TY - JOUR
T1 - A hybrid shop-floor control system for food manufacturing
AU - Moreno-Lizaranzu, Manuel J.
AU - Wysk, Richard A.
AU - Hong, Joonki
AU - Prabhu, Vittaldas V.
N1 - Funding Information:
This project was partly supported by the Penn State Center for Food Manufacturing.
Funding Information:
Manuel Moreno-Lizaranzu is a Software Engineer in the Semiconductor Products Sector of Motorola Inc. in Austin, TX. He graduated with a Master's degree in Industrial Engineering from the Pennsylvania State University in 1998 with a fellowship from the Spanish Ministry of Science and Education. During that time. he was a Research Assistant for Dr. R. Wysk, Leonhard Chair in Engineering. He worked as an Assistant Professor at the University of Huelva (Spain) during 1995 and he obtained a Research Sufficiency degree from the University of Seville (Spain) in the same year. He has also worked as a programmer for the Andalusian Administration (Spain) during 1994. He earned a Bachelor's degree with Honors in Computer Science at the University of Seville (Spain) in 1993.
PY - 2001/3
Y1 - 2001/3
N2 - This paper describes research in the area of hybrid control using simulation including a suitable architecture and a test-bed developed for experimenting with hybrid manufacturing systems - that is, manufacturing systems containing both continuous and discrete processing activities. The paper builds on the RapidCIM control system developed at Penn State University and makes innovations in this work including, integrating continuous simulation and discrete event simulation into a message-based process control system. Simulation technology is extended to support real-time communication to access remote databases, and pass messages, which are used to control hardware equipment performing both continuous processes and discrete activities. This makes possible the development of a generic hybrid control capability. In RapidCIM, software is automatically generated to control and coordinate the physical system. This can substantially reduce the cost of developing and integrating such systems, and allows a detailed simulation to be used for both analysis as well as for control. An experimental research prototype of such a hybrid control system has been constructed for the Pennsylvania State University Creamery, in which unit processes and operational decisions are integrated.
AB - This paper describes research in the area of hybrid control using simulation including a suitable architecture and a test-bed developed for experimenting with hybrid manufacturing systems - that is, manufacturing systems containing both continuous and discrete processing activities. The paper builds on the RapidCIM control system developed at Penn State University and makes innovations in this work including, integrating continuous simulation and discrete event simulation into a message-based process control system. Simulation technology is extended to support real-time communication to access remote databases, and pass messages, which are used to control hardware equipment performing both continuous processes and discrete activities. This makes possible the development of a generic hybrid control capability. In RapidCIM, software is automatically generated to control and coordinate the physical system. This can substantially reduce the cost of developing and integrating such systems, and allows a detailed simulation to be used for both analysis as well as for control. An experimental research prototype of such a hybrid control system has been constructed for the Pennsylvania State University Creamery, in which unit processes and operational decisions are integrated.
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U2 - 10.1023/A:1007647331282
DO - 10.1023/A:1007647331282
M3 - Article
AN - SCOPUS:0035277336
SN - 0740-817X
VL - 33
SP - 193
EP - 202
JO - IIE Transactions (Institute of Industrial Engineers)
JF - IIE Transactions (Institute of Industrial Engineers)
IS - 3
ER -