Classifying Resolving Lists by Distances between Members
L Let $G$ be a connected graph and let $w_1,\cdots w_r$ be a list of vertices. We refer the choice of a triple $(r;G;w_1,\cdots w_r)$, as a {\em metric selection.} Let $\rho$ be the shortest path metric of $G$. We say that $w_1,\cdots w_r$ {\em resolves $G$ (metricly)\/} if the function $c:V(G)\maps...
Main Author: | |
---|---|
Format: | Article |
Language: | English |
Published: |
Georgia Southern University
2016-01-01
|
Series: | Theory and Applications of Graphs |
Subjects: | |
Online Access: | https://digitalcommons.georgiasouthern.edu/tag/vol3/iss1/7 |
id |
doaj-101f8119abe34fe6840c4f9a5d28e666 |
---|---|
record_format |
Article |
spelling |
doaj-101f8119abe34fe6840c4f9a5d28e6662020-11-25T01:04:45ZengGeorgia Southern UniversityTheory and Applications of Graphs2470-98592016-01-013110.20429/tag.2016.030107Classifying Resolving Lists by Distances between MembersPaul FeitL Let $G$ be a connected graph and let $w_1,\cdots w_r$ be a list of vertices. We refer the choice of a triple $(r;G;w_1,\cdots w_r)$, as a {\em metric selection.} Let $\rho$ be the shortest path metric of $G$. We say that $w_1,\cdots w_r$ {\em resolves $G$ (metricly)\/} if the function $c:V(G)\mapsto\bbz^r$ given by \[ x\mapsto (\rho (w_1,x),\cdots ,\rho (w_r,x))\] is injective. We refer to this function the {\em code map,} and to its image as the {\em codes\/} of the triple $(r;G;w_1,\cdots ,w_r)$. %edit This paper proves basic results on the following questions: \begin{enumerate} \item What sets can be the image of a code map? \item Given the image of a graph's code map, what can we determine about the graph? \end{enumerate}https://digitalcommons.georgiasouthern.edu/tag/vol3/iss1/7Metric DimensionGraph Distances |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Paul Feit |
spellingShingle |
Paul Feit Classifying Resolving Lists by Distances between Members Theory and Applications of Graphs Metric Dimension Graph Distances |
author_facet |
Paul Feit |
author_sort |
Paul Feit |
title |
Classifying Resolving Lists by Distances between Members |
title_short |
Classifying Resolving Lists by Distances between Members |
title_full |
Classifying Resolving Lists by Distances between Members |
title_fullStr |
Classifying Resolving Lists by Distances between Members |
title_full_unstemmed |
Classifying Resolving Lists by Distances between Members |
title_sort |
classifying resolving lists by distances between members |
publisher |
Georgia Southern University |
series |
Theory and Applications of Graphs |
issn |
2470-9859 |
publishDate |
2016-01-01 |
description |
L
Let $G$ be a connected graph and let $w_1,\cdots w_r$ be a list of vertices. We refer the choice of a triple $(r;G;w_1,\cdots w_r)$, as a {\em metric selection.} Let $\rho$ be the shortest path metric of $G$. We say that $w_1,\cdots w_r$ {\em resolves $G$ (metricly)\/} if the function $c:V(G)\mapsto\bbz^r$ given by
\[ x\mapsto (\rho (w_1,x),\cdots ,\rho (w_r,x))\]
is injective. We refer to this function the {\em code map,} and to its image as the {\em codes\/} of the triple $(r;G;w_1,\cdots ,w_r)$.
%edit
This paper proves basic results on the following questions:
\begin{enumerate}
\item What sets can be the image of a code map?
\item Given the image of a graph's code map, what can we determine about the graph?
\end{enumerate} |
topic |
Metric Dimension Graph Distances |
url |
https://digitalcommons.georgiasouthern.edu/tag/vol3/iss1/7 |
work_keys_str_mv |
AT paulfeit classifyingresolvinglistsbydistancesbetweenmembers |
_version_ |
1725196219692613632 |