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9780792377719

Handbook of Semidefinite Programming

by ; ;
  • ISBN13:

    9780792377719

  • ISBN10:

    0792377710

  • Format: Hardcover
  • Copyright: 2000-03-31
  • Publisher: Kluwer Academic Pub
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Summary

Semidefinite programming (SDP) is one of the most exciting and active research areas in optimization. It has and continues to attract researchers with very diverse backgrounds, including experts in convex programming, linear algebra, numerical optimization, combinatorial optimization, control theory, and statistics. This tremendous research activity has been prompted by the discovery of important applications in combinatorial optimization and control theory, the development of efficient interior-point algorithms for solving SDP problems, and the depth and elegance of the underlying optimization theory. The Handbook of Semidefinite Programming offers an advanced and broad overview of the current state of the field. It contains nineteen chapters written by the leading experts on the subject. The chapters are organized in three parts: Theory, Algorithms, and Applications and Extensions.

Table of Contents

Contents
Contributing Authors
List of Figures
List of Tables
Preface
Introduction
1(12)
Henry Wolkowicz
Romesh Saigal
Lieven Vandenberghe
Semidefinite programming
1(1)
Overview of the handbook
2(3)
Notation
5(8)
General comments
5(2)
Overview
7(6)
Part I THEORY
Convex Analysis on Symmetric Matrices
13(16)
Florian Jarre
Introduction
13(1)
Symmetric matrices
14(2)
Operations on symmetric matrices
15(1)
Analysis with symmetric matrices
16(13)
Continuity of eigenvalues
16(1)
Smoothness of eigenvalues
17(2)
The Courant-Fischer-Theorem and its consequences
19(1)
Positive definite matrices
20(2)
Monotonicity of the Lowner partial order
22(2)
Majorization
24(2)
Convex matrix functions
26(1)
Convex real-valued functions of matrices
26(3)
The Geometry of Semidefinite Programming
29(38)
Gabor Pataki
Introduction
29(2)
Preliminaries
31(6)
The geometry of cone-lp's: main results
37(17)
Facial structure, nondegeneracy and strict complementarity
37(9)
Tangent spaces
46(1)
The boundary structure inequalities
47(4)
The geometry of the feasible sets expressed with different variables
51(1)
A detailed example
52(2)
Semidefinite Combinatorics
54(6)
The Multiplicity of Optimal Eigenvalues
55(3)
The geometry of a max-cut relaxation
58(1)
The embeddability of graphs
59(1)
Two algorithmic aspects
60(2)
Finding an extreme point solution
60(1)
Sensitivity Analysis
61(1)
Literature
62(1)
Appendices
63(4)
A: The faces of the semidefinite cone
63(1)
B: Proof of Lemma 3.3.1
64(3)
Duality and Optimality Conditions
67(44)
Alexander Shapiro
Katya Scheinberg
Duality, optimality conditions, and perturbation analysis
67(25)
Alexander Shapiro
Introduction
68(1)
Duality
69(9)
Optimality conditions
78(8)
Stability and sensitivity analysis
86(5)
Notes
91(1)
Parametric Linear Semidefinite Programming
92(19)
Katya Scheinberg
Optimality conditions
92(4)
Parametric Objective Function
96(4)
Optimal Partition
100(5)
Sensitivity Analysis
105(4)
Conclusions
109(2)
Self-Dual Embeddings
111(28)
Etienne de Klerk
Tamas Terlaky
Kees Roos
Introduction
111(2)
Preliminaries
113(3)
The embedding strategy
116(5)
Solving the embedding problem
121(3)
Existence of the central path - a constructive proof
124(1)
Obtaining maximally complementary solutions
125(3)
Separating small and large variables
128(3)
Remaining duality and feasibility issues
