The complexity of growing a graph

We study a new algorithmic process of graph growth which starts from a single initial vertex and operates in discrete time-steps, called slots. In every slot, the graph grows via two operations (i) vertex generation and (ii) edge activation. The process completes at the last slot where a (possibly empty) subset of the edges of the graph are removed. Removed edges are called excess edges. The main problem investigated in this paper is: Given a target graph G, design an algorithm that outputs a process that grows G, called a growth schedule. Additionally, we aim to minimize the total number of slots k and of excess edges ℓ used by the process. We provide both positive and negative results, with our main focus being either schedules with sub-linear number of slots or with no excess edges.

Authors

Publication Details

Journal
Journal of Computer and System Sciences
Published
2024-09-27
DOI
https://doi.org/10.1016/j.jcss.2024.103587
Citations
3
Primary Topic
Complex Network Analysis Techniques
Type
article
Field-Weighted Citation Impact
0.84

Funders

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article

The complexity of growing a graph

Michail Theofilatos, Othon Michail, George Skretas, Paul G. Spirakis et al.
3 citations
Journal of Computer and System Sciences
Complex Network Analysis Techniques
0.84
article

The complexity of growing a graph

Michail Theofilatos, Othon Michail, George Skretas, Paul G. Spirakis, George B. Mertzios
article en
3 citations

Abstract

We study a new algorithmic process of graph growth which starts from a single initial vertex and operates in discrete time-steps, called slots. In every slot, the graph grows via two operations (i) vertex generation and (ii) edge activation. The process completes at the last slot where a (possibly empty) subset of the edges of the graph are removed. Removed edges are called excess edges. The main problem investigated in this paper is: Given a target graph G, design an algorithm that outputs a process that grows G, called a growth schedule. Additionally, we aim to minimize the total number of slots k and of excess edges ℓ used by the process. We provide both positive and negative results, with our main focus being either schedules with sub-linear number of slots or with no excess edges.

Journal of Computer and System SciencesVol. 147
Engineering and Physical Sciences Research Council
Openalex Percentile: Top 28%
Complex Network Analysis Techniques
0.84
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