AbstractWe consider the problem of matching people to items, where each person ranks a subset of items in an order of preference, possibly involving ties. There are several notions of optimality about how to best match a person to an item; in particular, popularity is a natural and appealing notion of optimality. A matching M∗ is popular if there is no matching M such that the number of people who prefer M to M∗ exceeds the number who prefer M∗ to M. However, popular matchings do not always provide an answer to the problem of determining an optimal matching since there are simple instances that do not admit popular matchings. This motivates the following extension of the popular matchings problem: •Given a graph G=(A∪B,E) where A is the set...
We study dynamic matching problems in graphs among agents with preferences. Agents and/or edges of t...
We consider the problem of matching people to jobs, where each person ranks a subset of jobs in an o...
In this paper, we study a slightly different definition of popularity in bipartite graphs $G=(U,W,E)...
AbstractWe consider the problem of matching people to items, where each person ranks a subset of ite...
We consider the problem of matching a set of applicants to a set of posts, where each applicant has ...
We study the problem of matching a set of applicants to a set of posts, where each applicant has an ...
AbstractIn this paper we consider the problem of computing an “optimal” popular matching. We assume ...
Let G be a bipartite graph where every node has a strict ranking of its neighbors. For any node, its...
We consider a matching problem in a bipartite graph G = (A ? B, E) where vertices have strict prefer...
Matching problems arise in several real-world scenarios like assigning posts to applicants, houses t...
We consider a matching problem in a bipartite graph $G=(A\cup B,E)$ where nodes in $A$ are agents ha...
We investigate the following problem: given a set of jobs and a set of people with preferences over ...
An instance of the popular matching problem (POP-M) consists of a set of applicants and a set of pos...
We consider the problem of computing a maximum cardinality {\em popular} matching in a bipartite gra...
AbstractWe study the problem of matching applicants to jobs under one-sided preferences; that is, ea...
We study dynamic matching problems in graphs among agents with preferences. Agents and/or edges of t...
We consider the problem of matching people to jobs, where each person ranks a subset of jobs in an o...
In this paper, we study a slightly different definition of popularity in bipartite graphs $G=(U,W,E)...
AbstractWe consider the problem of matching people to items, where each person ranks a subset of ite...
We consider the problem of matching a set of applicants to a set of posts, where each applicant has ...
We study the problem of matching a set of applicants to a set of posts, where each applicant has an ...
AbstractIn this paper we consider the problem of computing an “optimal” popular matching. We assume ...
Let G be a bipartite graph where every node has a strict ranking of its neighbors. For any node, its...
We consider a matching problem in a bipartite graph G = (A ? B, E) where vertices have strict prefer...
Matching problems arise in several real-world scenarios like assigning posts to applicants, houses t...
We consider a matching problem in a bipartite graph $G=(A\cup B,E)$ where nodes in $A$ are agents ha...
We investigate the following problem: given a set of jobs and a set of people with preferences over ...
An instance of the popular matching problem (POP-M) consists of a set of applicants and a set of pos...
We consider the problem of computing a maximum cardinality {\em popular} matching in a bipartite gra...
AbstractWe study the problem of matching applicants to jobs under one-sided preferences; that is, ea...
We study dynamic matching problems in graphs among agents with preferences. Agents and/or edges of t...
We consider the problem of matching people to jobs, where each person ranks a subset of jobs in an o...
In this paper, we study a slightly different definition of popularity in bipartite graphs $G=(U,W,E)...