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Forward-backward truncated Newton methods for convex composite optimization

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arxiv 1402.6655 v2 pith:CRE2UQ5J submitted 2014-02-26 math.OC

classification math.OC
keywords methodscompositeconvexforward-backwardnewtonnonsmoothoptimizationachieving
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This paper proposes two proximal Newton-CG methods for convex nonsmooth optimization problems in composite form. The algorithms are based on a a reformulation of the original nonsmooth problem as the unconstrained minimization of a continuously differentiable function, namely the forward-backward envelope (FBE). The first algorithm is based on a standard line search strategy, whereas the second one combines the global efficiency estimates of the corresponding first-order methods, while achieving fast asymptotic convergence rates. Furthermore, they are computationally attractive since each Newton iteration requires the approximate solution of a linear system of usually small dimension.

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  1. Proximal gradient flow and Douglas-Rachford splitting dynamics: global exponential stability via integral quadratic constraints

    math.OC 2019-08 conditional novelty 5.0 of 10

    Continuous-time proximal gradient and Douglas-Rachford splitting flows are shown to be globally exponentially stable using integral quadratic constraints, with explicit rates.

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