AbstractIn this paper, we present an algorithm for finding all common bases in two matroids. Our algorithm lists all common bases by using pivot operations in such a way that each basis appears exactly once. The time complexity of the algorithm is O(n(n2 + t)λ) where n is the size of the ground set of the matroids, λ is the number of common bases, and t is time to make one pivot operation. The space complexity is O(n2) and thus does not depend on λ As applications, we show how our algorithm can be applied to efficient enumerations of all complementary bases in the linear complementarity problem and all perfect matchings in a bipartite graph
AbstractLemos (Discrete Math. 240 (2001) 271–276) proved a conjecture of Mills (Discrete Math. 203 (...
We consider different ways of describing a matroid to a Turing machine by listing the members of var...
Presented on April 30, 2018 at 12:00 p.m. in the Klaus Advanced Computing Building, Room 1116E.Nima ...
In this paper, we present an algorithm for finding all common bases in two matroids. Our algorithm l...
AbstractIn this paper, we present an algorithm for finding all common bases in two matroids. Our alg...
A theorem of Edmonds characterizes when a pair of matroids has a common basis. Enumerating the commo...
AbstractM1=(E,F1) and M2=(E,F2) are two simple matroids on the same set E. We assume that M1 and M2 ...
One of the most intriguing unsolved questions of matroid optimization is the characterization of the...
AbstractA matroid may be characterized by the collection of its bases or by the collection of its ci...
We investigate the parameterized complexity of finding diverse sets of solutions to three fundamenta...
AbstractLet B(M) denote the collection of bases of a matroid M. Truemper showed that if M1 and M2 ar...
AbstractIn [On Mills's conjecture on matroids with many common bases, Discrete Math. 240 (2001) 271–...
We present new algebraic approaches for several wellknown combinatorial problems, including non-bipa...
We present new algebraic approaches for several well-known combinatorial problems, including non-bip...
Abstract. We present a new pivot-based algorithm which can be used with minor modification for the e...
AbstractLemos (Discrete Math. 240 (2001) 271–276) proved a conjecture of Mills (Discrete Math. 203 (...
We consider different ways of describing a matroid to a Turing machine by listing the members of var...
Presented on April 30, 2018 at 12:00 p.m. in the Klaus Advanced Computing Building, Room 1116E.Nima ...
In this paper, we present an algorithm for finding all common bases in two matroids. Our algorithm l...
AbstractIn this paper, we present an algorithm for finding all common bases in two matroids. Our alg...
A theorem of Edmonds characterizes when a pair of matroids has a common basis. Enumerating the commo...
AbstractM1=(E,F1) and M2=(E,F2) are two simple matroids on the same set E. We assume that M1 and M2 ...
One of the most intriguing unsolved questions of matroid optimization is the characterization of the...
AbstractA matroid may be characterized by the collection of its bases or by the collection of its ci...
We investigate the parameterized complexity of finding diverse sets of solutions to three fundamenta...
AbstractLet B(M) denote the collection of bases of a matroid M. Truemper showed that if M1 and M2 ar...
AbstractIn [On Mills's conjecture on matroids with many common bases, Discrete Math. 240 (2001) 271–...
We present new algebraic approaches for several wellknown combinatorial problems, including non-bipa...
We present new algebraic approaches for several well-known combinatorial problems, including non-bip...
Abstract. We present a new pivot-based algorithm which can be used with minor modification for the e...
AbstractLemos (Discrete Math. 240 (2001) 271–276) proved a conjecture of Mills (Discrete Math. 203 (...
We consider different ways of describing a matroid to a Turing machine by listing the members of var...
Presented on April 30, 2018 at 12:00 p.m. in the Klaus Advanced Computing Building, Room 1116E.Nima ...