Distributed and Networked Control Systems
Scientific breakthroughs enable new technology whereas at the same time, technology makes it into transformative applications (see, for example, the Internet and wireless communication systems). It is evident that the advancement of smart devices with impressive sensing, computing and control capabilities makes it possible for our cities, transportation systems, factories and living environments to become more intelligent, energy-efficient, safe and secure. We are now witnessing an explosion in networked systems: everything is connected and massive amounts of devices are required to be coordinated. However, the overall system is distributed and a service should be delivered cooperatively, rather than by a unique provider that knows and owns all data. Many researchers and practitioners are interested in understanding the complexity and possible solution approaches, since distributed systems apply to different areas and applications and are anticipated to play a central role in the near future.
In applications that can be characterized as distributed systems, dynamical systems are controlled or communicate and interact with other dynamical systems via a network of sensors and actuators transmitting and receiving information over a digital communication network. Real communication channels suffer from various problems (such as limited capacity, bit errors, erasures and random delays) that can affect the stability and/or performance of the whole system. Given the multidisciplinary nature of distributed systems, many studies are necessarily restricted to contributions that solve problems partially, ignoring important aspects of such systems due to modular approaches to the problem. In order to be able to deal with distributed systems, we need to better understand information, and the interplay between information and decisions. However, communication and control/decision making have traditionally been treated separately whereas recent emerging applications necessitate a more holistic approach, since communication and control are no longer independent.
The main objective of this line or research is to develop the framework on how to treat the interplay between communications and control to solve distributed control and optimization problems arising in distributed systems and in Cyber-Physical Systems (CPS), in general.
The group is led by Professor Themistoklis Charalambous
Group members
Latest publications
A Comprehensive Survey on Delaunay Triangulation : Applications, Algorithms, and Implementations Over CPUs, GPUs, and FPGAs
Assessing the performance of a hybrid max-weight traffic signal control algorithm in the presence of noisy queue information: An evaluation of the environmental impacts
A Linear Push-Pull Average Consensus Algorithm for Delay-Prone Networks
Distributed Optimization with Gradient Tracking Over Heterogeneous Delay-Prone Directed Networks
Bandit-Based Learning-Aided Full-Duplex/Half-Duplex Mode Selection in 6G Cooperative Relay Networks
On the Interplay between Deadline-Constrained Traffic and the Number of Allowed Retransmissions in Random Access Networks
Minimum Time Headway in Platooning Systems Under the MPF Topology for Different Wireless Communication Scenario
Intersection Crossing of Autonomous Vehicles for Communication Links with Packet Losses
Back-Pressure Traffic Signal Control in the Presence of Noisy Queue Information
State-Dependent Generalizations of Nonanticipatory Epsilon Entropy of Partially Observable Processes
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