A modified golden ratio proximal algorithm solves pseudomonotone equilibrium problems with explicit steplengths, proven convergence, and R-linear rate under strong pseudomonotonicity.
Golden Ratio Algorithms for Variational Inequalities
1 Pith paper cite this work. Polarity classification is still indexing.
abstract
The paper presents a fully explicit algorithm for monotone variational inequalities. The method uses variable stepsizes that are computed using two previous iterates as an approximation of the local Lipschitz constant without running a linesearch. Thus, each iteration of the method requires only one evaluation of a monotone operator $F$ and a proximal mapping $g$. The operator $F$ need not be Lipschitz-continuous, which also makes the algorithm interesting in the area of composite minimization where one cannot use the descent lemma. The method exhibits an ergodic $O(1/k)$ convergence rate and $R$-linear rate, if $F, g$ satisfy the error bound condition. We discuss possible applications of the method to fixed point problems. We discuss possible applications of the method to fixed point problems as well as its different generalizations.
fields
math.OC 1years
2019 1verdicts
UNVERDICTED 1representative citing papers
citing papers explorer
-
Modified golden ratio algorithms for solving equilibrium problems
A modified golden ratio proximal algorithm solves pseudomonotone equilibrium problems with explicit steplengths, proven convergence, and R-linear rate under strong pseudomonotonicity.