A methodology is developed for analysis of Combat Logistics Force performance in wartime conditions with stochastic demand. The imposition of randonmess on consumption, transit, and commodity transfer rates is intended to faithfully represent the dynamic environment in which logistics ships operate. An object oriented computer simulation is used to generate data for measuring the days of supply onhand for naval forces in various scenarios. This data is then used to construct cumulative probability distributions with which to compare the ability of different Combat Logistics Force configurations to sustain these naval forces. Analysis results quantity the impact of employing multi-product station ships with carrier battle groups in terms of the probability of these groups falling below some percentage of capacity measured in days of supply. The impact of additional shuttle ships is demonstrated, as well as the consequence of withdrawing shuttle ship operations from an advance logistics support base. Finally, the simulation is used to find a Combat Logistics Force configuration which minimizes the probability of naval forces exhausting their supplies of propulsion fuel, aviation fuel, provisions, and non-specific ordnance. In these experiments, unclassified approximations of the North Korea and Baltic major regional contingencies are modelled and run independently.
Combat Logistics Force Sizing to Ensure Endurance Reliability
1995
57 pages
Report
Keine Angabe
Englisch
Marine Engineering , Logistics Military Facilities & Supplies , Logistics support , Endurance(General) , Naval vessels(Support) , Computerized simulation , North korea , Methodology , Combat effectiveness , Quantity , Probability distribution functions , Rates , Propulsion systems , Reliability , Configurations , Logistics , Aircraft carriers , Naval warfare , Transfer , Supplies , Ordnance , Wartime , Battle group level organizations , Replenishment , Baltic countries , Operational logistics , Station ships , Clf(Combat logistics force)