Scholarworks@UAEU - Thesis/ Dissertation Defenses: CONTROL SYSTEM PROPERTIES OF DISCRETE-TIME LINEAR SWITCHED SYSTEMS WITH APPLICATION TO EPIDEMIC MODELS
 

Date of Defense

10-4-2025 3:00 PM

Location

F1-2007

Document Type

Thesis Defense

Degree Name

Master of Science in Mathematics

College

COS

Department

Mathematical Sciences

First Advisor

Prof. Abdessamad Tridane

Keywords

Epidemic models, Stability, Controllability, Stabilizability, Linear systems, Disease transmission, Switching dynamics, Control theory, Mathematical modeling

Abstract

This thesis studies discrete-time linear switched systems and their application to epidemic models. It focuses on three key properties: stability, controllability, and stabilizability. Stability ensures systems return to equilibrium, controllability examines reaching desired states, and stabilizability determines if unstable systems can be controlled. Using mathematical tools and examples, the research shows how switching between disease transmission modes, like quarantine or vaccination, can help control outbreaks. The work highlights the importance of discrete-time models in epidemiology, as real-world data is often collected at discrete intervals, and provides a foundation for future research on more complex epidemic models.

Included in

Mathematics Commons

Share

COinS
 
Apr 10th, 3:00 PM

CONTROL SYSTEM PROPERTIES OF DISCRETE-TIME LINEAR SWITCHED SYSTEMS WITH APPLICATION TO EPIDEMIC MODELS

F1-2007

This thesis studies discrete-time linear switched systems and their application to epidemic models. It focuses on three key properties: stability, controllability, and stabilizability. Stability ensures systems return to equilibrium, controllability examines reaching desired states, and stabilizability determines if unstable systems can be controlled. Using mathematical tools and examples, the research shows how switching between disease transmission modes, like quarantine or vaccination, can help control outbreaks. The work highlights the importance of discrete-time models in epidemiology, as real-world data is often collected at discrete intervals, and provides a foundation for future research on more complex epidemic models.