Cargando…

Study on the Mechanism of Ionic Liquids Improving the Extraction Efficiency of Essential Oil Based on Experimental Optimization and Density Functional Theory: The Fennel (Foeniculi fructus) Essential Oil Case

In this work, microwave-assisted ionic liquids treatment, followed by hydro-distillation (MILT-HD), as an efficient extraction technology, was used to extract essential oil. The purpose for this was to use multivariate analysis (MVA) models to investigate the effects of potential critical process pa...

Descripción completa

Detalles Bibliográficos
Autores principales: Shi, Guolin, Lin, Longfei, Liu, Yuling, Chen, Gongsen, Yang, Anhui, Wu, Yanqiu, Zhou, Yingying, Li, Hui
Formato: Online Artículo Texto
Lenguaje:English
Publicado: MDPI 2021
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC8197825/
https://www.ncbi.nlm.nih.gov/pubmed/34073180
http://dx.doi.org/10.3390/molecules26113169
_version_ 1783706994260049920
author Shi, Guolin
Lin, Longfei
Liu, Yuling
Chen, Gongsen
Yang, Anhui
Wu, Yanqiu
Zhou, Yingying
Li, Hui
author_facet Shi, Guolin
Lin, Longfei
Liu, Yuling
Chen, Gongsen
Yang, Anhui
Wu, Yanqiu
Zhou, Yingying
Li, Hui
author_sort Shi, Guolin
collection PubMed
description In this work, microwave-assisted ionic liquids treatment, followed by hydro-distillation (MILT-HD), as an efficient extraction technology, was used to extract essential oil. The purpose for this was to use multivariate analysis (MVA) models to investigate the effects of potential critical process parameters on the extraction efficiency of essential oil, and explore the mechanism of ionic liquids (ILs). According to the design of experiment (DoE), under optimal process conditions, the extraction efficiency of essential oil was dramatically enhanced, and had low energy demands. Since little is known regarding those mechanisms, according to the non-covalent interaction analysis, the underlying mechanism for ILs improving extraction efficiency was explored based on the density functional theory (DFT). The results showed that ILs could form intense non-covalent bond interaction with cellulose. It helped destroy the network hydrogen bond structure of cellulose in plant cells and caused the essential oils in the cells to be more easily exposed to the extraction solution, thereby accelerating extraction efficiency. Based on this work, it is conducive to understand the MILT-HD process better and gain knowledge of the mechanism of ILs.
format Online
Article
Text
id pubmed-8197825
institution National Center for Biotechnology Information
language English
publishDate 2021
publisher MDPI
record_format MEDLINE/PubMed
spelling pubmed-81978252021-06-14 Study on the Mechanism of Ionic Liquids Improving the Extraction Efficiency of Essential Oil Based on Experimental Optimization and Density Functional Theory: The Fennel (Foeniculi fructus) Essential Oil Case Shi, Guolin Lin, Longfei Liu, Yuling Chen, Gongsen Yang, Anhui Wu, Yanqiu Zhou, Yingying Li, Hui Molecules Article In this work, microwave-assisted ionic liquids treatment, followed by hydro-distillation (MILT-HD), as an efficient extraction technology, was used to extract essential oil. The purpose for this was to use multivariate analysis (MVA) models to investigate the effects of potential critical process parameters on the extraction efficiency of essential oil, and explore the mechanism of ionic liquids (ILs). According to the design of experiment (DoE), under optimal process conditions, the extraction efficiency of essential oil was dramatically enhanced, and had low energy demands. Since little is known regarding those mechanisms, according to the non-covalent interaction analysis, the underlying mechanism for ILs improving extraction efficiency was explored based on the density functional theory (DFT). The results showed that ILs could form intense non-covalent bond interaction with cellulose. It helped destroy the network hydrogen bond structure of cellulose in plant cells and caused the essential