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Article ? AI-assigned paper type based on the abstract. Classification may not be perfect — flag errors using the feedback button. Tier 2 ? Original research — experimental, observational, or case-control study. Direct primary evidence. Marine & Wildlife Sign in to save

Effects of microplastics on physiological performance of marine bivalves, potential impacts, and enlightening the future based on a comparative study

The Science of The Total Environment 2022 71 citations ? Citation count from OpenAlex, updated daily. May differ slightly from the publisher's own count. Score: 55 ? 0–100 AI score estimating relevance to the microplastics field. Papers below 30 are filtered from public browse.
Robert Mkuye, Robert Mkuye, Robert Mkuye, Robert Mkuye, Robert Mkuye, Robert Mkuye, Robert Mkuye, Robert Mkuye, Robert Mkuye, Fortunatus Masanja, Robert Mkuye, Shunlian Gong, Robert Mkuye, Shunlian Gong, Chuangye Yang, Robert Mkuye, Chuangye Yang, Robert Mkuye, Fortunatus Masanja, Liqiang Zhao, Chuangye Yang, Chuangye Yang, Chuangye Yang, Edna Bubelwa, Chuangye Yang, Edna Bubelwa, Fortunatus Masanja, Fortunatus Masanja, Yuewen Deng Fortunatus Masanja, Robert Mkuye, Fortunatus Masanja, Fortunatus Masanja, Charles Brighton Ndandala, Robert Mkuye, Edna Bubelwa, Yuewen Deng Edna Bubelwa, Robert Mkuye, Yuewen Deng Yuewen Deng Chuangye Yang, Yuewen Deng Chuangye Yang, Yuewen Deng Robert Mkuye, Chuangye Yang, Yuewen Deng Yuewen Deng Robert Mkuye, Yuewen Deng Yuewen Deng Chuangye Yang, Yuewen Deng Yuewen Deng

Summary

This review examines the effects of microplastics and their chemical additives on the physiology of marine bivalves such as mussels and oysters, including impacts on feeding, reproduction, immunity, and gene expression. Researchers identified significant gaps in the literature, particularly regarding the combined effects of microplastics with other environmental stressors. The study highlights that while individual studies show varied results, the cumulative evidence suggests microplastic exposure can alter key biological functions in these ecologically important organisms.

Body Systems

This review aims to explore the effects of microplastics and their corresponding additives on the physiological performances of marine bivalves together with their related genes. We identified gaps based on studies that were conducted on other organisms, and we conducted a comparative study on similar and relevant aspects for exploring future potential areas of study and interest. Microplastics are widely dispersed in all forms of media (solid, liquid, and gas). Exposure to an organism (including humans) is inevitable. However, impacts depend on the concentration of exposure, location of a biomarker being observed, and treatment involved. Different shapes, colors, and polymer types are reported and the transfer of microplastics along the food chain are recorded. The impacts of microplastics intensify when coupled with other chemicals or additives (referred to as xenobiotics) in a treated group. Thus, the degree of inhibition or enhancement of a physiological response magnifies when a coexposure of microplastic and a xenobiotic occurs. Microplastics have been observed to reduce immune system functionality by reducing hemocytes count, distorting oxidative system, respiration, and increasing energy consumption in bivalves due to physiological modulations that result from ingestion of microplastics or their additives. We found knowledge gaps and suggested future research directions to fully understand the impact of microplastics and their additives on marine bivalves.

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