Date of Award
12-2022
Document Type
Dissertation
Degree Name
Doctor of Philosophy (PhD)
Department
Electrical and Computer Engineering (Holcomb Dept. of)
Committee Chair/Advisor
Christopher Edrington
Committee Member
Zheyu Zhang
Committee Member
Robert Prucka
Committee Member
Johan Enslin
Committee Member
Gokhan Ozkan
Abstract
The role of intuition and human preferences are often overlooked in autonomous control of power and energy systems. However, the growing operational diversity of many systems such as microgrids, electric/hybrid-electric vehicles and maritime vessels has created a need for more flexible control and optimization methods. In order to develop such flexible control methods, the role of human decision makers and their desired performance metrics must be studied in power and energy systems. This dissertation investigates the concept of multi-criteria decision making as a gateway to integrate human decision makers and their opinions into complex mathematical control laws. There are two major steps this research takes to algorithmically integrate human preferences into control environments:
- MetaMetric (MM) performance benchmark: considering the interrelations of mathematical and psychological convergence, and the potential conflict of opinion between the control designer and end-user, a novel holistic performance benchmark, denoted as MM, is developed to evaluate control performance in real-time. MM uses sensor measurements and implicit human opinions to construct a unique criterion that benchmarks the system's performance characteristics.
- MM decision support system (DSS): the concept of MM is incorporated into multi-objective evolutionary optimization algorithms as their DSS. The DSS's role is to guide and sort the optimization decisions such that they reflect the best outcome desired by the human decision-maker and mathematical considerations.
A diverse set of case studies including a ship power system, a terrestrial power system, and a vehicular traction system are used to validate the approaches proposed in this work. Additionally, the MM DSS is designed in a modular way such that it is not specific to any underlying evolutionary optimization algorithm.
Recommended Citation
Ramezani Badr, Payam, "Multi-Criteria Performance Evaluation and Control in Power and Energy Systems" (2022). All Dissertations. 3212.
https://open.clemson.edu/all_dissertations/3212
Included in
Controls and Control Theory Commons, Electrical and Electronics Commons, Power and Energy Commons