131(5)
Embedding extended Lagrange-Slater duals
136(1)
Summary
137(2)
Robustness
139(24)
Aharon Ben-Tal
Laurent El Ghaoui
Arkadi Nemirovski
Introduction
139(3)
SDPs with uncertain data
139(2)
Problem definition
141(1)
Affine perturbations
142(4)
Quality of approximation
144(2)
Rational Dependence
146(5)
Linear-fractional representations
146(1)
Robustness analysis via Lagrange relaxations
147(3)
Comparison with earlier results
150(1)
Special cases
151(4)
Linear programming with affine uncertainty
151(2)
Robust quadratic programming with affine uncertainty
153(1)
Robust conic quadratic programming
153(2)
Operator-norm bounds
155(1)
Examples
155(7)
A link with combinatorial optimization
155(1)
A link with Lyapunov theory in control
156(1)
Interval computations
157(2)
Worst-case simulation for uncertain dynamical systems
159(1)
Robust structural design
159(3)
Concluding Remarks
162(1)
Error Analysis
163(32)
Zhiquan Luo
Jos Sturm
Introduction
163(2)
Preliminaries
165(6)
Forward and backward error
166(1)
Faces of the cone
167(1)
Second order cone
167(2)
Positive semidefinite cone
169(1)
General case
170(1)
The regularized backward error
171(5)
Regularization steps
176(5)
Infeasible systems
181(2)
Systems of quadratic inequalities
183(12)
Convex quadratic systems
183(5)
Generalized convex quadratic systems
188(7)
Part II ALGORITHMS
Symmetric Cones, Potential Reduction Methods
195(40)
Farid Alizadeh
Stefan Schmieta
Introduction
195(3)
Semidefinite programming: Cone-LP over symmetric cones
198(1)
Euclidean Jordan algebras
199(15)
Definitions and basic properties
199(4)
Eigenvalues, degree, rank and norms
203(5)
Simple Jordan algebras and decomposition theorem
208(3)
symmetric and Hermitian matrices
211(1)
The algebra of quadratic forms
212(1)
The Exceptional Albert algebra
213(1)
Complementarity in semidefinite programming
213(1)
Potential reduction algorithms for semidefinite programming
214(21)
The logarithmic barrier function for symmetric cones
214(1)
Potential functions
215(1)
Potential reduction and polynomial time solvability
216(2)
Feasibility and boundedness
218(1)
Properties of Potential functions
219(1)
Properties of Linear scalings
220(2)
A potential reduction algorithm using linear scaling
222(5)
Properties of projective scaling
227(1)
Potential reduction with projective scaling
228(3)
The Recipe
231(4)
Potential Reduction and Primal-Dual Methods
235(32)
Levent Tuncel
Introduction
235(4)
Fundamental ingredients
239(4)
What are the uses of a potential function?
243(5)
Kojima-Shindoh-Hara Approach
248(2)
Nesterov-Todd Approach
250(3)
Self-scaled Barriers and Long Steps
252(1)
Scaling, notions of primal-dual symmetry and scale invariance
253(6)
An Abstraction of the v-space Approach
258(1)
A potential reduction framework
259(8)
Path-Following Methods
267(40)
Renato Monteiro
Michael Todd
Introduction
267(3)
The central path
270(8)
Search directions
278(4)
Primal-dual path-following methods
282(25)
The MZ primal-dual framework and a scaling procedure
283(3)
Short-step and predictor-corrector algorithms
286(8)
Long-step method
294(6)
Convergence results for other families of directions
300(1)
Monteiro and Tsuchiya family
301(3)
KSH family
304(3)
Bundle Methods and Eigenvalue Functions
307(36)
Christoph Helmberg
Francois Oustry
Introduction
307(2)
The maximum eigenvalue function
309(1)
General scheme
310(3)
The proximal bundle method
313(2)
The spectral bundle method
315(3)
The mixed polyhedral-semidefinite method
318(2)
A second-order proximal bundle method
320(5)
Second-order development of f
