| Article ID: | iaor1995299 |
| Country: | United States |
| Volume: | 41 |
| Issue: | 6 |
| Start Page Number: | 1104 |
| End Page Number: | 1115 |
| Publication Date: | Nov 1993 |
| Journal: | Operations Research |
| Authors: | Yao David D., Chen Hong |
| Keywords: | programming: linear, scheduling, queues: applications |
A fluid network is a deterministic network model in which dynamic continuous flows are circulated and processed among a set of stations. A fluid network often describes the asymptotic behavior of a stochastic queueing network via functional strong law of large numbers. The authors study the dynamic scheduling of multiple classes of fluid traffic in such a network. An algorithm is developed that systematically solves the dynamic scheduling problem by solving a sequence of linear programs. It generates a policy, in the form of dynamic capacity allocation at each station (among all fluid classes), that consists of a finite set of linear ‘pieces’ over the entire time horizon. In a single-station, or equivalently, single-server, network, this solution procedure recovers the priority index set that is optimal for the corresponding discrete queueing model, generally known as Klimov’s problem.