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Industry Reviews
From the reviews:
"The present volume actually surveys packing and covering problems in Euclidean space and close cousins. ... Bezdek ... surveys the state of the art, best results, and outstanding conjectures for a host of problems. ... Summing Up: Recommended. Academic audiences, upper-division undergraduates through researchers/faculty." (D. V. Feldman, Choice, Vol. 48 (5), January, 2011)
"The book is intended for graduate students interested in discrete geometry. The book provides a road map to the state-of-the-art of several topics in discrete geometry. It can also serve as a textbook for a graduate level course or a seminar. Additionally, the book is extremely current, with many references to as late as 2009-2010 publications." (Alex Bogomolny, The Mathematical Association of America, August, 2010)
"This very interesting monograph contains a selection of topics in discrete geometry, mainly those on which the author and his collaborators have worked. ... The many conjectures and problems to be found throughout the text will serve as an inspiration to many discrete geometers." (Konrad Swanepoel, Zentralblatt MATH, Vol. 1207, 2011)
Preface | p. VII |
Classical Topics Revisited | |
Sphere Packings | p. 3 |
Kissing Numbers of Spheres | p. 3 |
One-Sided Kissing Numbers of Spheres | p. 5 |
On the Contact Numbers of Finite Sphere Packings | p. 6 |
Lower Bounds for the (Surface) Volume of Voronoi Cells in Sphere Packings | p. 7 |
On the Density of Sphere Packings in Spherical Containers | p. 12 |
Upper Bounds on Sphere Packings in High Dimensions | p. 13 |
Uniform Stability of Sphere Packings | p. 15 |
Finite Packings by Translates of Convex Bodies | p. 17 |
Hadwiger Numbers of Convex Bodies | p. 17 |
One-Sided Hadwiger Numbers of Convex Bodies | p. 18 |
Touching Numbers of Convex Bodies | p. 19 |
On the Number of Touching Pairs in Finite Packings | p. 20 |
Coverings by Homothetic Bodies - Illumination and Related Topics | p. 23 |
The Illumination Conjecture | p. 23 |
Equivalent Formulations | p. 24 |
The Illumination Conjecture in Dimension Three | p. 24 |
The Illumination Conjecture in High Dimensions | p. 25 |
On the X-Ray Number of Convex Bodies | p. 28 |
The Successive Illumination Numbers of Convex Bodies | p. 29 |
The Illumination and Covering Parameters of Convex Bodies | p. 31 |
On the Vertex Index of Convex Bodies | p. 32 |
Coverings by Planks and Cylinders | p. 35 |
Plank Theorems | p. 35 |
Covering Convex Bodies by Cylinders | p. 37 |
Covering Lattice Points by Hyperplanes | p. 39 |
On Some Strengthenings of the Plank Theorems of Ball and Bang | p. 41 |
On Partial Coverings by Planks: Bang's Theorem Revisited | p. 43 |
On the Volume of Finite Arrangements of Spheres | p. 47 |
The Conjecture of Kneser and Poulsen | p. 47 |
The Kneser-Poulsen Conjecture for Continuous Contractions | p. 48 |
The Kneser-Poulsen Conjecture in the Plane | p. 49 |
Non-Euclidean Kneser-Poulsen-Type Results | p. 51 |
Alexander's Conjecture | p. 53 |
Densest Finite Sphere Packings | p. 54 |
Ball-Polyhedra as Intersections of Congruent Balls | p. 57 |
Disk-Polygons and Ball-Polyhedra | p. 57 |
Shortest Billiard Trajectories in Disk-Polygons | p. 57 |
Blaschke-Lebesgue-Type Theorems for Disk-Polygons | p. 59 |
On the Steinitz Problem for Ball-Polyhedra | p. 61 |
On Global Rigidity of Ball-Polyhedra | p. 62 |
Separation and Support for Spindle Convex Sets | p. 63 |
Carathéodory- and Steinitz-Type Results | p. 65 |
Illumination of Ball-Polyhedra | p. 65 |
The Euler-Poincaré Formula for Ball-Polyhedra | p. 67 |
Selected Proofs | |
Selected Proofs on Sphere Packings | p. 71 |
Proof of Theorem 1.3.5 | p. 71 |
A proof by estimating the surface area of unions of balls | p. 71 |
On the densest packing of congruent spherical caps of special radius | p. 73 |
Proof of Theorem 1.4.7 | p. 73 |
The Voronoi star of a Voronoi cell in unit ball packings | p. 73 |
Estimating the volume of a Voronoi star from below | p. 74 |
Proof of Theorem 1.4.8 | p. 75 |
Basic metric properties of Voronoi cells in unit ball packings | p. 75 |
Wedges of types I, II, and III, and truncated wedges of types I, and II | p. 76 |
The lemma of comparison and a characterization of regular polytopes | p. 79 |
Volume formulas for (truncated) wedges | p. 80 |
The integral representation of surface density in (truncated) wedges | p. 81 |
Truncation of wedges increases the surface density | p. 84 |
Maximum surface density in truncated wedges of type I | p. 85 |