321(1)
Quadratic step
321(2)
The dual metric
323(1)
The second-order proximal bundle method
324(1)
Implementations
325(4)
Computing the eigenvalues
325(1)
Structure of the mapping
326(1)
Solving the quadratic semidefinite program
327(1)
The rich oracle
328(1)
Numerical results
329(14)
The spectral bundle method
329(6)
The mixed polyhedral-semidefinite bundle method
335(1)
The second-order proximal bundle method
336(7)
Part III APPLICATIONS AND EXTENSIONS
Combinatorial Optimization
343(18)
Michel Goemans
Franz Rendl
From combinatorial optimization to SDP
343(3)
Quadratic problems in binary variables as SDP
343(2)
Modeling linear inequalities
345(1)
Specific combinatorial optimization problems
346(8)
Equipartition
347(2)
Stable sets and the &thetas; function
349(1)
Perfect graphs
350(1)
Traveling salesman problem
350(3)
Quadratic assignment problem
353(1)
Computational aspects
354(1)
SDPs reducing to eigenvalue bounds
355(3)
Approximation results through SDP
358(3)
Nonconvex Quadratic Optimization
361(60)
Yuri Nesterov
Henry Wolkowicz
Yinyu Ye
Introduction
361(2)
Lagrange Multipliers for Q2P
363(1)
Global Quadratic Optimization via Conic Relaxation
363(24)
Yuri Nesterov
Convex conic constraints on squared variables
365(4)
Using additional information
369(3)
General constraints on squared variables
372(4)
Why the linear constraints are difficult?
376(1)
Maximization with a smooth constraint
377(5)
Some applications
382(2)
Discussion
384(3)
Quadratic Constraints
387(8)
Yinyu Ye
Positive Semi-Definite Relaxation
389(1)
Approximation Analysis
390(5)
Results for Other Quadratic Problems
395(1)
Relaxations of Q2P
395(26)
Henry Wolkowicz
Relaxations for the Max-cut Problem
396(1)
Several Different Relaxations
396(3)
A Strengthened Bound for MC
399(1)
Alternative Strengthened Relaxation
400(2)
General Q2P
402(1)
The Lagrangian Relaxation of a General Q2P
403(1)
Valid Inequalities
404(1)
Specific Instances of SDP Relaxation
404(7)
Strong Duality
411(1)
Convex Quadratic Programs
412(1)
Nonconvex Quadratic Programs
413(1)
Rayleigh Quotient
413(1)
Trust Region Subproblem
413(2)
Two Trust Region Subproblem
415(1)
General Q2P
415(1)
Orthogonally Constrained Programs with Zero Duality Gaps
416(5)
SDP in Systems and Control Theory
421(22)
Venkataramanan Balakrishnan
Fan Wang
Introduction
421(1)
Control system analysis and design: An introduction
422(5)
Linear fractional representation of uncertain systems
423(2)
Polytopic systems
425(1)
Robust stability analysis and design problems
425(2)
Robustness analysis and design for linear polytopic systems using quadratic Lyapunov functions
427(4)
Robust stability analysis
427(1)
Stabilizing state-feedback controller synthesis
428(1)
Gain-scheduled output feedback controller synthesis
429(2)
Robust stability analysis of LFR systems in the IQC framework
431(5)
Diagonal nonlinearities
434(1)
Parametric uncertainities
435(1)
Structured dynamic uncertainities
436(1)
Stabilizing controller design for LFR systems
436(5)
Quadratic stability analysis of LFR systems
437(1)
State feedback controller design for LFR systems
438(1)
Gain-scheduled output feedback controller design
438(3)
Conclusion
441(2)
Structural Design
443(26)
Aharon Ben Tal
Arkadi Nemirovski
Structural design: general setting
443(4)
Semidefinite reformulation of (Pini)
447(6)
From primal to dual
453(5)
From dual to primal
458(2)
Explicit forms of the standard truss and shape problems
460(5)
Concluding remarks
465(4)
Moment Problems and Semidefinite Optimization
469(42)
Dimitris Bertsimas
Jay Sethuraman
