Abstract
Facilities with superconducting magnets require cooling capacity at different temperature levels and of different types (refrigeration or liquefaction). The bigger the demand for refrigeration, the more investment for improved efficiency of the refrigeration plant is justified and desired. Refrigeration cycles are built with discrete components like expansion turbines, cold compressors, etc. Therefore the exergetic efficiency for producing refrigeration on a distinct temperature level is significantly dependent on the 'thermodynamic arrangement' of these components. Among a variety of possibilities, limited by the range of applicability of the components, one has to choose the best design for higher efficiency on every level. Some influences are being quantified and aspects are given for a optimal integration of the refrigerator into the whole cooling system. (orig.).
Loehlein, K;
[1]
Fukano, T
[2]
- Sulzer Cryogenics, Winterthur (Switzerland)
- Nippon Sanso Corp., Kawasaki (Japan)
Citation Formats
Loehlein, K, and Fukano, T.
Exergy analysis of refrigerators for large scale cooling systems.
Netherlands: N. p.,
1993.
Web.
Loehlein, K, & Fukano, T.
Exergy analysis of refrigerators for large scale cooling systems.
Netherlands.
Loehlein, K, and Fukano, T.
1993.
"Exergy analysis of refrigerators for large scale cooling systems."
Netherlands.
@misc{etde_6565582,
title = {Exergy analysis of refrigerators for large scale cooling systems}
author = {Loehlein, K, and Fukano, T}
abstractNote = {Facilities with superconducting magnets require cooling capacity at different temperature levels and of different types (refrigeration or liquefaction). The bigger the demand for refrigeration, the more investment for improved efficiency of the refrigeration plant is justified and desired. Refrigeration cycles are built with discrete components like expansion turbines, cold compressors, etc. Therefore the exergetic efficiency for producing refrigeration on a distinct temperature level is significantly dependent on the 'thermodynamic arrangement' of these components. Among a variety of possibilities, limited by the range of applicability of the components, one has to choose the best design for higher efficiency on every level. Some influences are being quantified and aspects are given for a optimal integration of the refrigerator into the whole cooling system. (orig.).}
journal = []
place = {Netherlands}
year = {1993}
month = {Jan}
}
title = {Exergy analysis of refrigerators for large scale cooling systems}
author = {Loehlein, K, and Fukano, T}
abstractNote = {Facilities with superconducting magnets require cooling capacity at different temperature levels and of different types (refrigeration or liquefaction). The bigger the demand for refrigeration, the more investment for improved efficiency of the refrigeration plant is justified and desired. Refrigeration cycles are built with discrete components like expansion turbines, cold compressors, etc. Therefore the exergetic efficiency for producing refrigeration on a distinct temperature level is significantly dependent on the 'thermodynamic arrangement' of these components. Among a variety of possibilities, limited by the range of applicability of the components, one has to choose the best design for higher efficiency on every level. Some influences are being quantified and aspects are given for a optimal integration of the refrigerator into the whole cooling system. (orig.).}
journal = []
place = {Netherlands}
year = {1993}
month = {Jan}
}