IGSC-EECI PhD Course at the Scuola IMT Studi Lucca
Hybrid Control Systems
Electrical and Computer Engineering, University of California, Santa Cruz
Course Overview
Hybrid dynamical systems, when broadly understood, encompass dynamical systems where states or dynamics can change continuously as well as instantaneously. Hybrid control systems arise when hybrid control algorithms — algorithms which involve logic, timers, clocks, and other digital devices — are applied to classical dynamical systems or systems that are themselves hybrid. Hybrid control may be used for improved performance and robustness properties compared to classical control, and hybrid dynamics may be unavoidable due to the interplay between digital and analog components of a system.
The course has two main parts. The first part presents various modeling approaches to hybrid dynamics, focuses on a particular framework which combines differential equations with difference equations (or inclusions), and present key analysis tools. The ideas are illustrated in several applications. The second part presents control design methods for such rich class of hybrid dynamical systems, such as supervisory control, CLF-based control, invariance-based control, and passivity. A particular goal of the course is to reveal the key steps in carrying over such methodologies to the hybrid dynamics setting. Each proposed module/lecture is designed to present key theoretical concepts as well as applications of hybrid control of current relevance.
Course Outline
1. Introduction and examples. [1], [2], [3]
2. Modeling.
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Theoretical topics: hybrid inclusions; solution concept, existence, and uniqueness [1], [2], [3]
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Applications: hybrid automata [3], networked systems [4], [5], [6], and cyber-physical systems [7].
3. Dynamical properties.
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Theoretical topics: continuous dependence of solutions, Lyapunov stability notion and sufficient conditions, invariance principles, and converse theorem [2], [3].
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Applications: synchronization of timers [8] [9] [5] [10] and state estimation over a network [11] [6] [12].
4. Uniting control.
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Theoretical topics: logic-based switching [13], uniting control [14], throw-and-catch control [15], supervisory control [16], and event-triggered control [17].
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Applications: aggressive control for aerial vehicles [18], control of the pendubot [19], obstacle avoidance [20], control of robotic manipulators [13]
5. Event-triggered control.
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Theoretical topics: event-triggered control [17].
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Applications: network control.
6. Throw-catch control.
7. Synergistic control.
8. Supervisory control.
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Applications: aggressive control for aerial vehicles [18], control of the pendubot [19], obstacle avoidance [20], control of robotic manipulators [13]
9. Invariance-based control.
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Theoretical topics: invariance and invariance-based control [24] [25]
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Applications: control for AC/DC conversion
References
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- [34] Hybrid dynamical systems, , IEEE Control Systems Magazine, April, Volume 29, Issue NULL, Number 2, p.28-93, (2009)
- [138] Computationally-Aware Switching Criteria for Hybrid Model Predictive Control Of Cyber-Physical Systems, , IEEE Transactions on Automation Science and Engineering, Volume 13, Issue 2, p.479-490, (2016)
- [140] A Hybrid Consensus Protocol for Pointwise Exponential Stability with Intermittent Information, , Proceedings of 10th IFAC Symposium on Nonlinear Control Systems, Issue NULL, p.146--151, (2016)
- [136] State Estimation of Linear Systems in the Presence of Sporadic Measurements, , Automatica, November, Volume 73, p.101-109, (2016)
- [105] Analysis and Design of Cyber-Physical Systems: A Hybrid Control Systems Approach, , Cyber Physical Systems: From Theory to Practice, p.3-31, (2015)
- [93] A Framework for Modeling and Analysis of Robust Stability for Spiking Neurons, , Proceedings of the American Control Conference, June, Issue NULL, p.1414-1419, (2014)
- [112] Robust Asymptotic Stability of Desynchronization in Impulse-Coupled Oscillators, , IEEE Transactions on Control of Network Systems, June, Volume 3, Issue 2, p.127-136, (2016)
- [150] On Asymptotic Synchronization of Interconnected Hybrid Systems with Applications, , Proceedings of the American Control Conference, p.2291--2296, (2017)
- [114] Interconnected Observers for Robust Decentralized Estimation with Performance Guarantees and Optimized Connectivity Graph, , IEEE Transactions on Control of Network Systems, Volume 3, Issue 1, p.1--11, (2016)
- [139] On Distributed Observers for Linear Time-invariant Systems Under Intermittent Information Constraints, , Proceedings of 10th IFAC Symposium on Nonlinear Control Systems, Issue NULL, p.654--659, (2016)
- [13] A hybrid control strategy for robust contact detection and force regulation, , Proc. 26th American Control Conference, Issue NULL, p.1461–1466, (2007)
- [14] {H}ybrid {S}ystems: stability and control, , Proc. 26th Chinese Control Conference, Issue NULL, (2007)
- [15] Hybrid systems techniques for convergence of solutions to switched systems, , Proc. 46th IEEE Conference on Decision and Control, Issue NULL, p.92–96, (2007)
- [33] Supervising a family of hybrid controllers for robust global asymptotic stabilization, , Proc. 47th IEEE Conference on Decision and Control, Issue NULL, p.4700–4705, (2008)
- [158] Analysis and Design of Event-triggered Control Algorithms using Hybrid Systems Tools, , Proceedings of the 2017 IEEE Conference on Decision and Control, p.6057-6062, (2017)
- [26] A Hybrid Control Framework for Robust Maneuver-based motion planning, , Proc. 27th American Control Conference, Issue NULL, p.2254–2259, (2008)
- [25] Robust global swing-up of the pendubot via hybrid control, , Proc. 27th American Control Conference, Issue NULL, p.1424–1429, (2008)
- [17] A hybrid systems approach to trajectory tracking control for juggling systems, , Proc. 46th IEEE Conference on Decision and Control, Issue NULL, New Orleans, LA, p.5282–5287, (2007)
- [49] Synergistic {L}yapunov functions and backstepping hybrid feedbacks, , Proc. 30th American Control Conference, Issue NULL, p.3203–3208, (2011)
- [54] Further results on synergistic {L}yapunov functions and hybrid feedback design through backstepping, , Proc. Joint Conference on Decision and Control and European Control Conference, Issue NULL, p.7428–7433, (2011)
- [135] Robust Asymptotic Stabilization of Hybrid Systems using Control Lyapunov Functions, , Proceedings of the 19th International Conference on Hybrid Systems: Computation and Control, April, p.235--244 , (2016)
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- [141] Results on invariance-based feedback control for hybrid dynamical systems, , Proceedings of the 55th IEEE Conference on Decision and Control, December, p.622--627, (2016)