Tomato-Processing By-Product Combustion: Thermal and Kinetic Analyses

This paper is part of a sustainable development approach, the aim being to develop a thermochemical energy recovery path while reducing the amount of tomato waste issued from agro-industrial units. The thermal process may contribute to an environmentally friendly management and help tomato processin...

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Main Authors: Besma Khiari, Marwa Moussaoui, Mejdi Jeguirim
Format: Article
Language:English
Published: MDPI AG 2019-02-01
Series:Materials
Subjects:
Online Access:https://www.mdpi.com/1996-1944/12/4/553
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spelling doaj-3e148bf0e48243babbb8c307122c80c52020-11-25T01:51:07ZengMDPI AGMaterials1996-19442019-02-0112455310.3390/ma12040553ma12040553Tomato-Processing By-Product Combustion: Thermal and Kinetic AnalysesBesma Khiari0Marwa Moussaoui1Mejdi Jeguirim2Industrial Engineering Department, National School of Engineering of Carthage, 45, Avenue des Entrepreneurs, Charguia 2, Tunis 1002, TunisiaIndustrial Engineering Department, National School of Engineering of Carthage, 45, Avenue des Entrepreneurs, Charguia 2, Tunis 1002, TunisiaInstitut de Science des Matériaux de Mulhouse (IS2M), Université de Strasbourg, Université de Haute Alsace, UMR CNRS 7361, Mulhouse CEDEX 68093, FranceThis paper is part of a sustainable development approach, the aim being to develop a thermochemical energy recovery path while reducing the amount of tomato waste issued from agro-industrial units. The thermal process may contribute to an environmentally friendly management and help tomato processing industries creating new economic profitable circuits in an increasingly competitive context. The adopted approach was to follow the operating conditions needed for a complete thermal degradation through a thermal and kinetic analyses. The results of the tomato waste characterization confirmed their suitability to a thermochemical processing with high volatiles and fixed carbon and interesting high heating values comparable to sawdust biomass. We were able to isolate of the decomposition domains and extract kinetic parameters. Three kinetic models were applied; Flynn⁻Wall⁻Ozawa (FWO) simulated the best the combustion process. Calculated curves were validated by the first order (n = 1) model except for the slow heating rate of 5 °C/min which was fitted by the contracted cylinder model. The conclusions of this paper could help in optimizing the combustion process in order to achieve high energy recovery from tomato residues. Obtained kinetic data would help in the design of combustion reactors.https://www.mdpi.com/1996-1944/12/4/553tomato wastekineticsthermal analysiscombustion
collection DOAJ
language English
format Article
sources DOAJ
author Besma Khiari
Marwa Moussaoui
Mejdi Jeguirim
spellingShingle Besma Khiari
Marwa Moussaoui
Mejdi Jeguirim
Tomato-Processing By-Product Combustion: Thermal and Kinetic Analyses
Materials
tomato waste
kinetics
thermal analysis
combustion
author_facet Besma Khiari
Marwa Moussaoui
Mejdi Jeguirim
author_sort Besma Khiari
title Tomato-Processing By-Product Combustion: Thermal and Kinetic Analyses
title_short Tomato-Processing By-Product Combustion: Thermal and Kinetic Analyses
title_full Tomato-Processing By-Product Combustion: Thermal and Kinetic Analyses
title_fullStr Tomato-Processing By-Product Combustion: Thermal and Kinetic Analyses
title_full_unstemmed Tomato-Processing By-Product Combustion: Thermal and Kinetic Analyses
title_sort tomato-processing by-product combustion: thermal and kinetic analyses
publisher MDPI AG
series Materials
issn 1996-1944
publishDate 2019-02-01
description This paper is part of a sustainable development approach, the aim being to develop a thermochemical energy recovery path while reducing the amount of tomato waste issued from agro-industrial units. The thermal process may contribute to an environmentally friendly management and help tomato processing industries creating new economic profitable circuits in an increasingly competitive context. The adopted approach was to follow the operating conditions needed for a complete thermal degradation through a thermal and kinetic analyses. The results of the tomato waste characterization confirmed their suitability to a thermochemical processing with high volatiles and fixed carbon and interesting high heating values comparable to sawdust biomass. We were able to isolate of the decomposition domains and extract kinetic parameters. Three kinetic models were applied; Flynn⁻Wall⁻Ozawa (FWO) simulated the best the combustion process. Calculated curves were validated by the first order (n = 1) model except for the slow heating rate of 5 °C/min which was fitted by the contracted cylinder model. The conclusions of this paper could help in optimizing the combustion process in order to achieve high energy recovery from tomato residues. Obtained kinetic data would help in the design of combustion reactors.
topic tomato waste
kinetics
thermal analysis
combustion
url https://www.mdpi.com/1996-1944/12/4/553
work_keys_str_mv AT besmakhiari tomatoprocessingbyproductcombustionthermalandkineticanalyses
AT marwamoussaoui tomatoprocessingbyproductcombustionthermalandkineticanalyses
AT mejdijeguirim tomatoprocessingbyproductcombustionthermalandkineticanalyses
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