Georgios Lymperopoulos, EE Controls PI: Petros Ioannou Introduction

Slides:



Advertisements
Similar presentations
Optimization-based PI/PID control for SOPDT process
Advertisements

Introductory Control Theory I400/B659: Intelligent robotics Kris Hauser.
NONLINEAR HYBRID CONTROL with LIMITED INFORMATION Daniel Liberzon Coordinated Science Laboratory and Dept. of Electrical & Computer Eng., Univ. of Illinois.
Using Cramer-Rao-Lower-Bound to Reduce Complexity of Localization in Wireless Sensor Networks Dominik Lieckfeldt, Dirk Timmermann Department of Computer.
1 ECE 776 Project Information-theoretic Approaches for Sensor Selection and Placement in Sensor Networks for Target Localization and Tracking Renita Machado.
ISS of Switched Systems and Application to Adaptive Control
Kriging.
Tracking Unknown Dynamics - Combined State and Parameter Estimation Tracking Unknown Dynamics - Combined State and Parameter Estimation Presenters: Hongwei.
Automotive Research Center Robotics and Mechatronics A Nonlinear Tracking Controller for a Haptic Interface Steer-by-Wire Systems A Nonlinear Tracking.
Electric Drives FEEDBACK LINEARIZED CONTROL Vector control was invented to produce separate flux and torque control as it is implicitely possible.
Study of the periodic time-varying nonlinear iterative learning control ECE 6330: Nonlinear and Adaptive Control FISP Hyo-Sung Ahn Dept of Electrical and.
Introduction to Neural Network Justin Jansen December 9 th 2002.
Adaptive Robust Control F or Dual Stage Hard Drives استاد راهنما : جناب آقای دکتر حمید تقی راد هادی حاجی اقراری دانشجوی کارشناسی ارشد مهندسی برق –کنترل.
CH 1 Introduction Prof. Ming-Shaung Ju Dept. of Mechanical Engineering NCKU.
MODEL REFERENCE ADAPTIVE CONTROL
Chapter 1 Introduction to Adaptive Control
Introduction to estimation theory Seoul Nat’l Univ.
1 IEEE Trans. on Smart Grid, 3(1), pp , Optimal Power Allocation Under Communication Network Externalities --M.G. Kallitsis, G. Michailidis.
Dynamic Load Balancing through Association Control of Mobile Users in WiFi Networks 2013 YU-ANTL Seminal November 9, 2013 Hyun dong Hwang Advanced Networking.
Chapter 3 1 Parameter Identification. Table of Contents   O ne-Parameter Case TT wo Parameters PP ersistence of Excitation and SS ufficiently.
To clarify the statements, we present the following simple, closed-loop system where x(t) is a tracking error signal, is an unknown nonlinear function,
Reinforcement Learning Control with Robust Stability Chuck Anderson, Matt Kretchmar, Department of Computer Science, Peter Young, Department of Electrical.
Agent-Organized Networks for Dynamic Team Formation Multi-Agent Planning and Learning Laboratory (MAPLE) Department of Computer Science and EE University.
TEMPLATE DESIGN © Observer Based Control of Decentralized Networked Control Systems Ahmed M. Elmahdi, Ahmad F. Taha School.
Final Year Project Lego Robot Guided by Wi-Fi (QYA2) Presented by: Li Chun Kit (Ash) So Hung Wai (Rex) 1.
A Passive Approach to Sensor Network Localization Rahul Biswas and Sebastian Thrun International Conference on Intelligent Robots and Systems 2004 Presented.
0 IEEE SECON 2004 Estimation Bounds for Localization October 7 th, 2004 Cheng Chang EECS Dept,UC Berkeley Joint work with Prof.
ADAPTIVE CONTROL SYSTEMS
Performance Study of Localization Techniques in Zigbee Wireless Sensor Networks Ray Holguin Electrical Engineering Major Dr. Hong Huang Advisor.
Review: Neural Network Control of Robot Manipulators; Frank L. Lewis; 1996.
Fault-Tolerant Control. Fault Tolerance Passive Passive  Tolerance achieved by the use of feedback control laws that are robust to possible system faults.
C. Savarese, J. Beutel, J. Rabaey; UC BerkeleyICASSP Locationing in Distributed Ad-hoc Wireless Sensor Networks Chris Savarese, Jan Beutel, Jan Rabaey.
Adaptive Optimal Control of Nonlinear Parametric Strict Feedback Systems with application to Helicopter Attitude Control OBJECTIVES  Optimal adaptive.
1 Lu LIU and Jie HUANG Department of Mechanics & Automation Engineering The Chinese University of Hong Kong 9 December, Systems Workshop on Autonomous.
BAHIR DAR UNIVERSITY Institute of technology Faculty of Computing Department of information technology Msc program Distributed Database Article Review.
Process Dynamics and Operations Group (DYN) TU-Dortmund
(5) Notes on the Least Squares Estimate
Estimation of the critical temperature ratio
Chapter 7: Introduction to Data Communications and Networking
Vivaldi: A Decentralized Network Coordinate System
Dynamic connection system
Dynamic Fine-Grained Localization in Ad-Hoc Networks of Sensors
Power Control for Data Center
Dynamic Graph Partitioning Algorithm
PID Controllers Jordan smallwood.
Outline Introduction Routing in Mobile Ad Hoc Networks
INVERSE BUILDING MODELING
An Overview of Reinforcement Learning
Privacy and Fault-Tolerance in Distributed Optimization Nitin Vaidya University of Illinois at Urbana-Champaign.
Distributed Energy Efficient Clustering (DEEC) Routing Protocol
Net 435: Wireless sensor network (WSN)
Presented by Prashant Duhoon
Multi-Agent Exploration
Student: Hao Xu, ECE Department
Lecture 10: Observers and Kalman Filters
Ekereuke Udoh Distributed and Intelligent Systems Research Group
System Level Diesel Engine Emission Modeling Using Neural Networks
Fast Localization for Emergency Monitoring and Rescue in Disaster Scenarios Based on WSN SPEAKER:Jyun-Ying Yu ADVISOR:DR. Kai-Wei Ke DATE:2018/05/04.
788.11J Presentation “Robot Navigation using a Sensor Network ”
Inductance Screening and Inductance Matrix Sparsification
Networking and Negotiating
The Coverage Problem in a Wireless Sensor Network
Dual Adaptive Control for Trajectory Tracking of Mobile Robots
Wireless Sensor Networks and Internet of Things
Tracking of LTI Systems with Unstable Zero Dynamics using Sliding Mode Control S. Janardhanan.
Neuro-Computing Lecture 2 Single-Layer Perceptrons
A Trust Evaluation Framework in Distributed Networks: Vulnerability Analysis and Defense Against Attacks IEEE Infocom
Substation Automation IT Needs
Information Sciences and Systems Lab
Stabilization of Multiple Robots on Stable Orbits via Local Sensing Mong-ying A. Hsieh, Savvas Loizou and Vijay Kumar GRASP Laboratory, University of.
Presentation transcript:

