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Microplastics: unraveling the signaling pathways involved in reproductive health
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This review examines the effects of microplastics on male and female reproductive health, focusing on the metabolic pathways involved in compromised gamete quality, toxicity, apoptosis, and DNA damage. Evidence indicates that microplastics can increase oxidative stress leading to developmental abnormalities, epigenetic changes, and reduced gamete quality, though research on mammalian and human reproductive effects remains limited compared to studies in aquatic organisms.
Microplastics (MPs) are biologically active environmental pollutants having significant impact on the ecosystem and human health. MPs have been reported to increase oxidative stress, resulting in tissue damage, developmental abnormalities, metabolic disorders, epigenetic changes, abnormal reproduction, and reduced gamete quality. At present, most of the existing literature has focused on the effects of MPs on the reproduction of various aquatic organisms; however, the effects of MPs on mammalian reproduction specifically humans are least studied except a few ones fragmentally discussing the effects of MPs on gametogenesis in human. This review discusses effects of MPs on male and female reproduction with a focus on different metabolic pathways involved in compromised gamete quality, gamete toxicity, apoptosis, and DNA damage.
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This review examines how microplastic exposure affects reproductive and developmental health across multiple species, focusing on the biological signaling pathways involved. Researchers found that microplastics can trigger oxidative stress, inflammation, and hormonal disruption through specific cellular pathways, leading to reduced fertility and abnormal development. The study provides a molecular-level framework for understanding why microplastics may pose risks to reproductive health.
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This review summarizes how microplastics cause reproductive harm in aquatic organisms by disrupting hormones, triggering oxidative stress, and interfering with cell death pathways. These effects lead to reduced fertility, abnormal egg and sperm development, and changes that can pass to future generations. Since microplastics accumulate through the food chain, these reproductive effects in aquatic life could have broader implications for ecosystem health and the seafood that humans consume.
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