on the axiomatic foundation of Euclidean geometry ever written. (Victor V. Pambuccian, Mathematical Reviews, July, 2016)

The authors do a commendable job of writing out proofs in detail and attempting to make the text accessible to undergraduates. It makes a very useful reference source, and there arent very many current textbooks that discuss geometry from this particular point of view. I commend this book to the attention of instructors with an interest in the foundations of geometry, and to university librarians. (Mark Hunacek, MAA Reviews, maa.org, March, 2016)

1 Preliminaries and Incidence Geometry (I)
1(36)
1.1 Introduction
1(3)
1.2 Elementary logic
4(2)
1.3 Set theory
6(2)
1.4 Mappings, functions, cardinality, and relations
8(3)
1.5 Elementary algebraic structures
11(8)
1.6 The basic building blocks of axiomatic theory
19(3)
1.7 Advice for the reader: labels, notation, figures, and exercises
22(1)
1.8 Axioms for incidence geometry
23(2)
1.9 A finite model for incidence geometry
25(2)
1.10 Theorems for incidence geometry
27(7)
1.11 Exercises for incidence geometry
34(3)
2 Affine Geometry: Incidence with Parallelism (IP)
37(8)
2.1 Parallelism and parallel axioms
37(3)
2.2 Theorems of affine geometry
40(3)
2.3 Exercises for affine geometry
43(2)
3 Collineations of an Affine Plane (CAP)
45(18)
3.1 Collineations of an incidence plane
46(2)
3.2 Collineations: mostly on translations
48(6)
3.3 Collineations: dilations
54(4)
3.4 Collineations: axial affinities
58(3)
3.5 Exercises for collineations
61(2)
4 Incidence and Betweenness (IB)
63(16)
4.1 Definition and properties of betweenness
64(5)
4.2 Theorems of Incidence-Betweenness geometry
69(7)
4.3 Exercises for Incidence-Betweenness geometry
76(3)
5 Pasch Geometry (PSH)
79(60)
5.1 The Postulate of Pasch
80(1)
5.2 The Plane Separation Axiom (PSA)
81(5)
5.3 Pasch geometry
86(5)
5.4 Segments, rays, lines, and their properties
91(10)
5.5 Uniqueness of endpoints and edges
101(4)
5.6 Uniqueness of corners of angles, etc
105(4)
5.7 Mostly about angles
109(10)
5.8 Mostly about triangles
119(7)
5.9 Mostly about quadrilaterals
126(6)
5.10 Exercises for Pasch geometry
132(7)
6 Ordering a Line in a Pasch Plane (ORD)
139(10)
6.1 Theorems for ordering
141(6)
6.2 Exercises for ordering
147(2)
7 Collineations Preserving Betweenness (COBE)
149(6)
8 Neutral Geometry (NEUT)
155(70)
8.1 Mirror mappings and their elementary properties
157(2)
8.2 Reflection sets and the reflection axiom
159(4)
8.3 Congruence, isometries, and lines of symmetry
163(3)
8.4 Lines of symmetry and fixed lines
166(5)
8.5 Uniqueness of angle reflections
171(1)
8.6 Constructed mirror mappings
172(2)
8.7 Complementary mappings and perpendicularity
174(3)
8.8 Properties of certain isometries; Pons Asinorum
177(5)
8.9 Vertical and supplementary angles; more perpendicularity
182(6)
8.10 Midpoints of segments
188(4)
8.11 Congruence of triangles and angles
192(7)
8.12 Ordering segments and angles
199(6)
8.13 Acute and obtuse angles
205(8)
8.14 Exercises for neutral geometry
213(12)
9 Free Segments of a Neutral Plane (FSEG)
225(10)
9.1 Theorems for free segments
226(6)
9.2 Exercises for free segments
232(3)
10 Rotations About a Point of a Neutral Plane (ROT)
235(16)
10.1 Definitions and theorems for rotations
236(11)
10.2 Exercises for rotations
247(4)
