At present, the most successful approach to solving large-scale instances of the Symmetric Traveling Salesman Problem to optimality is branch-and-cut. The success of branch-and-cut is due in large part to the availability of effective separation procedures; that is, routines for identifying violated linear constraints. For two particular classes of constraints, known as comb and domino-parity constraints, it has been shown that separation becomes easier when the underlying graph is planar. We continue this line of research by showing how to exploit planarity in the separation of three other classes of constraints: subtour elimination, 2-matching and simple domino-parity constraints
The DP-constraints are a recently defined class of valid inequalities for the Symmetric Traveling Sa...
In the successful branch-and-cut approach to combinatorial optimization, linear inequalities are use...
We consider the following natural heuristic for the Symmetric Traveling Salesman Problem: solve the ...
AbstractAt present, the most successful approach for solving large-scale instances of the Symmetric ...
AbstractAt present, the most successful approach for solving large-scale instances of the Symmetric ...
At present, the most successful approach to solving large-scale instances of the Symmetric Travellin...
Many classes of valid and facet-inducing inequalities are known for the family of polytopes associat...
The Symmetric Travelling Salesman Problem (STSP) is to find a minimum cost Hainiltonian cycle in the...
One method which has been used very successfully for finding optimal and provably good solutions for...
The Travelling Salesman Problem (TSP) is a well-known NP-hard problem. Although it is unlikely that ...
Essential for the success of branch-and-cut algorithms for solving combinatorial optimization proble...
In this paper, we extend techniques developed in the context of the Travelling Salesperson Problem f...
In this thesis I focus on cutting planes for large Mixed Integer Programming (MIP) problems. More sp...
The split cuts of Cook, Kannan and Schrijver are general-purpose valid inequalities for integer prog...
We present a new tool for generating cutting planes for NP-hard combinatorial optimisation problems....
The DP-constraints are a recently defined class of valid inequalities for the Symmetric Traveling Sa...
In the successful branch-and-cut approach to combinatorial optimization, linear inequalities are use...
We consider the following natural heuristic for the Symmetric Traveling Salesman Problem: solve the ...
AbstractAt present, the most successful approach for solving large-scale instances of the Symmetric ...
AbstractAt present, the most successful approach for solving large-scale instances of the Symmetric ...
At present, the most successful approach to solving large-scale instances of the Symmetric Travellin...
Many classes of valid and facet-inducing inequalities are known for the family of polytopes associat...
The Symmetric Travelling Salesman Problem (STSP) is to find a minimum cost Hainiltonian cycle in the...
One method which has been used very successfully for finding optimal and provably good solutions for...
The Travelling Salesman Problem (TSP) is a well-known NP-hard problem. Although it is unlikely that ...
Essential for the success of branch-and-cut algorithms for solving combinatorial optimization proble...
In this paper, we extend techniques developed in the context of the Travelling Salesperson Problem f...
In this thesis I focus on cutting planes for large Mixed Integer Programming (MIP) problems. More sp...
The split cuts of Cook, Kannan and Schrijver are general-purpose valid inequalities for integer prog...
We present a new tool for generating cutting planes for NP-hard combinatorial optimisation problems....
The DP-constraints are a recently defined class of valid inequalities for the Symmetric Traveling Sa...
In the successful branch-and-cut approach to combinatorial optimization, linear inequalities are use...
We consider the following natural heuristic for the Symmetric Traveling Salesman Problem: solve the ...