The minimum-cost flow (MCF) problem is a fundamental optimization problem with many applications and seems to be well understood. Over the last half century many algorithms have been developed to solve the MCF problem and these algorithms have varying worst-case bounds on their running time. However, these worst-case bounds are not always a good indication of the algorithms’ performance in practice. The Network Simplex (NS) algorithm needs an exponential number of iterations for some instances, but it is considered the best algorithm in practice and performs best in experimental studies. On the other hand, the Minimum-Mean Cycle Canceling (MMCC) algorithm is strongly polynomial, but performs badly in experimental studies.\ud To explain thes...
We present two new strongly polynomial algorithms for the Minimum Cost Network Flow Problem (MCNF). ...
In the present paper, we give the rigorous proof of the result that Bland's rule for network simplex...
We consider the minimum cost network flow problem min(cx: Ax=b, x> 0) on a graph G = (V,E). First...
The minimum-cost flow (MCF) problem is a fundamental optimization problem with many applications and...
The minimum-cost flow (MCF) problem is a fundamental optimization problem with many applications and...
The minimum-cost flow problem is a classic problem in combinatorial optimization with various applic...
Abstract: Algorithms that have good worst-case performance are not always the ones that perform best...
AbstractWe present two new strongly polynomial algorithms for the minimum cost network flow problem ...
Most primal minimum cost network flow (MCNF) algorithms can be seen as variants on cancelling negati...
AbstractMost primal minimum cost network flow (MCNF) algorithms can be seen as variants on cancellin...
We consider the minimum cost network flow problem min(cx: Ax=b, x> 0) on a graph G = (V,E). First...
This paper presents two new scaling algorithms for the minimum cost network flow prob-lem, one a pri...
The minimum-cost flow problem is: Given a network with n vertices and m edges, find a maximum flow o...
Abstract. We introduce the smoothed analysis of algorithms, which continuously interpolates between ...
Developing a polynomial time primal network simplex algorithm for the minimum cost flow problem has ...
We present two new strongly polynomial algorithms for the Minimum Cost Network Flow Problem (MCNF). ...
In the present paper, we give the rigorous proof of the result that Bland's rule for network simplex...
We consider the minimum cost network flow problem min(cx: Ax=b, x> 0) on a graph G = (V,E). First...
The minimum-cost flow (MCF) problem is a fundamental optimization problem with many applications and...
The minimum-cost flow (MCF) problem is a fundamental optimization problem with many applications and...
The minimum-cost flow problem is a classic problem in combinatorial optimization with various applic...
Abstract: Algorithms that have good worst-case performance are not always the ones that perform best...
AbstractWe present two new strongly polynomial algorithms for the minimum cost network flow problem ...
Most primal minimum cost network flow (MCNF) algorithms can be seen as variants on cancelling negati...
AbstractMost primal minimum cost network flow (MCNF) algorithms can be seen as variants on cancellin...
We consider the minimum cost network flow problem min(cx: Ax=b, x> 0) on a graph G = (V,E). First...
This paper presents two new scaling algorithms for the minimum cost network flow prob-lem, one a pri...
The minimum-cost flow problem is: Given a network with n vertices and m edges, find a maximum flow o...
Abstract. We introduce the smoothed analysis of algorithms, which continuously interpolates between ...
Developing a polynomial time primal network simplex algorithm for the minimum cost flow problem has ...
We present two new strongly polynomial algorithms for the Minimum Cost Network Flow Problem (MCNF). ...
In the present paper, we give the rigorous proof of the result that Bland's rule for network simplex...
We consider the minimum cost network flow problem min(cx: Ax=b, x> 0) on a graph G = (V,E). First...