A Treatise on Universal Algebra: With Applications

Pirmais vāks
The University Press, 1898 - 586 lappuses
 

Saturs

The Null Element 2829
28
Classification of Special Algebras 2932
29
POSITIONAL MANIFOLDS CHAPTER I
30
Note
32
BOOK II
33
CHAPTER I
35
Reciprocity between Addition and Multiplication 3738
37
Interpretation 3839
38
Elementary Propositions 3941
39
Classification 4142
41
Incident Regions 4244
42
CHAPTER II
45
Elimination 4755
47
Solution of Equations with One Unknown 5559
55
On Limiting and Unlimiting Equations 5960
59
On the Fields of Expressions 6065
60
Solution of Equations with More than One Unknown 6567
67
Johnsons Method 7375
73
Symmetrical Solution of Equations with Three Unknowns 7580
75
Subtraction and Division 8082
80
CHAPTER IV
99
Exclusion of Nugatory Forms
100
CHAPTER V
107
Primitive Predication
113
ᎪᎡᎢ PAGES 61 Introductory
119
Things representing Different Elements 121122
121
Fundamental Propositions 122125
122
Subregions 125128
125
Loci 128130
128
Surface Loci and Curve Loci 130131
130
Note
131
CHAPTER II
132
Homographic Ranges
133
BOOK VI
135
Elementary Properties 136137
136
ReferenceFigures 138
138
Perspective 139142
139
Quadrangles 142143
142
CHAPTER III
144
Poles and Polars 145147
145
Generating Regions 147148
147
Conjugate Coordinates 148151
148
Quadriquadric Curve Loci 151153
151
Closed Quadrics 153155
153
Conical Quadric Surfaces 155157
155
Reciprocal Equations and Conical quadrics 157161
157
Note
161
Defining Equation of Intensity
162
327
168
CHAPTER I
171
Simple and Compound Extensive Magnitudes
177
Definition of Regressive Multiplication
183
Regressive Multiplication independent of ReferenceElements
191
ᎪᎡᎢ
199
115
206
PlaneEquation of a Quadric
212
129
219
CHAPTER VI
228
CHAPTER V
229
First Type of Linear Construction of the Cubic
235
Fourth Type of Linear Construction of the Cubic
244
MATRICES ᎪᎡᎢ PAGES 140 Introductory
248
Sums and Products of Matrices 250252
250
Associated Determinant
252
Latent Points 254255
254
SemiLatent Regions
256
The Latent Region of a Repeated Latent Root 257258
257
The First Species of SemiLatent Regions 258259
258
The Higher Species of SemiLatent Regions 259261
259
The Identical Equation
261
Symmetrical Matrices 262265
262
Symmetrical Matrices and Supplements 265267
265
Skew Matrices 267269
267
BOOK V
271
CHAPTER I
273
Recapitulation of Formulæ 274275
274
Inner Multiplication 275276
275
Elementary Properties of a Single Force
276
Condition for a Single Force
277
Null Lines Planes and Points
278
Properties of Null Lines 279280
279
Lines in Involution 280281
280
Reciprocal Systems 281282
281
Formulæ for Systems of Forces 282283
282
GROUPS OF SYSTEMS OF FORCES
284
Cayleys Theory of Distance 351353
351
Kleins Theorem 353354
353
Comparison with the Axioms of Distance
354
Division of Space 355356
355
Elliptic Space
356
Length of Intercepts in Polar Form 358361
358
Antipodal Form 361362
361
Hyperbolic Space 362363
362
The Space Constant 363364
363
Law of Intensity in Elliptic and Hyperbolic Geometry 364365
364
Distances of Planes and of Subregions 365367
365
Parabolic Geometry 367368
367
Law of Intensity in Parabolic Geometry 368369
368
Historical Note 369370
369
CHAPTER II
371
Further Formula for Triangles 374375
374
Points inside a Triangle 375376
375
Oval Quadrics 376378
376
Further Properties of Triangles 378379
378
Planes Onesided 379382
379
Angles between Planes
382
Perpendiculars 383385
383
Shortest Distances from Points to Planes 385386
385
Common Perpendicular of Planes
386
Distances from Points to Subregions 387388
387
Shortest Distances between Subregions 388391
388
Spheres 391396
391
Parallel Subregions 397398
397
EXTENSIVE MANIFOLDS AND ELLIPTIC GEOMETRY
399
Parallel Lines
405
Further Properties of Parallel Lines
411
242
417
Triangles
425
Rectangular Rectilinear Figures
433
Parallel Planes
439
261
447
Surfaces of Equal Distance from Subregions
451
269
458
Small Displacements
464
280
470
Small Displacements
476
Propositions
482
292
491
CHAPTER VIII
496
Intensities 498499
498
Congruent Transformations 500502
500
BOOK VII
503
CHAPTER I
505
Points at Infinity 506507
506
Vectors 507508
507
Linear Elements 508509
508
Vector Areas 509511
509
Vector Areas as Carriers
511
Planar Elements 512513
512
Vector Volumes
513
Product of Four Points
514
Interpretation of Formulæ 515516
515
Vector Formulæ
516
Theory of Forces 518520
518
Graphic Statics 520522
520
Note
522
Rectangular Normal Systems 322 Imaginary SelfNormal Sphere
524
Real SelfNormal Sphere
525
324
526
Geometrical Formulæ Taking the Flux
527
Flux Multiplication
528
The Central Axis 529530
529
Planes containing the Central Axis 530 330 Dual Groups of Systems of Forces 530531
530
Invariants of a Dual Group 332 Secondary Axes of a Dual Group
531
The Cylindroid 334 The Harmonic Invariants 335 Triple Groups
533
The Pole and Polar Invariants 337 Equation of the Associated Quadric 338
535
Small Displacements of a Rigid Body 340 Work
537
CHAPTER III
539
Osculating Plane and Normals 343 Acceleration
540
Simplified Formulæ 345 Spherical Curvature
541
Locus of Centre of Curvature 347 Gauss Curvilinear Coordinates
543
Curvature 349 Lines of Curvature
545
Dupins Theorem 351 Eulers Theorem 352 Meuniers Theorem Note
547
ᎪᎡᎢ
549
Hamiltons Differential Operator
555
Volume Surface and Line Integrals
562
372
569
PAGES
577
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580
465
585

