Clique tree inequalities and the symmetric travelling salesman problem
Mathematics of Operations Research
Matrices with the Edmonds-Johnson property
Combinatorica
A new class of cutting planes for the symmetric travelling salesman problem
Mathematical Programming: Series A and B
Small travelling salesman polytopes
Mathematics of Operations Research
A new approach to the minimum cut problem
Journal of the ACM (JACM)
Computing All Small Cuts in an Undirected Network
SIAM Journal on Discrete Mathematics
Mathematics of Operations Research
Separating Maximally Violated Comb Inequalities in Planar Graphs
Mathematics of Operations Research
Separating a Superclass of Comb Inequalities in Planar Graphs
Mathematics of Operations Research
The Sharpest Cut (MPS-Siam Series on Optimization)
The Sharpest Cut (MPS-Siam Series on Optimization)
The Symmetric Traveling Salesman Polytope: New Facets from the Graphical Relaxation
Mathematics of Operations Research
On the domino-parity inequalities for the STSP
Mathematical Programming: Series A and B
The Traveling Salesman Problem: A Computational Study (Princeton Series in Applied Mathematics)
The Traveling Salesman Problem: A Computational Study (Princeton Series in Applied Mathematics)
Computing with Domino-Parity Inequalities for the Traveling Salesman Problem (TSP)
INFORMS Journal on Computing
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We extend the work of Letchford [Letchford, A. N. 2000. Separating a superclass of comb inequalities in planar graphs. Math. Oper. Res.25 443--454] by introducing a new class of valid inequalities for the traveling salesman problem, called the generalized domino-parity (GDP) constraints. Just as Letchford's domino-parity constraints generalize comb inequalities, GDP constraints generalize the most well-known multiple-handle constraints, including clique-tree, bipartition, path, and star inequalities. Furthermore, we show that a subset of GDP constraints containing all of the clique-tree inequalities can be separated in polynomial time, provided that the support graph G* is planar, and provided that we bound the number of handles by a fixed constant h.