The aim of the workshop is to provide a concise, yet complete, exposition to the topic of distributed and stochastic optimization, with an in depth understanding of the mathematical and algorithmic mechanisms underlying it, of the potential communication and computational savings of such implementations, and of how uncertainty can be dealt with in a rigorous manner. This comprehensive introduction to the machinery underlying distributed and stochastic optimization will encourage the development of new results and the investigation of several important issues in the future of distributed optimization and control over uncertain networks, possibly through novel collaborations.
Merging distributed optimization algorithms with stochastic optimization techniques that allow for a rigorous treatment of uncertainty is a quite challenging problem.
We believe that this full-day workshop will help building the appropriate background to address it, by demonstrating recent advances on the broad topic of distributed and stochastic optimization, offering attendees the opportunity to get exposed to recent algorithmic developments as well as to applications of contemporary interest like smart grid monitoring and control, control of cyber-physical systems, and wireless networks.
The workshop brings together a diverse group of internationally recognized researchers, who are affiliated with outstanding institutions in Europe and in the United States. Attendees will be exposed to cutting edge research on the field, acquire a comprehensive awareness of the literature, and get some insight on the potential connections and complementarities among different algorithmic alternatives as well as new vistas on the field.
The workshop is divided in four sessions with two presentations each.
Session 1 deals with the connections between distributed stochastic optimization algorithms and machine learning. Each one, however, employs a different distributed algorithm of synchronous nature and follows a different learning paradigm (the first one is based on Bayesian learning, whereas the second one on statistical learning theoretic results), thus giving a rather complete introduction to the problem. Applications in the area of building energy management are outlined.
In contrast to Session 1, Session 2 deals with asynchronous distributed optimization algorithms in the presence of uncertainty. The first talk in this session gives an emphasis on accounting for robustness against communication failures, whereas the second talk focuses on computational savings by means of constraint exchange methodologies. Applications in the area of communication networks are also outlined.
Session 3 deals with the application of distributed optimization algorithms to stochastic model predictive control. The first talk concentrates on systems with switched dynamics, and, in particular, how random switching can be encoded in a distributed model predictive control context. The second talk employs ideas from scenario based stochastic model predictive control and illustrates the applicability of such algorithms to energy management problems in building networks.
06月28日
2016
会议日期
注册截止日期
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