Euclidean Networks with a Backbone and a Limit Theorem for Minimum Spanning Caterpillars

Loading...
Thumbnail Image
Penn collection
Finance Papers
Degree type
Discipline
Subject
Euclidean networks
subadditive Euclidean functional
caterpillar graphs
shortest paths
traveling salesman problem
Beardwood
Halton
and Hammersley theorem
minimal spanning trees
Gutman graphs
Finance and Financial Management
Mathematics
Funder
Grant number
License
Copyright date
Distributor
Related resources
Author
Jevtić, Petar
Steele, J. Michael
Contributor
Abstract

A caterpillar network (or graph) G is a tree with the property that removal of the leaf edges of Gleaves one with a path. Here we focus on minimum weight spanning caterpillars where the vertices are points in the Euclidean plane and the costs of the path edges and the leaf edges are multiples of their corresponding Euclidean lengths. The flexibility in choosing the weight for path edges versus the weight for leaf edges gives some useful flexibility in modeling. In particular, one can accommodate problems motivated by communications theory such as the “last mile problem.” Geometric and probabilistic inequalities are developed that lead to a limit theorem that is analogous to the well-known Beardwood, Halton, and Hammersley theorem for the length of the shortest tour through a random sample, but the minimal spanning caterpillars fall outside the scope of the theory of subadditive Euclidean functionals.

Advisor
Date Range for Data Collection (Start Date)
Date Range for Data Collection (End Date)
Digital Object Identifier
Series name and number
Publication date
2015-11-01
Volume number
Issue number
Publisher
Publisher DOI
Journal Issue
Comments
Recommended citation
Collection