000 | 03585cam a22003974a 4500 | ||
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001 | 2010010230 | ||
003 | DLC | ||
005 | 20250203135600.0 | ||
008 | 100309s2010 nyua b 001 0 eng | ||
010 | _a 2010010230 | ||
020 | _a9780521764100 (hardback) | ||
020 | _a0521764106 (hardback) | ||
020 | _a9780521128216 (pbk.) | ||
020 | _a0521128218 (pbk.) | ||
035 | _a(OCoLC)ocn564132786 | ||
040 |
_aDLC _cDLC _dYDX _dYDXCP _dBWK _dCDX _dBWX _dDLC |
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042 | _apcc | ||
049 | _aEY8Z | ||
050 | 0 | 0 |
_aQA36 _b.H53 2010 |
082 | 0 | 0 |
_a510 _222 |
100 | 1 | _aHilton, Peter John. | |
245 | 1 | 2 |
_aA mathematical tapestry : _bdemonstrating the beautiful unity of mathematics / _cPeter Hilton, Jean Pedersen ; with illustrations by Sylvie Donmoyer. |
260 |
_aNew York : _bCambridge University Press, _c2010. |
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300 |
_axv, 290 p. : _bill. ; _c25 cm. |
||
520 |
_a"This easy-to-read book demonstrates how a simple geometric idea reveals fascinating connections and results in number theory, the mathematics of polyhedra, combinatorial geometry, and group theory. Using a systematic paper-folding procedure it is possible to construct a regular polygon with any number of sides. This remarkable algorithm has led to interesting proofs of certain results in number theory, has been used to answer combinatorial questions involving partitions of space, and has enabled the authors to obtain the formula for the volume of a regular tetrahedron in around three steps, using nothing more complicated than basic arithmetic and the most elementary plane geometry. All of these ideas, and more, reveal the beauty of mathematics and the interconnectedness of its various branches. Detailed instructions, including clear illustrations, enable the reader to gain hands-on experience constructing these models and to discover for themselves the patterns and relationships they unearth"-- _cProvided by publisher. |
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504 | _aIncludes bibliographical references and index. | ||
505 | 8 | _aMachine generated contents note: Preface; 1. Flexagons - a beginning thread; 2. Another thread - 1-period paper folding; 3. More paper folding threads - 2-period paper-folding; 4. A number-theory thread - folding numbers, a number trick, and some titbits; 5. The polyhedron thread - building some polyhedra and defining a regular polyhedron; 6. Constructing dipyramids and rotating rings from straight strips of triangles; 7. Continuing the paper-folding and number theory threads; 8. A geometry and algebra thread - constructing, and using, Jennifer's puzzle; 9. A polyhedral geometry thread - constructing braided platonic solids and other woven polyhedra; 10. Combinatorial and symmetry threads; 11. Some golden threads - constructing more dodecahedra; 12. More combinatorial threads - collapsoids; 13. Group theory - the faces of the tri-hexaflexagon; 14. Combinatorial and group theory threads - extended face planes of the platonic solids; 15. A historical thread - involving the Euler characteristic, Descartes' total angular defect, and PoÌlya's dream; 16. Tying some loose ends together - symmetry, group theory, homologues, and the PoÌlya enumeration theorem; 17. Returning to the number theory thread - generalized quasi-order and coach theorems; References; Index. | |
650 | 0 |
_aMathematics. _92885 |
|
700 | 1 | _aPedersen, Jean. | |
700 | 1 | _aDonmoyer, Sylvie. | |
856 | 4 | 2 |
_3Cover image _uhttp://assets.cambridge.org/97805217/64100/cover/9780521764100.jpg |
948 | _au330318 | ||
949 |
_aQA36 .H53 2010 _wLC _c1 _hEY8Z _i33039001177251 |
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596 | _a1 | ||
903 | _a20196 | ||
999 |
_c20196 _d20196 |