Qualitative and quantitative nondestructive determination of cyanide in water and distilled spirits by Raman integrating sphere.

IF 2.7 3区 化学 Q2 CHEMISTRY, ANALYTICAL Analytical Methods Pub Date : 2025-01-30 DOI:10.1039/d4ay02157f
Xu Hai-Sheng, Cheng Jing, Yang Da-Peng, Zhao Chu-Qiu, Liu Yan, Tao Sha, Huang Bao-Kun
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Abstract

Cyanide often forms as a byproduct during the fermentation process of distilled spirits, and excessive amounts can cause damage to health. Cyanide poisoning is also common in alcoholic beverages and water. Therefore, the cyanide content measurement in water and distilled spirits is essential. Here, a Raman integrating sphere technique for the in situ detection of cyanide has been established, and a lower limit of detection of 1.56 mg L-1 in water and ethanol was achieved, owing to the efficient collection of Raman signals and the efficient use of laser power. The Raman peak of cyanide is located at 2080 cm-1. The detection range was from 1.56 to 25 mg L-1 cyanide in water, ethanol, and liquor with high linearity (R2 = 0.9986, 0.9986, and 0.9908) and precision (%RSD = 5.53%, 6.92%, and 14.12%). This instrument provides an alternative method for detecting cyanide, which can not only be used for accurate qualitative and quantitative detection of cyanide but also for food safety detection and physical evidence analysis of cyanide in beverage poisoning. Key to our method is that it offers advantages such as no need for sample pretreatment, simplicity and speed of operation, non-destructive analysis, minimal sample consumption (only 3 milliliters are required for a single measurement), and the ability to preserve the analyzed sample as evidence.

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拉曼积分球无损测定水和蒸馏酒中氰化物的定性和定量。
氰化物通常是蒸馏酒发酵过程中的副产品,过量会对健康造成损害。氰化物中毒在酒精饮料和水中也很常见。因此,测定水和蒸馏酒中的氰化物含量是必要的。本文建立了一种用于氰化物原位检测的拉曼积分球技术,由于拉曼信号的有效收集和激光功率的有效利用,在水和乙醇中实现了1.56 mg L-1的检测下限。氰化物的拉曼峰位于2080 cm-1。在水、乙醇和白酒中氰化物的检测范围为1.56 ~ 25 mg L-1,线性度高(R2 = 0.9986、0.9986、0.9908),精密度高(%RSD = 5.53%、6.92%、14.12%)。该仪器为氰化物的检测提供了一种替代方法,不仅可以对氰化物进行准确的定性和定量检测,还可以用于食品安全检测和饮料中毒氰化物的物证分析。我们的方法的关键在于它具有不需要样品预处理、操作简单和速度快、无损分析、样品消耗最小(单次测量只需要3毫升)以及保存分析样品作为证据的能力等优点。
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来源期刊
Analytical Methods
Analytical Methods CHEMISTRY, ANALYTICAL-FOOD SCIENCE & TECHNOLOGY
CiteScore
5.10
自引率
3.20%
发文量
569
审稿时长
1.8 months
期刊介绍: Early applied demonstrations of new analytical methods with clear societal impact
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