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W-C Yeh (2008)
A Greedy Branch-and-Bound Inclusion-Exclusion Algorithm for Calculating the Exact Multi-State Network ReliabilityIEEE Transactions on Reliability, 57
Y-K Lin (2019)
Reliability of a stochastic intermodal logistics network under spoilage and time considerationsAnnals of Operations Research, 277
G Bai (2015)
Ordering Heuristics for Reliability Evaluation of Multistate NetworksIEEE Transactions on Reliability, 64
X Zhou (2023)
An Improved Method to Search All Minimal Paths in NetworksIEEE Transactions on Reliability, 72
Y-K Lin (2022)
An efficient searching method for minimal path vectors in multi-state networksAnnals of Operations Research, 312
BS Abdulraheem (2016)
International Journal of Applied Engineering Research, 11
C-F Huang (2021)
Reliability Evaluation of a Cloud–Fog Computing Network Considering Transmission MechanismsIEEE Transactions on Reliability, 71
G Bai (2016)
An improved algorithm for finding all minimal paths in a networkReliability Engineering & System Safety, 150
JP Lopes (2007)
Integrating distributed generation into electric power systems: A review of drivers, challenges and opportunitiesElectric Power Systems Research, 77
L Fiondella (2015)
System Performance and Reliability Modeling of a Stochastic-Flow Production Network: A Confidence-Based ApproachIEEE Transactions on Systems, Man, and Cybernetics: Systems, 45
TL Duong (2021)
A newly effective method to maximize power loss reduction in distribution networks with highly penetrated distributed generationsAin Shams Engineering Journal, 12
Y-F Niu (2024)
A reliability index to measure multi-state flow network considering capacity restoration level and maintenance costReliability Engineering & System Safety, 250
P-C Chang (2022)
Reliability evaluation and big data analytics architecture for a stochastic flow network with time attributeAnnals of Operations Research, 311
ME El-Hawary (2014)
The Smart Grid—State-of-the-art and Future TrendsElectric Power Components and Systems, 42
M Forghani-elahabad (2019)
Reliability evaluation of a stochastic-flow network in terms of minimal paths with budget constraintIISE Transactions, 51
C-F Huang (2016)
Routing scheme of a multi-state computer network employing a retransmission mechanism within a time thresholdInformation Sciences, 340
M El Khadiri (2016)
An efficient alternative to the exact evaluation of the quickest path flow network reliability problemComputers & Operations Research, 76
H Yuan (2017)
Modeling of Grid-Connected VSCs for Power System Small-Signal Stability Analysis in DC-Link Voltage Control TimescaleIEEE Transactions on Power Systems, 32
H Ruiwen (2017)
IEEE Transactions on Smart Grid, 9
B Sultana (2016)
Review on reliability improvement and power loss reduction in distribution system via network reconfigurationRenewable and Sustainable Energy Reviews, 66
Z Ullah (2022)
Advanced energy management strategy for microgrid using real-time monitoring interfaceJournal of Energy Storage, 52
C-F Huang (2019)
Evaluation of system reliability for a stochastic delivery-flow distribution network with inventoryAnnals of Operations Research, 277
P-C Chang (2019)
Reliability estimation for a stochastic production system with finite buffer storage by a simulation approachAnnals of Operations Research, 277
J Shair (2021)
Power system stability issues, classifications and research prospects in the context of high-penetration of renewables and power electronicsRenewable and Sustainable Energy Reviews, 145
M Forghani-elahabad (2022)
An improved algorithm for reliability evaluation of flow networksReliability Engineering & System Safety, 221
X Wang (2018)
Harmonic Stability in Power Electronic-Based Power Systems: Concept, Modeling, and AnalysisIEEE Transactions on Smart Grid, 10
Y-F Niu (2023)
Reliability assessment of a stochastic-flow distribution network with carbon emission constraintReliability Engineering & System Safety, 230
D-H Huang (2022)
A multi-state network to evaluate network reliability with maximal and minimal capacity vectors by using recursive sum of disjoint productsExpert Systems with Applications, 193
W-C Yeh (2015)
An Improved Sum-of-Disjoint-Products Technique for Symbolic Multi-State Flow Network ReliabilityIEEE Transactions on Reliability, 64
N Hatziargyriou (2020)
Definition and Classification of Power System Stability Revisited & ExtendedIEEE Transactions on Power Systems, 36
W Tang (2018)
Modeling of DFIG-Based Wind Turbine for Power System Transient Response Analysis in Rotor Speed Control TimescaleIEEE Transactions on Power Systems, 33
C-C Jane (2001)
A sum of disjoint products algorithm for reliability evaluation of flow networksEuropean Journal of Operational Research, 131
W-C Yeh (2023)
Novel recursive inclusion-exclusion technology based on BAT and MPs for heterogeneous-arc binary-state network reliability problemsReliability Engineering & System Safety, 231
C-C Jane (2017)
Algorithms for the quickest time distribution of dynamic stochastic-flow networksRAIRO-Operations Research, 51
Power systems are essential for sustaining modern economies and advancing technology. The reliability of these systems influences all aspects of daily life, including household operations, critical communications, and emergency services. Power supply involves processes, including transmission and distribution through multiple power transfer stations. Consequently, a power system can be modeled as a Stochastic Flow Power Network (SFPN), where each link operates with stochastic capacities. The transmission efficiency for the end user is significantly affected by the loss rate in each link. This paper explores network reliability for SFPN, which is defined as the probability that the power system can transmit sufficient demand to satisfy the end user under loss rates. To analyze the SFPN model under loss rates, the power system is segmented into two or more subnetworks around a series of power transfer stations. To reduce the complexity of flow generation under loss rates, a concept of necessary demand is proposed to obtain flow and capacity vectors for each subnetwork efficiently. An algorithm is developed to calculate subnetwork reliability, determining the overall network reliability for the SFPN. This analysis gives managers a clearer understanding of practical power transmission performance and enables them to prioritize improvements in less reliable subnetworks to enhance overall system performance.
Annals of Operations Research – Springer Journals
Published: Jun 17, 2025
Keywords: Stochastic flow power network (SFPN); Loss rate; Network reliability; Necessary demand; Subnetwork
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