Adaptive Control of Networked Distributed Systems with Unknown Interconnections Georgios Lymperopoulos, EE Controls PI: Petros Ioannou Introduction Known Interconnections Networked Distributed Control Systems (NDCS) consist of a plethora of agents/subsystems, each one of which is controlled by a local controller. Information on the states and control signals is exchanged between the agents through a control/communication network. Common problems with NDCS include delays in the communication network or uncertainties in the interconnections, with examples in economic systems, power systems or robotic systems. Local controllers can weaken interconnections to avoid instability and at the same time avoid problems due to dimensionality.   Proposed Controller:   Problem Statement Multi-zone HVAC systems can be modeled as interconnected systems with uncertainties and delays in communication. Unknown Interconnections   Proposed Controller:         The controller gains of the distributed controllers are estimated by the proposed adaptive law. The computational burden for each adaptive controller depends on the number of neighbors that the respective subsystem has. Discussion & Future Work In NDCS, the proposed distributed control scheme that weakens the effect of the interconnections via feedback can stabilize the local dynamic, in the case of known interconnections. In the case of unknown interconnections the proposed adaptive control scheme guarantees that the states converge close to zero in a set that is small in the mean square sense provided the interconnections can be weakened and the time delays are relatively small. Future work includes calculating accurate bounds for the delay that can be handled and finding a way to make a trade-off between delay and interconnections strength.   Georgios Lymperopoulos, lymperop@usc.edu