Development of a simple and fast method named solvent‐assisted dispersive solid phase extraction for trace detection of triazole fungicides in water, fruit, vegetable, and agricultural soil samples

Zolfaghar Aladaghlo, Ali Sahragard, Alireza Fakhari
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Abstract

Solvent‐assisted dispersive solid‐phase extraction (SA‐DSPE) approach was developed to measure triazole fungicides (TFs). In the SA‐DSPE technique, the addition of 1000 μL of ethanol as a disperser solvent, along with a small quantity of benzil as a sorbent to the sample solution, led to a cloudy solution. After completion of the extraction, the mixture was subjected to centrifugation to isolate benzil. Next, benzil was dissolved in ethanol, and the resulting solution was subsequently analyzed by a gas chromatography‐flame ionization detector. This method demonstrated high linearity (R2 > 0.9963) and repeatability (relative standard deviation % < 4.3) for the quantification of TFs under the optimal conditions (sorbent: benzil, amount of benzil: 2% w/v, pH of solution: 7.0, disperser solvent: ethanol, volumes of ethanol: 1000 μL, centrifuge time: 3 min, extraction temperature: 25°C, and ionic strength: without salt addition). The proposed SA‐DSPE yielded detection limits, quantification limits, and preconcentration factors within the ranges of 0.3–0.9 ng/mL, 1.0–3.0 ng/mL, and 419–426, respectively. Finally, the validated method was employed to determine TFs in a diverse range of real samples, encompassing waters, fruits, vegetables, and agricultural soils, with relative recoveries ranging from 93.0% to 104%.
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开发一种简单快速的溶剂辅助分散固相萃取法,用于痕量检测水、水果、蔬菜和农业土壤样品中的三唑类杀菌剂
开发了溶剂辅助分散固相萃取(SA-DSPE)方法来测定三唑类杀菌剂(TFs)。在 SA-DSPE 技术中,在样品溶液中加入 1000 μL 作为分散溶剂的乙醇和少量作为吸附剂的苯偶酰,会产生浑浊的溶液。萃取完成后,对混合物进行离心,以分离出苯偶酰。接着,将苯偶酰溶解在乙醇中,然后用气相色谱-火焰离子化检测器对所得溶液进行分析。该方法在最佳条件下(吸附剂:苯齐尔,苯齐尔用量:2% w/v,溶液 pH 值:7.0,分散溶剂:乙醇),对 TFs 的定量具有较高的线性(R2 > 0.9963)和重复性(相对标准偏差 % < 4.3):7.0,分散溶剂:乙醇,乙醇体积:1000 μL,离心时间:3 分钟,萃取温度:25°C:3 分钟,萃取温度:25°C,离子强度:不加盐)。该方法的检出限、定量限和预浓缩因子分别为 0.3-0.9 纳克/毫升、1.0-3.0 纳克/毫升和 419-426。最后,利用该验证方法测定了各种实际样品(包括水、水果、蔬菜和农业土壤)中的 TFs,相对回收率为 93.0% 至 104%。
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