Optimizing the Gossip Algorithm with Non-Uniform Clock Distribution over Classical & Quantum Networks
Saber Jafarizadeh

TL;DR
This paper introduces a non-uniform clock distribution model for gossip algorithms that optimizes convergence rates in classical and quantum networks, surpassing uniform strategies through semidefinite programming.
Contribution
It proposes a novel non-uniform clock distribution model for gossip algorithms, achieving optimal convergence rates and extending the approach to quantum networks via convex optimization.
Findings
Non-uniform clock distribution outperforms uniform distribution in convergence rate.
Multiple optimal solutions exist for the non-uniform distribution case.
Quantum gossip algorithms can be optimized using semidefinite programming.
Abstract
Distributed gossip algorithm has been studied in literature for practical implementation of the distributed consensus algorithm as a fundamental algorithm for the purpose of in-network collaborative processing. This paper focuses on optimizing the convergence rate of the gossip algorithm for both classical and quantum networks. A novel model of the gossip algorithm with non-uniform clock distribution is proposed which can reach the optimal convergence rate of the continuous-time consensus algorithm. It is described that how the non-uniform clock distribution is achievable by modifying the rate of the Poisson process modeling the clock of the gossip algorithm. The minimization problem for optimizing the asymptotic convergence rate of the proposed gossip algorithm and its corresponding semidefinite programming formulation is addressed analytically. It is shown that the optimal results…
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Taxonomy
TopicsDistributed Control Multi-Agent Systems · Neural Networks and Reservoir Computing · Perovskite Materials and Applications