An upper bound for the surface density in truncated wedges of type II | p. 86 |
The overall estimate of surface density in Voronoi cells | p. 88 |
Proof of Theorem 1.7.3 | p. 89 |
The signed volume of convex polytopes | p. 89 |
The volume force of convex polytopes | p. 90 |
Critical volume condition | p. 91 |
Strictly locally volume expanding convex polytopes | p. 92 |
From critical volume condition and infinitesimal rigidity to uniform stability of sphere packings | p. 94 |
Selected Proofs on Finite Packings of Translates of Convex Bodies | p. 95 |
Proof of Theorem 2.2.1 | p. 95 |
Monotonicity of a special integral function | p. 95 |
A proof by slicing via the Brunn-Minkowski inequality | p. 96 |
Proof of Theorem 2.4.3 | p. 98 |
Selected Proofs on Illumination and Related Topics | p. 101 |
Proof of Corollary 3.4.2 Using Rogers' Classical Theorem on Economical Coverings | p. 101 |
Proof of Theorem 3.5.2 via the Gauss Map | p. 102 |
Proof of Theorem 3.5.3 Using Antipodal Spherical Codes of Small Covering Radii | p. 103 |
Proofs of Theorem 3.8.1 and Theorem 3.8.3 | p. 106 |
From the Banach-Mazur distance to the vertex index | p. 106 |
Calculating the vertex index of Euclidean balls in dimensions 2 and 3 | p. 107 |
A lower bound for the vertex index using the Blaschke-Santaló inequality and an inequality of Ball and Pajor | p. 112 |
An upper bound for the vertex index using a theorem of Rudelson | p. 113 |
Selected Proofs on Coverings by Planks and Cylinders | p. 115 |
Proof of Theorem 4.1.7 | p. 115 |
On coverings of convex bodies by two planks | p. 115 |
A proof of the affine plank conjecture of Bang for non-overlapping cuts | p. 116 |
Proof of Theorem 4.2.2 | p. 117 |
Covering ellipsoids by 1-codimensional cylinders | p. 117 |
Covering convex bodies by cylinders of given codimension | p. 118 |
Proof of Theorem 4.5.2 | p. 119 |
Proof of Theorem 4.5.8 | p. 119 |
Selected Proofs on the Kneser-Poulsen Conjecture | p. 121 |
Proof of Theorem 5.3.2 on the Monotonicity of Weighted Surface Volume | p. 121 |
Proof of Theorem 5.3.3 on Weighted Surface and Codimension Two Volumes | p. 124 |
Proof of Theorem 5.3.4 - the Leapfrog Lemma | p. 126 |
Proof of Theorem 5.4.1 | p. 127 |
The spherical leapfrog lemma | p. 127 |
Smooth contractions via Schläfli's differential formula | p. 127 |
Relating higher-dimensional spherical volumes to lower-dimensional ones | p. 128 |
Putting pieces together | p. 129 |
Proof of Theorem 5.4.6 | p. 130 |
Monotonicity of the volume of hyperbolic simplices | p. 130 |
From Andreev's theorem to smooth one-parameter family of hyperbolic polyhedra | p. 133 |
Selected Proofs on Ball-Polyhedra | p. 135 |
Proof of Theorem 6.2.1 | p. 135 |
Finite sets that cannot be translated into the interior of a convex body | p. 135 |
From generalized billiard trajectories to shortest ones | p. 137 |
Proofs of Theorems 6.6.1, 6.6.3, and 6.6.4 | p. 138 |
Strict separation by spheres of radii at most one | p. 138 |
Characterizing spindle convex sets | p. 139 |
Separating spindle convex sets | p. 139 |
Proof of Theorem 6.7.1 | p. 140 |
On the boundary of spindle convex hulls in terms of supporting spheres | p. 140 |
From the spherical Carathéodory theorem to an analogue for spindle convex hulls | p. 141 |
Proof of Theorem 6.8.3 | p. 142 |
On the boundary of spindle convex hulls in terms of normal images | p. 142 |
On the Euclidean diameter of spindle convex hulls and normal images | p. 143 |
An upper bound for the illumination number based on a probabilistic approach | p. 144 |
Schramm's lower bound for the proper measure of polars of sets of given diameter in spherical space | p. 145 |
An upper bound for the number of sets of given diameter that are needed to cover spherical space | p. 147 |
The final upper bound for the illumination number | p. 148 |
Proof of Theorem 6.9.1 | p. 148 |
The CW-decomposition of the boundary of a standard ball-polyhedron | p. 148 |
On the number of generating balls of a standard ball-polyhedron | p. 149 |
Basic properties of face lattices of standard ball-polyhedra | p. 150 |
References | p. 153 |
Table of Contents provided by Ingram. All Rights Reserved. |
ISBN: 9781441905994
ISBN-10: 1441905995
Series: CMS Books in Mathematics
Published: 7th July 2010
Format: Hardcover
Language: English
Number of Pages: 180
Audience: College, Tertiary and University
Publisher: Springer Nature B.V.
Country of Publication: US
Dimensions (cm): 23.39 x 15.6 x 1.12
Weight (kg): 0.43
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