AbstractIn this paper, using the intimate relations between random walks and electrical networks, we first prove the following effective resistance local sum rules: ciΩij+∑k∈Γ(i)cik(Ωik−Ωjk)=2, where Ωij is the effective resistance between vertices i and j, cik is the conductance of the edge, Γ(i) is the neighbor set of i, and ci=∑k∈Γ(i)cik. Then we show that from the above rules we can deduce many other local sum rules, including the well-known Foster’s k-th formula. Finally, using the above local sum rules, for several kinds of electrical networks, we give the explicit expressions for the effective resistance between two arbitrary vertices
We study a model of random electric networks with Bernoulli resistances. In the case of the lattice ...
The interesting connection between random walks and electric networks is the subject of the book 'Ra...
AbstractWe consider the random conductance model where the underlying graph is an infinite supercrit...
Disclaimer: These notes have not been subjected to the usual scrutiny reserved for formal publicatio...
We study random walks and electrical resistances between pairs of vertices in products of graphs. Am...
AbstractWe study random walks and electrical resistances between pairs of vertices in products of gr...
Published at http://dx.doi.org/10.1214/14-AOP996 in the Annals of Probability (http://www.imstat.org...
This paper studies an interesting graph measure that we call the effective graph resistance. The not...
AbstractThis paper studies an interesting graph measure that we call the effective graph resistance....
A mapping between random walk problems and resistor network problems is described and used to calcul...
AbstractLet matrix (σij) denote the edge conductances of an electrical network, so that there is a r...
In this part we shall explore the tight relation between (simple) random walks and electric networks...
The Chemical potential for a novel intrinsic graph metric, the resistance distance, is briefly recal...
In this paper we introduce new effective resistances on a given network, associated with a positive ...
A graph is a set of vertices V (can be taken to be {1,2,...,n}) and edges E, where each edge is an e...
We study a model of random electric networks with Bernoulli resistances. In the case of the lattice ...
The interesting connection between random walks and electric networks is the subject of the book 'Ra...
AbstractWe consider the random conductance model where the underlying graph is an infinite supercrit...
Disclaimer: These notes have not been subjected to the usual scrutiny reserved for formal publicatio...
We study random walks and electrical resistances between pairs of vertices in products of graphs. Am...
AbstractWe study random walks and electrical resistances between pairs of vertices in products of gr...
Published at http://dx.doi.org/10.1214/14-AOP996 in the Annals of Probability (http://www.imstat.org...
This paper studies an interesting graph measure that we call the effective graph resistance. The not...
AbstractThis paper studies an interesting graph measure that we call the effective graph resistance....
A mapping between random walk problems and resistor network problems is described and used to calcul...
AbstractLet matrix (σij) denote the edge conductances of an electrical network, so that there is a r...
In this part we shall explore the tight relation between (simple) random walks and electric networks...
The Chemical potential for a novel intrinsic graph metric, the resistance distance, is briefly recal...
In this paper we introduce new effective resistances on a given network, associated with a positive ...
A graph is a set of vertices V (can be taken to be {1,2,...,n}) and edges E, where each edge is an e...
We study a model of random electric networks with Bernoulli resistances. In the case of the lattice ...
The interesting connection between random walks and electric networks is the subject of the book 'Ra...
AbstractWe consider the random conductance model where the underlying graph is an infinite supercrit...