Discrete Applied Mathematics
Resolvability in graphs and the metric dimension of a graph
Discrete Applied Mathematics
Metric bases for polyhedral gauges
DGCI'11 Proceedings of the 16th IAPR international conference on Discrete geometry for computer imagery
Hi-index | 0.00 |
Let (W,d) be a metric space and S={s1 …sk} an ordered list of subsets of W. The distance between p∈W and si∈S is d(p, si)= min { d(p,q) : q∈si }. S is a resolving set for W if d(x, si)=d(y, si) for all si implies x=y. A metric basis is a resolving set of minimal cardinality, named the metric dimension of (W,d). The metric dimension has been extensively studied in the literature when W is a graph and S is a subset of points (classical case) or when S is a partition of W ; the latter is known as the partition dimension problem. We have recently studied the case where W is the discrete space ℤn for a subset of points; in this paper, we tackle the partition dimension problem for classical Minkowski distances as well as polyhedral gauges and chamfer norms in ℤn.