Heat and mass exchanger model for hybrid heat integrated distillation systems (HHIDiS)

Mariusz Markowski , Sławomir Alabrudziński , Sandra Storczyk

Abstract

In this study, the concept and model of hybrid heat-integrated distillation system (HHIDiS), which have been signalized in our previous works, have been revisited in more details. Here, we have focused on modeling of a heat and mass exchanger (HME) unit which can be applied for heat-integrated thermal separation process. In this paper we would like to propose the design calculation procedure for a dedicated HME in an exemplary binary distillation HHIDiS unit. A design calculation method has been proposed taking into account all crucial thermal-flow phenomena and basic energy-saving aspects of HME operation. The calculation procedure is based on widely verified theories: 1)thermal resistance theory for heat transfer calculations, 2)the concept of theoretical tray for mass transfer, and 3)finite volume method for two-phase flow hydraulic calculations. Scalability of the proposed approach has been improved by employing a hybrid heat integrated distillation system (HHIDiS) consisting of a single classic rectifying and stripping units and one or multiple HMEs for separation of binary or multi-component mixtures respectively. Novel channel geometry has been proposed to induce necessary two-phase flow pattern. One of benefits of presented HME and HHIDiS its reduced apparatus height and no requirements for dedicated equipment (e.g. compressors).
Author Mariusz Markowski (FCEMP / IMEn)
Mariusz Markowski,,
- Institute of Mechanical Engineering
, Sławomir Alabrudziński (FCEMP / IMEn)
Sławomir Alabrudziński,,
- Institute of Mechanical Engineering
, Sandra Storczyk
Sandra Storczyk,,
-
Journal seriesApplied Thermal Engineering, ISSN 1359-4311
Issue year2020
Vol174
Pages115249
Keywords in EnglishHeat-integrated distillation, Heat and mass exchanger, Hybrid system, Thermal separation, Design calculations
ASJC Classification2209 Industrial and Manufacturing Engineering; 2102 Energy Engineering and Power Technology
DOIDOI:https://doi.org/10.1016/j.applthermaleng.2020.115249
URL http://www.sciencedirect.com/science/article/pii/S1359431119376045
Score (nominal)140
Score sourcejournalList
ScoreMinisterial score = 140.0, 10-09-2020, ArticleFromJournal
Publication indicators Scopus Citations = 0; WoS Citations = 0; Scopus SNIP (Source Normalised Impact per Paper): 2018 = 1.731; WoS Impact Factor: 2018 = 4.026 (2) - 2018=4.022 (5)
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