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E-raamat: Applications of Combinatorial Matrix Theory to Laplacian Matrices of Graphs

(Sacred Heart University, Fairfield, Connecticut, USA)
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"Preface On the surface, matrix theory and graph theory are seemingly very different branches of mathematics. However, these two branches of mathematics interact since it is often convenient to represent a graph as a matrix. Adjacency, Laplacian, and incidence matrices are commonly used to represent graphs. In 1973, Fiedler published his first paper on Laplacian matrices of graphs and showed how many properties of the Laplacian matrix, especially the eigenvalues, can give us useful information about the structure of the graph. Since then, many papers have been published on Laplacian matrices. This book is a compilation of many of the exciting results concerning Laplacian matrices that have been developed since the mid 1970's. Papers written by well-knownmathematicians such as (alphabetically) Fallat, Fiedler, Grone, Kirkland, Merris, Mohar, Neumann, Shader, Sunder, and several others are consolidated here. Each theorem is referenced to its appropriate paper so that the reader can easily do more in-depthresearch on any topic of interest. However, the style of presentation in this book is not meant to be that of a journal but rather a reference textbook. Therefore, more examples and more detailed calculations are presented in this book than would be in ajournal article. Additionally, most sections are followed by exercises to aid the reader in gaining a deeper understanding of the material. Some exercises are routine calculations that involve applying the theorems presented in the section. Other exercises require a more in-depth analysis of the theorems and require the reader to prove theorems that go beyond what was presented in the section. Many of these exercises are taken from relevant papers and they are referenced accordingly"--



On the surface, matrix theory and graph theory seem like very different branches of mathematics. However, adjacency, Laplacian, and incidence matrices are commonly used to represent graphs, and many properties of matrices can give us useful information about the structure of graphs.

Applications of Combinatorial Matrix Theory to Laplacian Matrices of Graphs is a compilation of many of the exciting results concerning Laplacian matrices developed since the mid 1970s by well-known mathematicians such as Fallat, Fiedler, Grone, Kirkland, Merris, Mohar, Neumann, Shader, Sunder, and more. The text is complemented by many examples and detailed calculations, and sections followed by exercises to aid the reader in gaining a deeper understanding of the material. Although some exercises are routine, others require a more in-depth analysis of the theorems and ask the reader to prove those that go beyond what was presented in the section.

Matrix-graph theory is a fascinating subject that ties together two seemingly unrelated branches of mathematics. Because it makes use of both the combinatorial properties and the numerical properties of a matrix, this area of mathematics is fertile ground for research at the undergraduate, graduate, and professional levels. This book can serve as exploratory literature for the undergraduate student who is just learning how to do mathematical research, a useful "start-up" book for the graduate student beginning research in matrix-graph theory, and a convenient reference for the more experienced researcher.

Arvustused

this book works well as a reference textbook for undergraduates. Indeed, it is a distillation of a number of key results involving, specifically, the Laplacian matrix associated with a graph (which is sometimes called the nodal admittance matrix by electrical engineers). Molitiernos book represents a well-written source of background on this growing field. The sources are some of the seminal ones in the field, and the book is accessible to undergraduates. John T. Saccoman, MAA Reviews, October 2012

The book owes its textbook appeal to detailed proofs, a large number of fully elaborated examples and observations, and a handful of exercises, making beginning graduate students as well as advanced undergraduates its primary audience. Still, it can serve as useful reference book for experienced researchers as well. Zentralblatt MATH

Preface
Acknowledgments
Notation
1 Matrix Theory Preliminaries
1(38)
1.1 Vector Norms, Matrix Norms, and the Spectral Radius of a Matrix
1(7)
1.2 Location of Eigenvalues
8(7)
1.3 Perron-Frobenius Theory
15(9)
1.4 M-Matrices
24(4)
1.5 Doubly Stochastic Matrices
28(6)
1.6 Generalized Inverses
34(5)
2 Graph Theory Preliminaries
39(52)
2.1 Introduction to Graphs
39(7)
2.2 Operations of Graphs and Special Classes of Graphs
46(9)
2.3 Trees
55(6)
2.4 Connectivity of Graphs
61(5)
2.5 Degree Sequences and Maximal Graphs
66(15)
2.6 Planar Graphs and Graphs of Higher Genus
81(10)
3 Introduction to Laplacian Matrices
91(28)
3.1 Matrix Representations of Graphs
91(6)
3.2 The Matrix Tree Theorem
97(7)
3.3 The Continuous Version of the Laplacian
104(4)
3.4 Graph Representations and Energy
108(6)
3.5 Laplacian Matrices and Networks
114(5)
4 The Spectra of Laplacian Matrices
119(54)
4.1 The Spectra of Laplacian Matrices under Certain Graph Operations
119(7)
4.2 Upper Bounds on the Set of Laplacian Eigenvalues
126(10)
4.3 The Distribution of Eigenvalues Less than One and Greater than One
136(9)
4.4 The Grone-Merris Conjecture
145(6)
4.5 Maximal (Threshold) Graphs and Integer Spectra
151(12)
4.6 Graphs with Distinct Integer Spectra
163(10)
5 The Algebraic Connectivity
173(38)
5.1 Introduction to the Algebraic Connectivity of Graphs
174(6)
5.2 The Algebraic Connectivity as a Function of Edge Weight
180(7)
5.3 The Algebraic Connectivity with Regard to Distances and Diameters
187(5)
5.4 The Algebraic Connectivity in Terms of Edge Density and the Isoperimetric Number
192(5)
5.5 The Algebraic Connectivity of Planar Graphs
197(8)
5.6 The Algebraic Connectivity as a Function Genus k Where k ≥ 1
205(6)
6 The Fiedler Vector and Bottleneck Matrices for Trees
211(72)
6.1 The Characteristic Valuation of Vertices
211(8)
6.2 Bottleneck Matrices for Trees
219(16)
6.3 Excursion: Nonisomorphic Branches in Type I Trees
235(4)
6.4 Perturbation Results Applied to Extremizing the Algebraic Connectivity of Trees
239(17)
6.5 Application: Joining Two Trees by an Edge of Infinite Weight
256(7)
6.6 The Characteristic Elements of a Tree
263(10)
6.7 The Spectral Radius of Submatrices of Laplacian Matrices for Trees
273(10)
7 Bottleneck Matrices for Graphs
283(78)
7.1 Constructing Bottleneck Matrices for Graphs
283(7)
7.2 Perron Components of Graphs
290(18)
7.3 Minimizing the Algebraic Connectivity of Graphs with Fixed Girth
308(14)
7.4 Maximizing the Algebraic Connectivity of Unicyclic Graphs with Fixed Girth
322(6)
7.5 Application: The Algebraic Connectivity and the Number of Cut Vertices
328(18)
7.6 The Spectral Radius of Submatrices of Laplacian Matrices for Graphs
346(15)
8 The Group Inverse of the Laplacian Matrix
361(34)
8.1 Constructing the Group Inverse for a Laplacian Matrix of a Weighted Tree
361(9)
8.2 The Zenger Function as a Lower Bound on the Algebraic Connectivity
370(8)
8.3 The Case of the Zenger Equalling the Algebraic Connectivity in Trees
378(10)
8.4 Application: The Second Derivative of the Algebraic Connectivity as a Function of Edge Weight
388(7)
Bibliography 395(6)
Index 401
Jason J. Molitierno