The authors propose distributed optimization algorithms that can produce violation-free solutions to problems with separable convex objective functions and coupling constraints, while also converging to precise solutions with explicit rate guarantees.
A continuous-time distributed optimization algorithm is proposed that guarantees zero coupling constraint violation and asymptotically converges to the optimal solution of a centralized problem with coupled linear constraints.
The authors propose the first distributed constrained optimization algorithm that can ensure both provable convergence to a global optimal solution and rigorous ε-differential privacy, even when the number of iterations tends to infinity.
The paper presents a new distributed algorithm, called Three Pillars Algorithm, that combines three key techniques - similarity, compression, and local steps - to efficiently solve variational inequalities and saddle point problems. The algorithm achieves the best theoretical communication complexity compared to existing methods.
The core message of this work is to design efficient distributed algorithms, IDEA and Proj-IDEA, to solve a class of distributed optimization problems with a globally coupled equality constraint and local constrained sets. The key innovation is the novel implicit tracking approach, which allows the distributed algorithms to converge without the need of the strict convexity of local cost functions.
The authors present resilient distributed optimization algorithms for multi-dimensional functions to mitigate the impact of Byzantine adversaries, ensuring convergence to a bounded region.