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Regular polytopes / H.S.M. Coxeter.

Por: Tipo de material: TextoTextoSeries Dover books on intermediate and advanced mathematicsEditor: New York : Dover Publications, 2019Fecha de copyright: ©1973Edición: Third editionDescripción: xiii, 321 páginas : ilustraciones ; 22 cmTipo de contenido:
  • texto
Tipo de medio:
  • sin mediación
Tipo de soporte:
  • volumen
ISBN:
  • 9780486614809
  • 0486614808
Tema(s): Clasificación LoC:
  • QA 691 C68.2019
Contenidos:
Polygons and polyhedra -- Regular and quasi-regular solids -- Rotation groups -- Tessellations and honeycombs -- Kaleidoscope -- Star-polyhedra -- Ordinary polytopes in higher space -- Truncation -- Poincare's proof of euler's formula -- Forms, vectors, and coordinates -- Generalized kaleidoscope -- Generalized petrie polygon -- Sections and projections -- Star-polytopes.
Resumen: Polytopes are geometrical figures bounded by portions of lines, planes, or hyperplanes. In plane (two dimensional) geometry, they are known as polygons and comprise such figures as triangles, squares, pentagons, etc. In solid (three dimensional) geometry they are known as polyhedra and include such figures as tetrahedra (a type of pyramid), cubes, icosahedra, and many more; the possibilities, in fact, are infinite! H.S.M. Coxeter's book is the foremost book available on regular polyhedra, incorporating not only the ancient Greek work on the subject, but also the vast amount of information that has been accumulated on them since, especially in the last hundred years. The author, professor of Mathematics, University of Toronto, has contributed much valuable work himself on polytopes and is a well-known authority on them. Professor Coxeter begins with the fundamental concepts of plane and solid geometry and then moves on to multi-dimensionality. Among the many subjects covered are Euler's formula, rotation groups, star-polyhedra, truncation, forms, vectors, coordinates, kaleidoscopes, Petrie polygons, sections and projections, and star-polytopes. Each chapter ends with a historical summary showing when and how the information contained therein was discovered. Numerous figures and examples and the author's lucid explanations also help to make the text readily comprehensible. Although the study of polytopes does have some practical applications to mineralogy, architecture, linear programming, and other areas, most people enjoy contemplating these figures simply because their symmetrical shapes have an aesthetic appeal. But whatever the reasons, anyone with an elementary knowledge of geometry and trigonometry will find this one of the best source books available on this fascinating study.
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Libros Biblioteca Francisco Xavier Clavigero Acervo Acervo General QA 691 C68.2019 (Navegar estantería(Abre debajo)) ej. 1 Disponible UIA200037

Incluye referencias bibliográficas (páginas 306-314) e índice.

Polygons and polyhedra -- Regular and quasi-regular solids -- Rotation groups -- Tessellations and honeycombs -- Kaleidoscope -- Star-polyhedra -- Ordinary polytopes in higher space -- Truncation -- Poincare's proof of euler's formula -- Forms, vectors, and coordinates -- Generalized kaleidoscope -- Generalized petrie polygon -- Sections and projections -- Star-polytopes.

Polytopes are geometrical figures bounded by portions of lines, planes, or hyperplanes. In plane (two dimensional) geometry, they are known as polygons and comprise such figures as triangles, squares, pentagons, etc. In solid (three dimensional) geometry they are known as polyhedra and include such figures as tetrahedra (a type of pyramid), cubes, icosahedra, and many more; the possibilities, in fact, are infinite! H.S.M. Coxeter's book is the foremost book available on regular polyhedra, incorporating not only the ancient Greek work on the subject, but also the vast amount of information that has been accumulated on them since, especially in the last hundred years. The author, professor of Mathematics, University of Toronto, has contributed much valuable work himself on polytopes and is a well-known authority on them. Professor Coxeter begins with the fundamental concepts of plane and solid geometry and then moves on to multi-dimensionality. Among the many subjects covered are Euler's formula, rotation groups, star-polyhedra, truncation, forms, vectors, coordinates, kaleidoscopes, Petrie polygons, sections and projections, and star-polytopes. Each chapter ends with a historical summary showing when and how the information contained therein was discovered. Numerous figures and examples and the author's lucid explanations also help to make the text readily comprehensible. Although the study of polytopes does have some practical applications to mineralogy, architecture, linear programming, and other areas, most people enjoy contemplating these figures simply because their symmetrical shapes have an aesthetic appeal. But whatever the reasons, anyone with an elementary knowledge of geometry and trigonometry will find this one of the best source books available on this fascinating study.