A propolis-rich hive environment affects redox gene expression and gut microbiota at the individual and social level in honey bees.

IF 4.2
FEMS microbes Pub Date : 2026-04-16 eCollection Date: 2026-01-01 DOI:10.1093/femsmc/xtag019
Kirk E Anderson, Duan C Copeland, Brendon M Mott, Oliver L Kortenkamp, Robert J Erickson, Nathan O Allen, Patrick W Maes, Naomi Chao, Hollie Dalenberg, Marla Spivak
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Abstract

The microbiome of the honey bee is associated with immunity, oxidative state, and disease susceptibility. Here we investigated the effects of increased colony-level propolis exposure on gut microbiota and host worker immune and redox gene expression. Sampling pre-marked adult worker bees at 9-days post emergence revealed significantly larger populations of core microbiota in worker guts from propolis-rich colonies, but little change in taxonomic composition or relative structure. We found an overall trend towards decreased expression of immune genes in propolis-rich colonies. The expressions of both pro-phenol oxidase and catalase were significantly reduced in the worker fat body suggesting that propolis-rich colonies better support host redox balance in individual workers. Increased propolis levels resulted in greater expression of superoxide dismutase from the worker fat body and social head glands, consistent with tissue-specific expression considered beneficial in model organisms and humans. Our results suggest that propolis-rich conditions and social head gland secretions contribute to total redox activity throughout the niche space of social immunity. Moreover, our results are consistent with a companion paper that sampled the same colonies and age cohorts, reporting drastic increases in beneficial native bacteria and reduced pathogen prevalence on the mouthparts, a primary marker of social immunity.

蜂胶丰富的蜂巢环境在个体和社会水平上影响蜜蜂的氧化还原基因表达和肠道微生物群。
蜜蜂的微生物群与免疫、氧化状态和疾病易感性有关。在这里,我们研究了蜂胶暴露增加对肠道微生物群和宿主工蜂免疫和氧化还原基因表达的影响。在工蜂羽化后第9天对预标记的工蜂进行取样,发现富含蜂胶的工蜂肠道核心菌群数量显著增加,但分类组成和相对结构变化不大。我们发现,在富含蜂胶的菌落中,免疫基因的表达总体呈下降趋势。在工蜂脂肪体中,前酚氧化酶和过氧化氢酶的表达均显著降低,表明富含蜂胶的菌落在工蜂个体中更好地支持宿主氧化还原平衡。蜂胶水平的增加导致工人脂肪体和社会头腺中超氧化物歧化酶的表达增加,这与在模式生物和人类中被认为有益的组织特异性表达一致。我们的研究结果表明,蜂胶丰富的条件和社会头腺分泌物有助于整个社会免疫生态位空间的总氧化还原活性。此外,我们的结果与另一篇对相同菌落和年龄组进行采样的论文一致,报告有益的本地细菌急剧增加,口器上的病原体流行率降低,口器是社会免疫力的主要标志。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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CiteScore
3.30
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