243. Parametric Linear Programming Interdiction
Invited abstract in session WC-4: Bilevel and Mixed-Integer Nonlinear Programming, stream Continuous and Global Optimization.
Wednesday, 13:30-15:00Room: H6
Authors (first author is the speaker)
| 1. | Simon Wirschem
|
| Mathematics, RPTU Kaiserslautern | |
| 2. | Alexey Bochkarev
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| Department of Mathematics, RPTU Kaiserslautern-Landau | |
| 3. | Stefan Ruzika
|
| Mathematik, Rheinland-Pfälzische Technische Universität Kaiserslautern |
Abstract
We study the parametric linear programming interdiction problem, where an interdictor seeks to deteriorate the optimal objective value of a linear program using limited resources (budget).
Interdiction problems are well-suited for detecting weak spots and to measure a system's robustness against worst-case influences.
While most existing work on interdiction focuses on networks, we consider a more general setting where the follower solves an arbitrary linear program.
In our formulation, the leader's budget acts as a parameter, allowing us to examine how the impact of interdiction evolves as this budget varies.
This parametric perspective reflects a natural robustness analysis: any fixed budget represents an arbitrary threat level, whereas understanding the problem across a range of budgets offers deeper insight into the system’s vulnerability and stability.
We show that the nonparametric version of this can be reformulated as a bilinear program, a well-studied class in the literature and which is known to be NP-hard.
The computational complexity also carries over to our nonparametric sub-problem.
Besides discussing the structure, we propose an exact branch-and-bound procedure along with numerical results.
Our work enables the application of parametric worst-case analysis to the wide class of linear models, which holds potential applications in robustness, security, and adversarial optimization.
Keywords
- Global Optimization
- Continuous Optimization
- Multi-Objective Programming
Status: accepted
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