11 Euclidean Geometry Basics (EUC)
251(14)
11.1 Definitions and theorems for Euclidean geometry
252(11)
11.2 Exercises for Euclidean geometry
263(2)
12 Isometries of a Euclidean Plane (ISM)
265(16)
12.1 Properties and classification of isometries
266(13)
12.2 Exercises for isometries
279(2)
13 Dilations of a Euclidean Plane (DLN)
281(24)
13.1 Half-rotations and dilations
282(14)
13.2 Properties of dilations
296(7)
13.3 Exercises for dilations
303(2)
14 Every Line in a Euclidean Plane Is an Ordered Field (OF)
305(14)
14.1 Building a line into an ordered field
306(10)
14.2 Exercises for ordered fields
316(3)
15 Similarity on a Euclidean Plane (SIM)
319(16)
15.1 Theorems on similarity
319(13)
15.2 Exercises for similarity
332(3)
16 Axial Affinities of a Euclidean Plane (AX)
335(12)
16.1 Theorems for axial affinities
335(9)
16.2 Exercises for axial affinities
344(3)
17 Rational Points on a Line (QX)
347(14)
17.1 Integral multiples of a point
348(4)
17.2 Rational multiples of a point
352(5)
17.3 Applications of rational multiples
357(2)
17.4 Exercises for rational points on a line
359(2)
18 A Line as Real Numbers (REAL); Coordinatization of a Plane (RR)
361(30)
18.1 The basics of least upper bounds
362(2)
18.2 Archimedes, Eudoxus, and least upper bounds
364(3)
18.3 Real multiples of members of L
367(18)
18.4 Coordinatizing the plane
385(4)
18.5 Exercises for real numbers and the coordinate plane
389(2)
19 Belineations on a Euclidean/LUB Plane (AA)
391(10)
19.1 Belineations with two fixed points are axial affinities
391(6)
19.2 Summaries for belineations
397(4)
20 Ratios of Sensed Segments (RS)
401(12)
20.1 Basic theorems on sensed segments
401(6)
20.2 Theorems of Menelaus and Ceva
407(5)
20.3 Exercises for ratios of sensed segments
412(1)
21 Consistency and Independence of Axioms; Other Matters Involving Models
413(104)
21.1 Euclid meets Descartes: synthetic vs. coordinate geometry
414(1)
21.2 Our models and their implications
414(2)
21.2.1 List of axioms for reference
416(1)
21.3 Coordinate space: linear Model LM3 (LA)
416(14)
21.4 Coordinate plane: linear Model LM2 (LB)
430(7)
21.5 Axiom consistency: a linear model (LC)
437(29)
21.5.1 Incidence Axioms I.0-I.5
437(4)
21.5.2 Betweenness Axiom BET
441(3)
21.5.3 Parallel Axiom PS
444(1)
21.5.4 Plane Separation Axiom PSA
445(2)
21.5.5 Reflection Axiom REF
447(8)
21.5.6 On an arbitrary plane in F3
455(7)
21.5.7 Least upper bound Axiom LUB
462(1)
21.5.8 Axioms are consistent
463(3)
21.6 Independence of Axioms
466(30)
21.6.1 Incidence Axioms I.0-I.5 (FM)
468(5)
21.6.2 Betweenness Axiom BET (FM)
473(1)
21.6.3 Plane Separation Axiom PSA (DZI)
473(4)
21.6.4 Axiom REF: (MLT)
477(14)
21.6.5 Parallel Axiom PS (PSM)
491(3)
21.6.6 Independence of parallel Axiom PS
494(1)
21.6.7 Axiom LUB(LE)
495(1)
21.7 Independence of definition properties
496(11)
21.7.1 Independence of betweenness properties (BI)
496(4)
21.7.2 Independence of mirror mapping properties (MMI)
500(1)
21.7.3 Independence of reflection properties (RSI)
501(6)
21.8 Insufficiency of Incidence and Betweenness axioms
507(6)
21.8.1 "Property B.4" does not replace Axiom PSA (DZI)
507(1)
21.8.2 Strange results without Axiom PSA (DZII)
508(3)
21.8.3 Segment and triangle strangeness without Axiom PSA (DZIII)
511(2)
21.9 Exercises for models
513(4)
References 517(2)
Index 519