Process Design, Integration, and Intensification
| dc.contributor.author | Foo, Dominic | * |
| dc.contributor.author | El-Halwagi, Mahmoud | * |
| dc.date.accessioned | 2021-02-12T00:01:10Z | |
| dc.date.available | 2021-02-12T00:01:10Z | |
| dc.date.issued | 2019 | * |
| dc.date.submitted | 2019-06-26 08:44:06 | * |
| dc.identifier | 33662 | * |
| dc.identifier.uri | https://directory.doabooks.org/handle/20.500.12854/57067 | |
| dc.description.abstract | With the growing emphasis on enhancing the sustainability and efficiency of industrial plants, process integration and intensification are gaining additional interest throughout the chemical engineering community. Some of the hallmarks of process integration and intensification include a holistic perspective in design, and the enhancement of material and energy intensity. The techniques are applicable for individual unit operations, multiple units, a whole industrial facility, or even a cluster of industrial plants. This book aims to cover recent advances in the development and application of process integration and intensification. Specific applications are reported for hydraulic fracturing, palm oil milling processes, desalination, reactive distillation, reaction network, adsorption processes, herbal medicine extraction, as well as process control. | * |
| dc.language | English | * |
| dc.subject | TA1-2040 | * |
| dc.subject | T1-995 | * |
| dc.subject.classification | thema EDItEUR::T Technology, Engineering, Agriculture, Industrial processes::TB Technology: general issues::TBX History of engineering and technology | en_US |
| dc.subject.other | input shaping | * |
| dc.subject.other | n/a | * |
| dc.subject.other | integrating | * |
| dc.subject.other | flexibility index | * |
| dc.subject.other | breakthrough | * |
| dc.subject.other | mixing | * |
| dc.subject.other | membrane distillation | * |
| dc.subject.other | regulatory | * |
| dc.subject.other | utilisation index | * |
| dc.subject.other | experimental | * |
| dc.subject.other | underdamped | * |
| dc.subject.other | PMPS particles | * |
| dc.subject.other | EDCs | * |
| dc.subject.other | phytomedicines | * |
| dc.subject.other | natural products | * |
| dc.subject.other | reactive distillation | * |
| dc.subject.other | optimisation | * |
| dc.subject.other | optimization | * |
| dc.subject.other | multiple steady state | * |
| dc.subject.other | steady state simulation | * |
| dc.subject.other | design | * |
| dc.subject.other | CFD-simulation | * |
| dc.subject.other | manufacturing | * |
| dc.subject.other | compartmental modeling | * |
| dc.subject.other | energy | * |
| dc.subject.other | surrogate-based optimization | * |
| dc.subject.other | adsorption | * |
| dc.subject.other | feasible operating range analysis | * |
| dc.subject.other | model order reduction | * |
| dc.subject.other | competing reaction system | * |
| dc.subject.other | desalination | * |
| dc.subject.other | extraction | * |
| dc.subject.other | water | * |
| dc.subject.other | mathematical programming | * |
| dc.subject.other | graphical approach | * |
| dc.subject.other | hydraulic fracturing | * |
| dc.subject.other | unstable | * |
| dc.subject.other | humidification | * |
| dc.subject.other | reaction conversion | * |
| dc.subject.other | dehumidification | * |
| dc.subject.other | TAME synthesis | * |
| dc.subject.other | fixed-bed column | * |
| dc.subject.other | predictive control | * |
| dc.title | Process Design, Integration, and Intensification | * |
| dc.type | book | |
| oapen.identifier.doi | 10.3390/books978-3-03897-983-8 | * |
| oapen.relation.isPublishedBy | 46cabcaa-dd94-4bfe-87b4-55023c1b36d0 | * |
| oapen.relation.isbn | 9783038979821 | * |
| oapen.relation.isbn | 9783038979838 | * |
| oapen.pages | 188 | * |
| oapen.edition | 1st | * |
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