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Systematic Review ? AI-assigned paper type based on the abstract. Classification may not be perfect — flag errors using the feedback button. Tier 1 ? Systematic review or meta-analysis. Synthesizes findings across many studies. Strongest evidence. Food & Water Gut & Microbiome Human Health Effects Policy & Risk Remediation Sign in to save

Food-AssociatedStressors and Their Synergistic Rolesin Bacterial Antibiotic Resistance across the Food Supply Chain

Figshare 2025 Score: 58 ? 0–100 AI score estimating relevance to the microplastics field. Papers below 30 are filtered from public browse.
Jun Li (6494), Jinyi Song (11933284), Xiaoqi Wang (164823), Wei Li (7081), Mengting Han (11933125), Mei Li (217363), Siyue Wang (14262683), Junnan Xu (8886671), Qiang Zhang (45005), Jia Chen (8203), Shenghui Cui (213268), Baowei Yang (8814791)

Summary

This review identifies microplastics as one of several food supply chain stressors that synergistically promote bacterial antibiotic resistance, alongside antibiotic residues, heavy metals, and pesticides. Microplastics can serve as carriers for resistant bacteria and resistance genes, creating a 'One Health' pathway from agriculture and environment through food processing to human exposure.

Body Systems

Global bacterial antibiotic resistance threatens health, food safety, and sustainability. The food supply chain is a critical “One Health” pathway, linking agriculture, environment, and processing. However, systematic reviews addressing the impact of coexisting stressors on antibiotic resistance emergence and transmission across this continuum are lacking. This review innovatively synthesizes environmental inputs (antibiotic residues, fertilizers, heavy metals, pesticides, microplastics, climate change, and grazing) and processing/transport stressors (temperature, nonthermal technologies, pH, osmosis, disinfectants, food additives, probiotics, and trade), focusing on their individual and synergistic effects. These stressors enhance resistance and horizontal gene transfer by activating bacterial stress responses (sigma factors, SOS), altering membranes, and triggering mutations/efflux pumps. Coexisting stressors can further intensify, accelerate, and amplify resistance emergence and transmission. We propose multilevel mitigation strategies across the food chain, including curbing selective pressures at the source, optimizing food processing techniques to avoid stress-induced resistance, guiding consumer behavior, and strengthening international regulatory governance.

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