DocumentCode :
2114308
Title :
Second-order properties of families of discrete event systems
Author :
Rajan, Rajendran ; Agrawal, Rajeev
Author_Institution :
Dept. of Electr. & Comput. Eng., Wisconsin Univ., Madison, WI, USA
fYear :
1993
fDate :
15-17 Dec 1993
Firstpage :
3624
Abstract :
This paper deals with the comparison of the event occurrence processes of one family of discrete event systems (DES) with those of another. The DES we consider include certain timed Petri-nets and generalized semi-Markov schemes, though we study them in a general framework that ignores the underlying state transition mechanism. First, we obtain two results on comparing a single DES with a family of others. As a consequence of these two results we prove the “near” concavity of the throughput of min-linearly constrained DES in various system parameters. This not only covers various known concavity results for tandems, cycles, and fork-join networks of stations with general blocking and starvation, but also establishes new ones for certain classes of networks which involve splitting and merging of traffic streams. Finally, we motivate some preliminary work on establishing comparisons between families of discrete event systems with a novel proof of the optimality of the round-robin policy in routing jobs to homogeneous queues in parallel
Keywords :
Markov processes; Petri nets; formal languages; optimisation; production control; queueing theory; cycles; discrete event systems; fork-join networks; generalized semi-Markov process; homogeneous queues; job routing; optimality; round-robin policy; second-order properties; tandems; throughput concavity; timed Petri-nets; Argon; Discrete event systems; Merging; Routing; Telecommunication traffic; Terminology; Throughput; Traffic control;
fLanguage :
English
Publisher :
ieee
Conference_Titel :
Decision and Control, 1993., Proceedings of the 32nd IEEE Conference on
Conference_Location :
San Antonio, TX
Print_ISBN :
0-7803-1298-8
Type :
conf
DOI :
10.1109/CDC.1993.325896
Filename :
325896
Link To Document :
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