When developing an exact algorithm for a combinatorial optimisation problem, it often helps to have a good understanding of certain polyhedra associated with that problem. In the case of quadratic unconstrained Boolean optimisation, the polyhedron in question is called the Boolean quadric polytope. This chapter gives a brief introduction to polyhedral theory, reviews the literature on the Boolean quadric polytope and related polyhedra, and explains the algorithmic implication
Many combinatorial optimization problems can be conceived of as optimizing a linear function over a ...
Given a combinatorial optimization problem and a subset N of nonnegative integer numbers, we obtain ...
AbstractGiven a combinatorial optimization problem and a subset N of nonnegative integer numbers, we...
This chapter discusses polyhedral approaches in combinatorial optimization. Using a cutting-plane al...
Polyhedral combinatorics. - In: Combinatorial optimization : annot. bibliogr. / ed. by M. O´hEigeart...
Combinatorial optimization problems appear in many disciplines ranging from management and logistics...
AbstractIn 1983 Barahona defined the class of cut polytopes; recently Padberg defined the class of B...
Combinatorial optimization searches for an optimum object in a finite collection of objects. Typical...
The polyhedral approach is one of the most powerful techniques available for solving hard combinator...
We consider a nonconvex quadratic programming problem of the form: QP: min cTx + xTQx s.t. x ∈ B ∩ C...
We consider the Bipartite Boolean Quadratic Programming Problem (BQP01), which generalizes the well-...
Combinatorial optimization problems appear in many disciplines ranging from management and logistic...
The polyhedral approach is one of the most powerful techniques available for solving hard combinator...
A separation algorithm is a procedure for generating cutting planes. Up to now, only a few polynomia...
Combinatorial optimization problems arise in several areas ranging from management to mathematics an...
Many combinatorial optimization problems can be conceived of as optimizing a linear function over a ...
Given a combinatorial optimization problem and a subset N of nonnegative integer numbers, we obtain ...
AbstractGiven a combinatorial optimization problem and a subset N of nonnegative integer numbers, we...
This chapter discusses polyhedral approaches in combinatorial optimization. Using a cutting-plane al...
Polyhedral combinatorics. - In: Combinatorial optimization : annot. bibliogr. / ed. by M. O´hEigeart...
Combinatorial optimization problems appear in many disciplines ranging from management and logistics...
AbstractIn 1983 Barahona defined the class of cut polytopes; recently Padberg defined the class of B...
Combinatorial optimization searches for an optimum object in a finite collection of objects. Typical...
The polyhedral approach is one of the most powerful techniques available for solving hard combinator...
We consider a nonconvex quadratic programming problem of the form: QP: min cTx + xTQx s.t. x ∈ B ∩ C...
We consider the Bipartite Boolean Quadratic Programming Problem (BQP01), which generalizes the well-...
Combinatorial optimization problems appear in many disciplines ranging from management and logistic...
The polyhedral approach is one of the most powerful techniques available for solving hard combinator...
A separation algorithm is a procedure for generating cutting planes. Up to now, only a few polynomia...
Combinatorial optimization problems arise in several areas ranging from management to mathematics an...
Many combinatorial optimization problems can be conceived of as optimizing a linear function over a ...
Given a combinatorial optimization problem and a subset N of nonnegative integer numbers, we obtain ...
AbstractGiven a combinatorial optimization problem and a subset N of nonnegative integer numbers, we...