从白酒废渣中提取焦磷酸可持续活性炭的制备、表征和吸附能力,用于降低风险因素

Ziyang Wu , Silei Lv , Peng Xiao , Huan Cheng , Hehe Li , Jinyuan Sun , Xingqian Ye , Baoguo Sun
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引用次数: 0

摘要

社会对含酒精饮料安全性的关注与日俱增,因此有必要采取有效、安全的干预措施来提高其安全性。本研究旨在利用焦磷酸将白酒生产过程中产生的对环境有重大影响的大量废糟转化为可持续活性炭(作为吸附剂),以直接缓解这些问题。对模拟和真实白酒样品采用了精确的优化策略,以确定适合不同酒精饮料(风味化合物较少和风味化合物丰富)的理想碳合成条件。傅立叶变换红外光谱和扫描电镜表征证实了活性炭的多孔结构。吸附实验表明,煅烧温度对吸附效率有显著影响,有利于选择性吸附高级醇、乙醛和甲醇,同时减少对酸的吸附。与商用活性炭相比,废谷物炭的酸保留效果更佳。通过感官评价来确定应用参数,活性炭可使白酒中的乙醛和高级醇含量分别降低 9.67 % 和 14.94 %,且不影响香气。因此,这项研究不仅为白酒生产过程中产生的大量废弃物提供了一种新颖的回收策略,还为酒精饮料的质量和安全提供了一种绿色、可持续的保证措施。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Preparation, characterization, and adsorption capacity of pyrophosphoric acid sustainable activated carbon from baijiu spent grains for risk factor mitigation

The increasing societal concern regarding the safety of alcoholic beverages necessitates the implementation of effective and safe intervention measures to enhance their safety. This study aims to repurpose the substantial spent grains generated during Baijiu production, which have a significant environmental impact, into sustainable activated carbon (as an adsorbent) by pyrophosphoric acid to alleviate these concerns directly. Precise optimization strategies were employed for simulated and authentic Baijiu samples to determine ideal conditions for carbon synthesis suitable for different alcoholic beverages (with fewer flavor compounds and rich in flavor compounds). Characterization via FT-IR and SEM confirmed the porous structure of the activated carbon. The adsorption experiments indicate that calcination temperature significantly influences adsorption efficiency, favoring selective adsorption of higher alcohols, acetaldehyde, and methanol, while simultaneously reducing acid adsorption. Compared to commercial activated carbon, spent grain carbon exhibited superior acid retention effects. Through sensory evaluation to determine application parameters, activated carbon can reduce acetaldehyde and higher alcohols in Baijiu by 9.67 % and 14.94 %, respectively, without compromising aroma. Thus, this research not only provides a novel recycling strategy for the significant waste generated in Baijiu production but also offers a green and sustainable assurance measure for the quality and safety of alcoholic beverages.

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来源期刊
Food chemistry advances
Food chemistry advances Analytical Chemistry, Organic Chemistry, Chemistry (General), Molecular Biology
CiteScore
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