oils in the cells to be more easily exposed to the extraction solution, thereby accelerating extraction efficiency. Based on this work, it is conducive to understand the MILT-HD process better and gain knowledge of the mechanism of ILs. MDPI 2021-05-26 /pmc/articles/PMC8197825/ /pubmed/34073180 http://dx.doi.org/10.3390/molecules26113169 Text en © 2021 by the authors. https://creativecommons.org/licenses/by/4.0/Licensee MDPI, Basel, Switzerland. This article is an open access article distributed under the terms and conditions of the Creative Commons Attribution (CC BY) license (https://creativecommons.org/licenses/by/4.0/).
spellingShingle Article
Shi, Guolin
Lin, Longfei
Liu, Yuling
Chen, Gongsen
Yang, Anhui
Wu, Yanqiu
Zhou, Yingying
Li, Hui
Study on the Mechanism of Ionic Liquids Improving the Extraction Efficiency of Essential Oil Based on Experimental Optimization and Density Functional Theory: The Fennel (Foeniculi fructus) Essential Oil Case
title Study on the Mechanism of Ionic Liquids Improving the Extraction Efficiency of Essential Oil Based on Experimental Optimization and Density Functional Theory: The Fennel (Foeniculi fructus) Essential Oil Case
title_full Study on the Mechanism of Ionic Liquids Improving the Extraction Efficiency of Essential Oil Based on Experimental Optimization and Density Functional Theory: The Fennel (Foeniculi fructus) Essential Oil Case
title_fullStr Study on the Mechanism of Ionic Liquids Improving the Extraction Efficiency of Essential Oil Based on Experimental Optimization and Density Functional Theory: The Fennel (Foeniculi fructus) Essential Oil Case
title_full_unstemmed Study on the Mechanism of Ionic Liquids Improving the Extraction Efficiency of Essential Oil Based on Experimental Optimization and Density Functional Theory: The Fennel (Foeniculi fructus) Essential Oil Case
title_short Study on the Mechanism of Ionic Liquids Improving the Extraction Efficiency of Essential Oil Based on Experimental Optimization and Density Functional Theory: The Fennel (Foeniculi fructus) Essential Oil Case
title_sort study on the mechanism of ionic liquids improving the extraction efficiency of essential oil based on experimental optimization and density functional theory: the fennel (foeniculi fructus) essential oil case
topic Article
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC8197825/
https://www.ncbi.nlm.nih.gov/pubmed/34073180
http://dx.doi.org/10.3390/molecules26113169
work_keys_str_mv AT shiguolin studyonthemechanismofionicliquidsimprovingtheextractionefficiencyofessentialoilbasedonexperimentaloptimizationanddensityfunctionaltheorythefennelfoeniculifructusessentialoilcase
AT linlongfei studyonthemechanismofionicliquidsimprovingtheextractionefficiencyofessentialoilbasedonexperimentaloptimizationanddensityfunctionaltheorythefennelfoeniculifructusessentialoilcase
AT liuyuling studyonthemechanismofionicliquidsimprovingtheextractionefficiencyofessentialoilbasedonexperimentaloptimizationanddensityfunctionaltheorythefennelfoeniculifructusessentialoilcase
AT chengongsen studyonthemechanismofionicliquidsimprovingtheextractionefficiencyofessentialoilbasedonexperimentaloptimizationanddensityfunctionaltheorythefennelfoeniculifructusessentialoilcase
AT yanganhui studyonthemechanismofionicliquidsimprovingtheextractionefficiencyofessentialoilbasedonexperimentaloptimizationanddensityfunctionaltheorythefennelfoeniculifructusessentialoilcase
AT wuyanqiu studyonthemechanismofionicliquidsimprovingtheextractionefficiencyofessentialoilbasedonexperimentaloptimizationanddensityfunctionaltheorythefennelfoeniculifructusessentialoilcase
AT zhouyingying studyonthemechanismofionicliquidsimprovingtheextractionefficiencyofessentialoilbasedonexperimentaloptimizationanddensityfunctionaltheorythefennelfoeniculifructusessentialoilcase
AT lihui studyonthemechanismofionicliquidsimprovingtheextractionefficiencyofessentialoilbasedonexperimentaloptimizationanddensityfunctionaltheorythefennelfoeniculifructusessentialoilcase