Field-realistic exposure to pesticide residues in beehive pollen and honey and the associated risk to honeybees.
IF 3.8
1区 农林科学
Q1 AGRONOMY
Xingyi Zhu,Bangyan Song,Haiyan Zhang,Yujun Long,Yao Dan,Guohui Liao,Minggui Chen,Lixin Qin,Xiangyan Chen,Feng Zhu
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Abstract
BACKGROUND
Honeybees, as the most important pollinators, can be affected by pesticides while foraging for nectar and pollen. Previous studies have shown that some pesticides can be found in pollen and nectar in realistic samples. However, the actual exposure characteristics of bees and the core sources of pesticides in the karst landform of Guizhou remain unknown at present. In this study, environmental DNA analysis was performed on bee pollen to examine its plant sources. Furthermore, the types and concentrations of pesticides in honey and bee pollen to which the associated bees were exposed were determined using the optimized QuEChERS extraction method combined with ultraperformance liquid chromatography-tandem mass spectrometry. In addition, the risks posed by the detected pesticides to the bees were assessed.
RESULTS
Results showed that spring beehive pollen mainly originated from agricultural crops, while autumn beehive pollen primarily originated from wild plants. Among the 427 samples of honey and bee pollen. Twenty-five types of pesticides were identified, including thiamethoxam, difenoconazole, and chlorantraniliprole, which were the most frequently detected pesticides in the samples. The overall pesticide detection rate for the samples was 54.8%. The HQ and ΣHQ values of the detected pesticides for bees were less than 1.0.
CONCLUSION
A higher number of pesticides was detected in the spring samples (24 pesticides) than in the autumn samples (seven pesticides), implying that the bees encounter greater challenges in spring and summer than in autumn and winter. The residual levels of these pesticides posed acceptable exposure risk levels to the bees. © 2025 Society of Chemical Industry.
野外实际暴露于蜂房花粉和蜂蜜中的农药残留及其对蜜蜂的相关风险。
背景蜜蜂作为最重要的传粉媒介,在采集花蜜和花粉的过程中会受到农药的影响。以前的研究表明,在实际样本的花粉和花蜜中可以发现一些杀虫剂。但目前贵州喀斯特地貌中蜜蜂的实际暴露特征和农药的核心来源尚不清楚。本研究对蜂花粉进行了环境DNA分析,以确定其植物来源。采用优化后的QuEChERS萃取法结合超高效液相色谱-串联质谱法测定蜂蜜和蜂花粉中农药的种类和浓度。此外,还评估了检测到的农药对蜜蜂构成的风险。结果春季蜂房花粉主要来源于农作物,秋季蜂房花粉主要来源于野生植物。在427份蜂蜜和蜂花粉样本中。共鉴定出25种农药,其中噻虫嗪、异虫康唑和氯虫腈是样品中检出频率最高的农药。总体农药检出率为54.8%。检测到的农药对蜜蜂的HQ值和ΣHQ值均小于1.0。结论春季样本农药残留量(24种)高于秋季样本农药残留量(7种),说明春夏季对蜜蜂的危害大于秋冬季。这些杀虫剂的残留水平对蜜蜂构成了可接受的暴露风险水平。©2025化学工业协会。
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