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9783764372385

Relaxation And Decomposition Methods for Mixed Integer Nonlinear Programming

by
  • ISBN13:

    9783764372385

  • ISBN10:

    3764372389

  • Format: Hardcover
  • Copyright: 2005-12-30
  • Publisher: Birkhauser

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Summary

This book presents a comprehensive description of theory, algorithms and software for solving nonconvex mixed integer nonlinear programs (MINLP). The main focus is on deterministic global optimization methods, which play a very important role in integer linear programming, and are used only recently in MINLP.The presented material consists of two parts. The first part describes basic optimization tools, such as block-separable reformulations, convex and Lagrangian relaxations, decomposition methods and global optimality criteria. Some of these results are presented here for the first time.The second part is devoted to algorithms. Starting with a short overview on existing methods, deformation, rounding, partitioning and Lagrangian heuristics, and a branch-cut-and-price algorithm are presented. The algorithms are implemented as part of an object-oriented library, called LaGO. Numerical results on several mixed integer nonlinear programs are reported to show abilities and limits of the proposed solution methods.The book contains many illustrations and an up-to-date bibliography. Because of the emphasis on practical methods, as well as the introduction into the basic theory, it is accessible to a wide audience and can be used both as a research as well as a graduate text.

Table of Contents

Preface xi
Acknowledgments xiv
Notation xv
I. Basic Concepts
1(118)
Introduction
3(6)
The structured nonconvex mixed integer nonlinear program
3(1)
Applications
4(1)
Outline of the solution approach
5(1)
An illustrative example
6(3)
Problem Formulations
9(12)
The condensed formulation
9(1)
Smooth and disjunctive reformulations
10(2)
Integrality constraints
10(1)
Disjunctive constraints
10(1)
Big-M constraints
11(1)
The smooth binary formulation
11(1)
Block-separability
12(1)
Block-separable splitting-schemes
12(3)
The sparsity graph
12(1)
MINLP splitting-schemes
12(2)
MIQQP splitting-schemes
14(1)
Separable reformulation of factorable programs
15(2)
Extended block-separable reformulation
17(1)
Other formulations
18(3)
Convex and Lagrangian Relaxations
21(12)
Convexification of sets and functions
21(2)
Convex underestimating-relaxations
23(1)
Lagrangian relaxation
24(1)
Dual-equivalent convex relaxations
25(3)
Reducing the duality gap
28(3)
Augmented Lagrangians
31(2)
Decomposition Methods
33(22)
Lagrangian decomposition --- dual methods
33(6)
Subgradient methods
35(1)
Dual cutting-plane methods
36(2)
Proximal bundle methods
38(1)
Primal cutting-plane methods
39(3)
Column generation
42(10)
A simple column generation method
42(3)
Initializing the RMP
45(4)
An improved column generation method
49(3)
Benders decomposition
52(3)
Semidefinite Relaxations
55(18)
Semidefinite and Lagrangian relaxations
55(3)
Block-separable reformulation
58(1)
Eigenvalue representation of the dual function
59(1)
Duality results and convex relaxation
60(5)
The trust region problem
60(1)
Dual-equivalence
61(2)
Modifications
63(1)
Influence of decomposition on the dual function
64(1)
Solving the Lagrangian dual problem (D)
65(1)
Numerical results
66(3)
Block structure
66(1)
Network structure
67(2)
Computing relaxations of mixed linear quadratic programs
69(4)
Convex Underestimators
73(10)
Interval arithmetic
73(2)
Bezier polynomials
75(2)
α-underestimators
77(1)
CGU-underestimators
78(1)
Convexified polynomial underestimators
78(5)
Rigorous underestimators
80(1)
Restricted sampling
80(3)
Cuts, Lower Bounds and Box Reduction
83(16)
Valid cuts
83(5)
Linearization cuts
84(1)
Knapsack cuts
84(1)
Interval-gradient cuts
85(1)
Lagrangian cuts
86(1)
Level cuts
87(1)
Other valid cuts
87(1)
Initialization of polyhedral relaxations
88(1)
Lower bounds
88(3)
NLP-bounds
89(1)
MINLP-bounds
90(1)
Dual bounds
90(1)
LP-bounds
90(1)
Box reduction
91(1)
Numerical results
92(7)
Local and Global Optimality Criteria
99(14)
Local optimality conditions
99(2)
Local strong duality of nonconvex QQPs
101(4)
Global optimality cuts
105(1)
Some global optimality criteria for QQPs
106(4)
Global optimality via interval-gradient cuts
110(3)
Adaptive Discretization of Infinite Dimensional MINLPs
113(6)
Aggregated discretizations
113(3)
Multistage stochastic programs
113(2)
Optimal control problems
115(1)
Abstract formulation
116(1)
Optimal mesh and scenario refinement
116(1)
Updating and solving relaxations
117(2)
II. Algorithms
119(70)
Overview of Global Optimization Methods
121(8)
Sampling heuristics
123(2)
Branch-and-bound methods
125(1)
Successive approximation methods
126(1)
Relaxation-based heuristics
127(2)
Deformation Heuristics
129(14)
The algorithm of More and Wu
129(1)
A MaxCut deformation heuristic
130(8)
Problem formulation
130(2)
A MaxCut algorithm
132(2)
Sampling
134(1)
Numerical results
135(3)
Generalization to MINLP
138(5)
Parametric problem formulation
138(1)
A MINLP deformation algorithm
139(1)
Numerical results
140(3)
Rounding, Partitioning and Lagrangian Heuristics
143(12)
A rounding heuristic
143(2)
A partitioning heuristic that uses central cuts
145(2)
Numerical results
147(6)
A Lagrangian heuristic
153(2)
Branch-Cut-and-Price Algorithms
155(26)
Branch-and-bound algorithms
155(1)
Preliminaries
155(1)
A generic branch-and-bound algorithm
156(1)
Convergence and finiteness
156(3)
Convergence
156(1)
Finiteness
157(2)
Consistent bounding operations
159(3)
NLP-bounds
159(1)
LP-bounds
160(1)
Dual bounds
161(1)
Branching
162(1)
Rectangular subdivision rules
162(1)
Updating lower bounds
163(1)
Numerical results
163(13)
Network MaxCut experiments
164(5)
MINLP experiments
169(6)
Cost-efficient design of energy conversion systems
175(1)
Nonconvex polyhedral inner and outer approximations
176(5)
LaGO --- An Object-Oriented Library for Solving MINLPs
181(8)
Design philosophy
181(1)
Related work
182(1)
Structure
183(1)
The modules
183(6)
Reformulation
183(2)
Relaxation
185(1)
Solvers
186(3)
Appendix
189(6)
A. Future Perspectives
189(2)
B. MINLP Problems
191(4)
B.1 Instances from the MINLPLib
191(2)
B.2 Random MIQQP problems
193(2)
Bibliography 195(16)
Index 211

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