DocumentCode
3050337
Title
Multi-generation enhanced power quality design for semiconductor manufacturing facilities
Author
Walsh, David ; LeGoy, Philip R.
Author_Institution
Ind. Design Corp., Dublin, Ireland
Volume
3
fYear
2001
fDate
2001
Firstpage
1181
Abstract
The unique power quality constraints of chip industry manufacturing facilities, makes multi-generation an attractive power source for these plants. Multi-generation power is defined as internal combustion or gas turbine electric power generation combined with heat exchanger technology to reclaim waste heat from combustion for heating and cooling. This paper presents a new concept in multi-generation that combines the versatility, expandability and power quality requirements of the microchip fabrication facility (Fab) with the cost saving plus environmental benefits of multi-generation. Fab high power quality, versatility and expandability is commonly achieved with N+1 design. N+1 is an expression for the use of N number of electrical devices needed by a power system plus one device for redundancy (i.e. transformer, generator, etc.). This paper looks at the multi-generation and N+1 design concept from a complete system point of view
Keywords
diesel-electric power stations; electronics industry; gas turbine power stations; heat exchangers; industrial power systems; manufacturing industries; power supply quality; N+1 design concept; chip industry manufacturing facilities; combustion turbine electric power generation; cost saving; environmental benefits; gas turbine electric power generation; heat exchanger technology; multigeneration enhanced power quality design; power source; power system; semiconductor manufacturing facilities; waste heat reclamation; Combustion; Cooling; Fabrication; Manufacturing industries; Power generation; Power quality; Production facilities; Trigeneration; Turbines; Waste heat;
fLanguage
English
Publisher
ieee
Conference_Titel
Power Engineering Society Winter Meeting, 2001. IEEE
Conference_Location
Columbus, OH
Print_ISBN
0-7803-6672-7
Type
conf
DOI
10.1109/PESW.2001.917242
Filename
917242
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