Analyzing the Fault-Containment Time of Self-Stabilizing Algorithms - A Case Study for Graph Coloring
Volker Turau

TL;DR
This paper introduces techniques to analyze fault containment times in self-stabilizing algorithms, providing bounds on recovery time and variance, with specific results for graph coloring and bounded-independence graphs.
Contribution
It offers new analytical methods to bound mean recovery time and variance for self-stabilizing algorithms, including a novel Delta+1-coloring algorithm.
Findings
Mean recovery time is bounded analytically.
Variance of recovery time is bounded by a small constant.
Containment metrics are constant for bounded-independence graphs.
Abstract
The paper presents techniques to derive upper bounds for the mean time to recover from a single fault for self-stabilizing algorithms in the message passing model. For a new Delta+1-coloring algorithm we analytically derive a bound for the mean time to recover and show that the variance is bounded by a small constant independent of the network's size. For the class of bounded-independence graphs (e.g. unit disc graphs) all containment metrics are in O(1).
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Taxonomy
TopicsDistributed systems and fault tolerance · Interconnection Networks and Systems · Optimization and Search Problems