Introduction
469(4)
Semidefinite Relaxations for Stochastic Optimization Problems
473(10)
Model description
473(1)
The performance optimization problem
474(1)
Linear constraints
475(5)
Positive semidefinite constraints
480(1)
On the power of the semidefinite relaxation
481(2)
Optimal Bounds in Probability
483(13)
Optimal bounds for the univariate case using semidifinite optimization
487(7)
Explicit bounds for the (n, 1, Ω), (n, 2, Rn)-bound problems
494(2)
The complexity of the (n, 2, Rn+), (n, k, Rn)-bound problems
496(1)
Moment Problems in Finance
496(11)
Bounds in one dimension
498(4)
Bounds in multiple dimensions
502(5)
Moment Problems in Discrete Optimization
507(2)
Concluding Remarks
509(2)
Design of Experiments in Statistics
511(22)
Valerii Fedorov
Jon Lee
Design of Regression Experiments
511(17)
Valerii Fedorov
Main Optimization Problem
511(1)
Models and Information Matrix
511(3)
Characterization of Optimal Designs
514(5)
Constraints Imposed on Designs
519(1)
Linear Constraints
519(1)
Linearization of Nonlinear Convex Constraints
520(1)
Directly Constrained Design Measurers
521(1)
Marginal Design Measurers
522(1)
Numerical Construction of Optimal Designs
523(1)
Direct Approaches
523(1)
The First Order Algorithms
523(2)
Second Order Algorithms
525(1)
Linear Constraints. Direct First Order Algorithm.
526(1)
Nonlinear Constraints
527(1)
Semidefinite programming in experimental design
528(5)
Jon Lee
Covariance Matrices
528(1)
Reliability of Test Scores
529(1)
Maximum-Entropy Sampling
529(2)
Linear Models
531(1)
E-Optimal Design
531(1)
A-Optimal Design
532(1)
D-Optimal Design
532(1)
Matrix Completion Problems
533(14)
Abdo Alfakih
Henry Wolkowicz
Introduction
533(1)
Weighted Closest Euclidean Distance Matrix
534(8)
Distance Geometry
534(2)
Program Formulations
536(1)
Duality and Optimality
537(1)
Primal-Dual Interior-Point Algorithm
538(4)
Weighted Closest Positive Semidefinite Matrix
542(2)
Primal-Dual Interior-Point Algorithms
543(1)
Other Completion Problems
544(3)
Eigenvalue Problems and Nonconvex Minimization
547(16)
Florian Jarre
Introduction
547(1)
Selected Eigenvalue Problems
548(3)
Generalization of Newtons method
551(3)
An algorithm for unconstrained minimization
552(2)
Discussion
554(1)
A method for constrained problems
554(8)
The constrained problem
554(1)
Outline of the method
555(1)
Solving the barrier subproblem (``centering step'')
556(2)
The predictor step
558(1)
The overall algorithm
559(3)
Conclusion
562(1)
General Nonlinear Programming
563(14)
Serge Kruk
Henry Wolkowicz
Introduction
563(1)
The Simplest Case
564(2)
Multiple Trust-Regions
566(4)
Approximations of Nonlinear Programs
570(2)
Quadratically Constrained Quadratic Programming
572(2)
Conclusion
574(3)
References 577(66)
Appendix 643
A-.1 Conclusion and Further Historical Notes
643
A-1.1 Combinatorial Problems
644
A-1.2 Complementarity Problems
644
A-1.3 Complexity, Distance to Ill-Posedness, and Condition Numbers
644
A-1.4 Cone Programming
645
A-1.5 Eigenvalue Functions
645
A-1.6 Engineering Applications
645
A-1.7 Financial Applications
645
A-1.8 Generalized Convexity
645
A-1.9 Geometry
645
A-1.10 Implementation
646
A-1.11 Matrix Completion Problems
646
A-1.12 Nonlinear and Nonconvex SDPs
646
A-1.13 Nonlinear Programming
647
A-1.14 Quadratic Constrained Quadratic Programs
647
A-1.15 Sensitivity Analysis
647
A-1.16 Statistics
647
A-1.17 Books and Related Material
647
A-1.18 Review Articles
648
A-1.19 Computer Packages and Test Problems
648
A-.2 Index
649

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