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Showing papers on "Single-machine scheduling published in 1969"


Journal ArticleDOI
TL;DR: It is proved that the properties of the shortest processing time rule and the due-date rule which are known for the deterministic situation also hold in the probabilistic environment when they are suitably, and reasonably, refined for this context.
Abstract: A single machine scheduling problem in which both the processing times and due-dates of the jobs awaiting servicing are random variables is analyzed It is proved that the properties of the shortest processing time rule and the due-date rule which are known for the deterministic situation also hold in the probabilistic environment when they are suitably, and reasonably, refined for this context

25 citations


Journal ArticleDOI
TL;DR: A whole new class of optimizers is presented, or solution concepts, which generalizes most of the well-known optimizers to date and is characterized as optimal solutions to specially constructed combinatoric programming problems, including optimizers which are integer in character.
Abstract: Many people have proposed objective functions, or optimizers, which guide one to schedule a multi-product single stage production system. In this paper we present a whole new class of optimizers, or solution concepts, which generalizes most of the well-known optimizers to date. Our combinatoric formulations are related to a new class of solution concepts for n-person games developed by Charnes-Kortanek [Charnes, A., K. O. Kortanek. 1967. On a class of convex and non-archimedean solution concepts for n-person games. Technical Report No. 22, Department of Operations Research, Cornell University, and Systems Research Memo No. 172, Northwestern University, Evanston, Illinois, March.]. By constructing a combinatoric linear programming problem, where some of the variables are determined by an arbitrary set of permutations, we encompass classical optimizers in one formulation including such concepts as (1) minimizing maximum lateness or tardiness, (2) maximizing minimum lateness or tardiness, (3) minimizing mean...

6 citations