At the core of the seminal Graph Minor Theory of Robertson and Seymour is a powerful theorem which describes the structure of graphs excluding a fixed minor. This result is used to prove Wagner’s conjecture and provide a polynomial time algorithm for the disjoint paths problem when the number of the terminals is fixed (i.e, the Graph Minor Algorithm). However, both results require the full power of the Graph Minor Theory, i.e, the structure theorem. In this paper, we show that this is not true in the latter case. Namely, we provide a new and much simpler proof of the correctness of the Graph Minor Algorithm. Specifically, we prove the “Unique Linkage Theorem ” without using Graph Minors structure theorem. The new argument, in addition to be...
Robertson and Seymour proved that graphs are well-quasi-ordered by the minor relation. In other word...
AbstractAt the core of the Robertson–Seymour theory of graph minors lies a powerful structure theore...
Abstract. The k-DISJOINT PATHS problem, which takes as input a graph G and k pairs of specified vert...
At the core of the seminal Graph Minor Theory of Robertson and Seymour is a powerful theorem which d...
At the core of the seminal Graph Minor Theory of Robert-son and Seymour is a powerful theorem which ...
At the core of the Robertson-Seymour theory of graph minors lies a powerful decomposition theorem wh...
At the core of the Robertson-Seymour theory of graph mi-nors lies a powerful decomposition theorem w...
The Graph Minors project of Robertson and Seymour uncovered a very deep structural theory of graphs....
AbstractAt the core of the Robertson–Seymour theory of graph minors lies a powerful structure theore...
At the core of the Robertson-Seymour theory of graph minors lies a powerful structure theorem which ...
AbstractIn the algorithm for the disjoint paths problem given in Graph Minors XIII, we used without ...
A graph H is a minor of another graph G, denoted by $H\ {\prec\sb{m}}\ G,$ if a graph isomorphic to ...
A graph H is a minor of another graph G, denoted by $H\ {\prec\sb{m}}\ G,$ if a graph isomorphic to ...
AbstractIn the algorithm for the disjoint paths problem given in Graph Minors XIII, we used without ...
AbstractWe prove that for every planar graph H there is a number w such that every graph with no min...
Robertson and Seymour proved that graphs are well-quasi-ordered by the minor relation. In other word...
AbstractAt the core of the Robertson–Seymour theory of graph minors lies a powerful structure theore...
Abstract. The k-DISJOINT PATHS problem, which takes as input a graph G and k pairs of specified vert...
At the core of the seminal Graph Minor Theory of Robertson and Seymour is a powerful theorem which d...
At the core of the seminal Graph Minor Theory of Robert-son and Seymour is a powerful theorem which ...
At the core of the Robertson-Seymour theory of graph minors lies a powerful decomposition theorem wh...
At the core of the Robertson-Seymour theory of graph mi-nors lies a powerful decomposition theorem w...
The Graph Minors project of Robertson and Seymour uncovered a very deep structural theory of graphs....
AbstractAt the core of the Robertson–Seymour theory of graph minors lies a powerful structure theore...
At the core of the Robertson-Seymour theory of graph minors lies a powerful structure theorem which ...
AbstractIn the algorithm for the disjoint paths problem given in Graph Minors XIII, we used without ...
A graph H is a minor of another graph G, denoted by $H\ {\prec\sb{m}}\ G,$ if a graph isomorphic to ...
A graph H is a minor of another graph G, denoted by $H\ {\prec\sb{m}}\ G,$ if a graph isomorphic to ...
AbstractIn the algorithm for the disjoint paths problem given in Graph Minors XIII, we used without ...
AbstractWe prove that for every planar graph H there is a number w such that every graph with no min...
Robertson and Seymour proved that graphs are well-quasi-ordered by the minor relation. In other word...
AbstractAt the core of the Robertson–Seymour theory of graph minors lies a powerful structure theore...
Abstract. The k-DISJOINT PATHS problem, which takes as input a graph G and k pairs of specified vert...