Date of Graduation
5-2025
Document Type
Thesis
Degree Name
Master of Science in Industrial Engineering (MSIE)
Degree Level
Graduate
Department
Industrial Engineering
Advisor/Mentor
Sullivan, Kelly M.
Committee Member
Liao, Haitao
Second Committee Member
Curry, Robert
Keywords
Monte-Carlo Simulation; Multiple Component Classes; Network Reliability; Survival Signature; Two-terminal Networks
Abstract
This research develops an efficient approach to estimating survival signatures for two-terminal networks with more than two classes of components. Recently, the survival signature has gained substantial attention in the literature on network reliability estimation due to its unique separability property, which enables passing the network topology information independent of the failure distribution of the components. Following recent results from the literature, estimating the two-terminal survival signature by Monte Carlo simulation entails solving a multi-objective maximum capacity path problem on a two-terminal network in each replication. We adapt a multi-objective Dijkstra’s algorithm from the literature to construct the set of non-dominated paths solving the multi-objective maximum capacity path problem for each replication of the Monte-Carlo simulation. We have carried out experiments on random two-terminal networks and grid networks with three, four, and five classes of components. In these experiments, our version of the multi-objective Dijkstra’s algorithm was compared against four benchmark algorithms and an improvement technique that prunes some paths to be explored in the multi-objective Dijkstra’s algorithm setting lower bounds on capacities. We compared the run-time of our approach with all these benchmark approaches and found that the multi-objective Dijkstra’s algorithm performs significantly better in most instances.
Citation
Rahman, M. (2025). Survival Signature Estimation Using Optimization and Monte-Carlo Simulation for K ≥ 3 Classes of Nodes on Two-Terminal Networks. Graduate Theses and Dissertations Retrieved from https://scholarworks.uark.edu/etd/5619