2013
DOI: 10.1016/j.indcrop.2013.05.003
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Integrated utilization of grape skins from white grape pomaces

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Cited by 69 publications
(38 citation statements)
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“…The protein content of grape pomace was reported to be more than 8 g/100 g (Beres et al, 2019;Sousa et al, 2014;Teles et al, 2019;Tseng & Zhao, 2013), whereas some studies (Abdrabba & Hussein, 2015;Maman & Yu, 2019) revealed higher proteins content in grape seeds, depending on the variety. Some studies showed that the protein content of grape peels can vary from 5.3 to 12.7 g/100 g (Deng et al, 2011;Maurer et al, 2019;Mendes, Xavier, Evtuguin, & Lopes, 2013;Mironeasa et al, 2019c), as it is shown in Table 1. The amino acid profiles of grape byproducts depend on the variety (Iuga, Codină, Mironeasa, & Oroian, 2017;Tangolar, Turan, Tangolar, & Ateş, 2019); Iuga, Codină, et al (2017) showed that grape seeds have high contents of glutamic acid, aspartic acid, glycine, and arginine, whereas grape peels are richer in lysine, glutamic acid, aspartic acid, and leucine-both grape seeds and peels proteins qualities being close to those of other cereals and oilseeds like sunflower, safflower, and flaxseeds (Mironeasa, 2017;Secen, 2017;Zhou, Li, Zhang, Bai, & Zhao, 2010).…”
Section: Grape Byproducts Chemical Compositionmentioning
confidence: 99%
“…The protein content of grape pomace was reported to be more than 8 g/100 g (Beres et al, 2019;Sousa et al, 2014;Teles et al, 2019;Tseng & Zhao, 2013), whereas some studies (Abdrabba & Hussein, 2015;Maman & Yu, 2019) revealed higher proteins content in grape seeds, depending on the variety. Some studies showed that the protein content of grape peels can vary from 5.3 to 12.7 g/100 g (Deng et al, 2011;Maurer et al, 2019;Mendes, Xavier, Evtuguin, & Lopes, 2013;Mironeasa et al, 2019c), as it is shown in Table 1. The amino acid profiles of grape byproducts depend on the variety (Iuga, Codină, Mironeasa, & Oroian, 2017;Tangolar, Turan, Tangolar, & Ateş, 2019); Iuga, Codină, et al (2017) showed that grape seeds have high contents of glutamic acid, aspartic acid, glycine, and arginine, whereas grape peels are richer in lysine, glutamic acid, aspartic acid, and leucine-both grape seeds and peels proteins qualities being close to those of other cereals and oilseeds like sunflower, safflower, and flaxseeds (Mironeasa, 2017;Secen, 2017;Zhou, Li, Zhang, Bai, & Zhao, 2010).…”
Section: Grape Byproducts Chemical Compositionmentioning
confidence: 99%
“… anaerobic fermentationto produce biogas (composed mainly of CO 2 and CH 4 ) and relatively homogenous pulp, used as a fertiliser [4],  alcoholic fermentationto generate bioethanol, oleanolic acid and solid residues (that may be used as a thermal insulation material) [5],  gasificationto generate syngas, chars and liquid residues [6], in this article selected issues concerning the combustion of grape pomace were emphasised and discussed. The implementation of grape pomace within combustion technologies seems to be favourable in particular in power sector dominated so far by coal-fired units (like in Poland) by fostering positive financial feedback (existing boilers may be easily adopted).…”
Section: A C Bmentioning
confidence: 99%
“…Interesting samples of using fruit by-products were shown by other authors (Mendes, et al, 2013). Grape pomace obtained from white wine production was subjected to a two-step fermentation: the first step consisted of extraction of fermenting sugars in boiling water, cooling and addition of S. cerevisiae to carry out ethanol fermentation, the second step involved extraction of pro-health oleanolic acid with nonpolar solvent hexane.…”
Section: Fuel Purposesmentioning
confidence: 99%
“…Grape pomace obtained from white wine production was subjected to a two-step fermentation: the first step consisted of extraction of fermenting sugars in boiling water, cooling and addition of S. cerevisiae to carry out ethanol fermentation, the second step involved extraction of pro-health oleanolic acid with nonpolar solvent hexane. The skins remaining after extraction were used as the main component of low density insulation boards (Mendes, et al, 2013). …”
Section: Fuel Purposesmentioning
confidence: 99%