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Advanced Energy Saving and its Applications in Industry
Kategorie Beschreibung
036aXA-GB
037beng
077a392104598 Buchausg. u.d.T.: ‡Matsuda, Kazuo: Advanced energy saving and its applications in industry
087q978-1-4471-4206-5
100 Matsuda, Kazuo
104bKansha, Yasuki
108bFushimi, Chihiro
112bTsutsumi, Atsushi
116bKishimoto, Akira
331 Advanced Energy Saving and its Applications in Industry
410 London
412 Springer
425 2013
425a2013
433 Online-Ressource (XI, 75 p. 35 illus, digital)
451bSpringerBriefs in Applied Sciences and Technology
501 Description based upon print version of record
517 Advanced Energy Saving and its Applications in Industry; Preface; Contents; Part I Process System; 1 Energy Saving Technology; Abstract; 1.1…Pinch Technology; 1.2…Self-Heat Recuperation Technology; 1.2.1 Process Design Methodology; 1.2.2 Design Methodology for Separation Process; 1.2.3 Summary; 1.3…Conclusion; References; Part II Application of Self-Heat Recuperation Technology; 2 Reaction Section; Abstract; 2.1…Introduction; 2.2…Process Flow Description; 2.3…Applying Self-Heat Recuperation Technology; 2.4…Prospect of Applying Self-Heat Recuperation Technology. 6 Utility SystemAbstract; 6.1…Introduction; 6.2…Area-Wide Pinch Technology; 6.2.1 Total Site Profile Analysis; 6.2.2 R-curve Analysis; 6.2.3 Work Procedure; 6.3…Application of Area-Wide Pinch Technology; 6.3.1 Mizushima and Chiba Industrial Areas; 6.3.2 Results; 6.3.2.1 Total Site Profile Analysis; 6.3.2.2 R-curve Analysis; 6.3.2.3 Comparison of Mizushima and Chiba Industrial Areas; 6.4…Area-Wide Integration Projects for Energy Saving; 6.4.1 Energy Sharing System; 6.4.2 Heat Sharing System; 6.4.3 Low Heat Power Generation System; 6.5…Discussion; References;. 2.5…Mass and Heat Balance Calculation2.5.1 Conventional Case; 2.5.2 Proposed Case; 2.6…Discussion; 2.7…Conclusion; References; 3 Distillation Section; Abstract; 3.1…Introduction; 3.2…Process Flow Description; 3.3…Study Basis; 3.4…Applying Self-Heat Recuperation Technology; 3.5…Prospect of Applying Self-Heat Recuperation Technology; 3.6…Mass and Heat Balance Calculation; 3.6.1 Conventional Case; 3.6.2 Proposed Case; 3.7…Discussion; 3.8…Conclusion; References; 4 Drying Section; Abstract; 4.1…Introduction; 4.2…Basic Concept of Drying Based on Self-Heat Recuperation Technology; 4.3…Drying Process. 4.4…Mass and Heat Balance Calculation of the Proposed Drying Process4.5…Primary Energy Consumption and CO2 Emission; 4.6…Conclusion; References; 5 Gas Separation Section; Abstract; 5.1…Introduction; 5.2…Cryogenic Air Separation (Distillation); 5.2.1 Conventional Cryogenic Air Separation Process; 5.2.2 Proposed Cryogenic Air Separation Process; 5.2.3 Mass and Heat Balance Calculation; 5.3…CO2 Absorption Process; 5.3.1 Conventional CO2 Absorption Process; 5.3.2 Proposed CO2 Absorption Process; 5.3.3 Mass and Heat Balance Calculation; 5.4…Conclusion; References; Part III Utility System
527 Buchausg. u.d.T.: ‡Matsuda, Kazuo: Advanced energy saving and its applications in industry
540aISBN 978-1-4471-4207-2
540aISBN 1-283-62208-4 ebk
540aISBN 978-1-283-62208-0 MyiLibrary
700 |THX
700 |SCI024000
700b|621.042
700c|TJ807-830
750 The conventional approach for energy saving in a process system is to maximize heat recovery without changing any process conditions by using pinch technology. "Self-heat recuperation technology” was developed to achieve further energy saving in the process system by eliminating the necessity for any external heat input, such as firing or imported steam. Advanced Energy Saving and its Applications in Industry introduces the concept of self-heat recuperation and the application of such technology to a wide range of processes from heavy chemical complexes to other processes such as drying and gas separation processes, which require heating and cooling during operation. Conventional energy saving items in a utility system are applied and implemented based on a single site approach, however, when looking at heavy chemical complexes, it was apparent that the low-grade heat discharged as waste from a refinery could also be used in an adjacent petrochemical plant. There could therefore be a large energy saving potential by utilizing the surplus heat across the sites. Advanced Energy Saving and its Applications in Industry assesses conventional approaches to industrial energy saving and explains and outlines new methods to provide even greater energy saving potential. Advanced Energy Saving and its Applications in Industry provides a key resource and research tool for all those involved in developing the energy efficiency of industrial processes. Researchers, industry professionals and even students with an interest in green engineering will find the summaries of the conventional and suggested new methods useful when attempting to advance further development within this field.
902s 208908986 Energieeinsparung
902s 208967893 Industrie
902s 20995860X Pincheffekt
907s 209152060 Wärmerückgewinnung
012 373364083
081 Matsuda, Kazuo: Advanced Energy Saving and its Applications in Industry
100 Springer E-Book
125aElektronischer Volltext - Campuslizenz
655e$uhttp://dx.doi.org/10.1007/978-1-4471-4207-2
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