In [Evans, Francis 2022; Hendel] the authors investigated resistance distance in triangular grid graphs and observed several types of asymptotic behavior. This paper extends this work by studying the initial, non-asymptotic, behavior found when equivalent circuit transformations are performed, thus reducing the rows in the triangular grid graph one row at a time. The main conjecture characterizes when edge resistance values are less than, equal to, or greater than one after reducing an arbitrary number of times a triangular grid all of whose edge resistances are identically one. A special case of the conjecture is shown. The main theorem identifies patterns of repeating edge labels arising in diagonals of a triangular grid reduced $s$ times...
In this part we shall explore the tight relation between (simple) random walks and electric networks...
Published at http://dx.doi.org/10.1214/14-AOP996 in the Annals of Probability (http://www.imstat.org...
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...
This paper shows how a method developed by Van Steenwijk can be generalized to calculate the resista...
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....
Abstract. The average effective resistance of a graph is a relevant performance index in many applic...
Disclaimer: These notes have not been subjected to the usual scrutiny reserved for formal publicatio...
We study resistance sparsification of graphs, in which the goal is to find a sparse subgraph (with r...
Effective resistance is an important metric that measures the similarity of two vertices in a graph....
A graph can be regarded as an electrical network in which each edge is a resistor. This point of vie...
AbstractLet matrix (σij) denote the edge conductances of an electrical network, so that there is a r...
The resistance between two arbitrary grid points of several infinite lattice structures of resistors...
The resistance between two arbitrary points in an infinite triangle and hexagonal lattice networks o...
Effective resistances are ubiquitous in graph algorithms and network analysis. In this work, we stud...
In this part we shall explore the tight relation between (simple) random walks and electric networks...
Published at http://dx.doi.org/10.1214/14-AOP996 in the Annals of Probability (http://www.imstat.org...
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...
This paper shows how a method developed by Van Steenwijk can be generalized to calculate the resista...
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....
Abstract. The average effective resistance of a graph is a relevant performance index in many applic...
Disclaimer: These notes have not been subjected to the usual scrutiny reserved for formal publicatio...
We study resistance sparsification of graphs, in which the goal is to find a sparse subgraph (with r...
Effective resistance is an important metric that measures the similarity of two vertices in a graph....
A graph can be regarded as an electrical network in which each edge is a resistor. This point of vie...
AbstractLet matrix (σij) denote the edge conductances of an electrical network, so that there is a r...
The resistance between two arbitrary grid points of several infinite lattice structures of resistors...
The resistance between two arbitrary points in an infinite triangle and hexagonal lattice networks o...
Effective resistances are ubiquitous in graph algorithms and network analysis. In this work, we stud...
In this part we shall explore the tight relation between (simple) random walks and electric networks...
Published at http://dx.doi.org/10.1214/14-AOP996 in the Annals of Probability (http://www.imstat.org...
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...