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山竹果皮加工技术创造经济价值并减少生物废弃物

Mangosteen Pericarp Processing Technology to Create Economic Value and Reduce Biowaste.

作者信息

Soontornwat Alisa, Pongsuttiyakorn Thadchapong, Rakmae Samak, Sritham Eakasit, Sirisomboon Panmanas, Pun Umed Kumar, Krusong Warawut, Pornchaloempong Pimpen

机构信息

Department of Food Engineering, School of Engineering, King Mongkut's Institute of Technology Ladkrabang, Bangkok 10520, Thailand.

Department of Agricultural Engineering, School of Engineering, King Mongkut's Institute of Technology Ladkrabang, Bangkok 10520, Thailand.

出版信息

Foods. 2024 Jul 20;13(14):2286. doi: 10.3390/foods13142286.

Abstract

This research comparatively investigates different mangosteen pericarp processing schemes. The experimental pericarp processing schemes were hot air drying (HAD; control), quick freezing/HAD (QF + HAD), slow freezing/HAD (SF + HAD), and slow freezing/freeze-drying (SF + FD). For freezing, the QF temperature was -38 °C for 2 h and that of SF was -25 °C for 2 weeks. For drying, the HAD temperature was 60 °C for 7 h. In the FD process, the primary and secondary temperatures were -20 °C and 50 °C for 48 h. The experimental results showed that the freezing method (i.e., QF and SF) affected the physical properties (moisture content, water activity, and color) of dried mangosteen pericarp. The antioxidant activities (DPPH and ABTS) of the SF + HAD scheme (28.20 and 26.86 mg Trolox/g DW of mangosteen pericarp) were lower than the SF + FD scheme (40.68 and 41.20 mg Trolox/g DW of mangosteen pericarp). The α-mangostin contents were 82.3 and 78.9 mg/g DW of mangosteen pericarp for FD and HAD, respectively; and the corresponding TPC were 1065.57 and 783.24 mg GAE/g DW of mangosteen pericarp. The results of this study suggest that the drying process had a negligible effect on bioactive compounds. Essentially, the SF + HAD technology is the most operationally and economically viable scheme to process mangosteen pericarp.

摘要

本研究对不同的山竹果皮加工方案进行了比较研究。实验采用的果皮加工方案有热风干燥(HAD;对照)、速冻/热风干燥(QF + HAD)、慢冻/热风干燥(SF + HAD)以及慢冻/冷冻干燥(SF + FD)。冷冻时,速冻温度为-38℃,持续2小时;慢冻温度为-25℃,持续2周。干燥时,热风干燥温度为60℃,持续7小时。在冷冻干燥过程中,一次和二次温度分别为-20℃和50℃,持续48小时。实验结果表明,冷冻方法(即速冻和慢冻)会影响干燥后山竹果皮的物理性质(水分含量、水分活度和颜色)。慢冻/热风干燥方案(山竹果皮中DPPH和ABTS抗氧化活性分别为28.20和26.86 mg Trolox/g干重)的抗氧化活性低于慢冻/冷冻干燥方案(山竹果皮中分别为40.68和41.20 mg Trolox/g干重)。冷冻干燥和热风干燥后山竹果皮中α-倒捻子素含量分别为82.3和78.9 mg/g干重;相应的总酚含量分别为1065.57和783.24 mg没食子酸当量/g干重。本研究结果表明,干燥过程对生物活性化合物的影响可忽略不计。从本质上讲,慢冻/热风干燥技术是加工山竹果皮最具操作和经济可行性的方案。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/dfce/11276340/7f9f55b31e3d/foods-13-02286-g001.jpg

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