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Optimization and nonsmooth analysis

TLDR
The Calculus of Variations as discussed by the authors is a generalization of the calculus of variations, which is used in many aspects of analysis, such as generalized gradient descent and optimal control.
Abstract
1. Introduction and Preview 2. Generalized Gradients 3. Differential Inclusions 4. The Calculus of Variations 5. Optimal Control 6. Mathematical Programming 7. Topics in Analysis.

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Journal ArticleDOI

Distributed algorithms for reaching consensus on general functions

TL;DR: This paper identifies a class of smooth functions for which one can synthesize in a systematic way distributed algorithms that achieve consensus, applies this result to the family of weighted power mean functions, and characterize the exponential convergence properties of the resulting algorithms.
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Simultaneous Variable Selection

TL;DR: A new method for selecting a common subset of explanatory variables where the aim is to model several response variables based on the (joint) residual sum of squares while constraining the parameter estimates to lie within a suitable polyhedral region is proposed.
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Proximity control in bundle methods for convex

TL;DR: A technique is given for choosing {uk} adaptively that eliminates sensitivity to objective scaling and some encouraging numerical experience is reported.
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Coordination and Geometric Optimization via Distributed Dynamical Systems

TL;DR: In this paper, a collection of distributed control laws that are related to nonsmooth gradient systems for disk-covering and sphere-packing problems is presented. And the resulting dynamical systems promise to be of use in coordination problems for networked robots; in this setting the distributed control law correspond to local interactions between the robots.
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A novel actor-critic-identifier architecture for approximate optimal control of uncertain nonlinear systems

TL;DR: An online adaptive reinforcement learning-based solution is developed for the infinite-horizon optimal control problem for continuous-time uncertain nonlinear systems using a novel actor-critic-identifier (ACI) architecture to approximate the Hamilton-Jacobi-Bellman equation.