Ionic Liquid Solvent Design Framework for Extraction of Phytochemicals using Microwave-Assisted Method

Computer aided molecular design (CAMD) has been used widely for solvent design. It is a reverse approach in the selection of solvents for real application. CAMD is suitable for ionic liquid solvent design due the vast possibilities of ionic liquid molecular structures to be identified. Ionic liquid...

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Main Authors: Nur Rahilah Haji Abd Rahman, Nor Alafiza Yunus, Azizul Azri Mustaffa
Format: Article
Language:English
Published: AIDIC Servizi S.r.l. 2020-02-01
Series:Chemical Engineering Transactions
Online Access:https://www.cetjournal.it/index.php/cet/article/view/10794
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spelling doaj-ee06bd01f2b64d219deb0271e4463db32021-02-16T11:51:15ZengAIDIC Servizi S.r.l.Chemical Engineering Transactions2283-92162020-02-017810.3303/CET2078097Ionic Liquid Solvent Design Framework for Extraction of Phytochemicals using Microwave-Assisted MethodNur Rahilah Haji Abd RahmanNor Alafiza YunusAzizul Azri MustaffaComputer aided molecular design (CAMD) has been used widely for solvent design. It is a reverse approach in the selection of solvents for real application. CAMD is suitable for ionic liquid solvent design due the vast possibilities of ionic liquid molecular structures to be identified. Ionic liquid has broad ranges of applications especially in separation especially in carbon capture and azeotropic separation. This is due to the unique structures of ionic liquid that can be tailored for specific product separation. This study focuses on ionic liquid design framework for phytochemical extraction, incorporating the prediction of the extraction yield using the microwave-assisted method. The framework was developed in several stages. Stage 1 identifies the user needs, problems and constraints as well as target properties. Stage 2 comprise of comprehensive database development for ionic liquid and phytochemical properties; while property models library was developed in Stage 3. Stage 4 involved the development of solvent design algorithm for ionic liquid selection for the targeted process. In Stage 5, depending on the type of extraction method considered, either using normal Soxhlet or a microwave-assisted extraction, the extraction yield can be predicted using the process performance model. The performance model for the liquid extraction is the thermodynamic solid-liquid equilibria model while for the advanced extraction method, the model was obtained through optimization of the experimental extraction process. This systematic framework is illustrated through a case study involving flavonoid and phenolic acid extraction from Ortosiphon aureus. Based on the yield prediction, 1-ethyl-3-propylimidazoilum bromide can extract 29.92 mg/g and was selected as a solvent for Flavonoid extraction using Microwave-assisted extraction. The design framework is able to find the optimal ionic liquid candidate for the extraction process.https://www.cetjournal.it/index.php/cet/article/view/10794
collection DOAJ
language English
format Article
sources DOAJ
author Nur Rahilah Haji Abd Rahman
Nor Alafiza Yunus
Azizul Azri Mustaffa
spellingShingle Nur Rahilah Haji Abd Rahman
Nor Alafiza Yunus
Azizul Azri Mustaffa
Ionic Liquid Solvent Design Framework for Extraction of Phytochemicals using Microwave-Assisted Method
Chemical Engineering Transactions
author_facet Nur Rahilah Haji Abd Rahman
Nor Alafiza Yunus
Azizul Azri Mustaffa
author_sort Nur Rahilah Haji Abd Rahman
title Ionic Liquid Solvent Design Framework for Extraction of Phytochemicals using Microwave-Assisted Method
title_short Ionic Liquid Solvent Design Framework for Extraction of Phytochemicals using Microwave-Assisted Method
title_full Ionic Liquid Solvent Design Framework for Extraction of Phytochemicals using Microwave-Assisted Method
title_fullStr Ionic Liquid Solvent Design Framework for Extraction of Phytochemicals using Microwave-Assisted Method
title_full_unstemmed Ionic Liquid Solvent Design Framework for Extraction of Phytochemicals using Microwave-Assisted Method
title_sort ionic liquid solvent design framework for extraction of phytochemicals using microwave-assisted method
publisher AIDIC Servizi S.r.l.
series Chemical Engineering Transactions
issn 2283-9216
publishDate 2020-02-01
description Computer aided molecular design (CAMD) has been used widely for solvent design. It is a reverse approach in the selection of solvents for real application. CAMD is suitable for ionic liquid solvent design due the vast possibilities of ionic liquid molecular structures to be identified. Ionic liquid has broad ranges of applications especially in separation especially in carbon capture and azeotropic separation. This is due to the unique structures of ionic liquid that can be tailored for specific product separation. This study focuses on ionic liquid design framework for phytochemical extraction, incorporating the prediction of the extraction yield using the microwave-assisted method. The framework was developed in several stages. Stage 1 identifies the user needs, problems and constraints as well as target properties. Stage 2 comprise of comprehensive database development for ionic liquid and phytochemical properties; while property models library was developed in Stage 3. Stage 4 involved the development of solvent design algorithm for ionic liquid selection for the targeted process. In Stage 5, depending on the type of extraction method considered, either using normal Soxhlet or a microwave-assisted extraction, the extraction yield can be predicted using the process performance model. The performance model for the liquid extraction is the thermodynamic solid-liquid equilibria model while for the advanced extraction method, the model was obtained through optimization of the experimental extraction process. This systematic framework is illustrated through a case study involving flavonoid and phenolic acid extraction from Ortosiphon aureus. Based on the yield prediction, 1-ethyl-3-propylimidazoilum bromide can extract 29.92 mg/g and was selected as a solvent for Flavonoid extraction using Microwave-assisted extraction. The design framework is able to find the optimal ionic liquid candidate for the extraction process.
url https://www.cetjournal.it/index.php/cet/article/view/10794
work_keys_str_mv AT nurrahilahhajiabdrahman ionicliquidsolventdesignframeworkforextractionofphytochemicalsusingmicrowaveassistedmethod
AT noralafizayunus ionicliquidsolventdesignframeworkforextractionofphytochemicalsusingmicrowaveassistedmethod
AT azizulazrimustaffa ionicliquidsolventdesignframeworkforextractionofphytochemicalsusingmicrowaveassistedmethod
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