Date of Award
9-1-2018
Document Type
Dissertation
Degree Name
Doctor of Philosophy (PhD)
Department
Department of Electrical and Computer Engineering
First Advisor
Brian J. Lunday, PhD.
Abstract
The U.S. military's ability to project military force is being challenged. This research develops and demonstrates the application of three respective sensor location, relocation, and network intrusion models to provide the mathematical basis for the strategic engagement of emerging technologically advanced, highly-mobile, Integrated Air Defense Systems. First, we propose a bilevel mathematical programming model for locating a heterogeneous set of sensors to maximize the minimum exposure of an intruder's penetration path through a defended region. Next, we formulate a multi-objective, bilevel optimization model to relocate surviving sensors to maximize an intruder's minimal expected exposure to traverse a defended border region, minimize the maximum sensor relocation time, and minimize the total number of sensors requiring relocation. Lastly, we present a trilevel, attacker-defender-attacker formulation for the heterogeneous sensor network intrusion problem to optimally incapacitate a subset of the defender's sensors and degrade a subset of the defender's network to ultimately determine the attacker's optimal penetration path through a defended network.
AFIT Designator
AFIT-ENS-DS-18-S-035
DTIC Accession Number
AD1063233
Recommended Citation
Lessin, Aaron M., "Multi-Level Multi-Objective Programming and Optimization for Integrated Air Defense System Disruption" (2018). Theses and Dissertations. 1917.
https://scholar.afit.edu/etd/1917