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Populāri fragmenti

viii. lappuse - The ideal of mathematics should be to erect a calculus to facilitate reasoning in connection with every province of thought, or of external experience, in which the succession of thoughts, or of events can be definitely ascertained and precisely stated.
vi. lappuse - Mathematics in its widest signification is the development of all types of formal, necessary, deductive reasoning.
vi. lappuse - Mathematical reasoning is deductive in the sense that it is based upon definitions which, as far as the validity of the reasoning is concerned (apart from any existential import), need only the test of self-consistency. Thus no external verification of definitions is required by mathematics as long as it is considered merely as mathematics.
v. lappuse - N. Whitehead Treatise on Universal Algebra, 1898 2. The General Theory 2.1 A Classification of Equational Theories We like to present some important subclasses of equational theories, which turned out to be of practical interest as well as being useful as "basic building blocks...
10. lappuse - But in the use of a calculus this process of combination is externally performed by the combination of the concrete symbols, with the result of a new fact respecting the symbols which arises for sensuous perception...
12. lappuse - The whole of Mathematics consists in the organization of a series of aids to the imagination in the process of reasoning; and for this purpose device is \ piled upon device.
6. lappuse - Equivalence on the other hand implies non-identity as its general case. For instance in arithmetic we write, 2+3= 3+2. This means that, in so far as the total number of objects mentioned, 2+3 and 3+2 come to the same number, namely 5. But 2+3 and 3+2 are not identical; the order of the symbols is different in the two combinations, and this difference of order directs different processes of thought. The importance of the equation arises from its assertion that these different processes of thought...
vii. lappuse - The chance for any arbitrary system of symbolism applying to anything real is very small, as the author admits ; for he says that the entities created by conventional definitions must have properties which bear some affinity to the properties of existing things. Unless the affinity or correspondence is perfect, how can the one apply to the other ? How can this perfect correspondence be secured, except by the conventions being real definitions, the equations true propositions, and the rules expressions...
11. lappuse - The difficulty was solved by observing that Algebra does not depend on \ Arithmetic for the validity of its laws of transformation. If there were » such a dependence, it is obvious that as soon as algebraic expressions are arithmetically unintelligible all laws respecting them must lose their validity. But the laws of Algebra, though suggested by Arithmetic, do not depend on it.
vi. lappuse - The justification of the rules of inference in any branch of mathematics is not properly part of mathematics, it is the business of experience or philosophy. The business of mathematics is simply to follow the rules. In this sense all mathematical reasoning is necessary, namely, it has followed the rule.

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