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Melatonin attenuates radiofrequency radiation (900 MHz)-induced oxidative stress, DNA damage and cell cycle arrest in germ cells of male Swiss albino mice.Toxicol Ind Health

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Pandey N, Giri S · 2018

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Melatonin supplementation appeared to protect against radiofrequency radiation-induced reproductive damage in male mice by reducing oxidative stress and improving DNA repair mechanisms.

Plain English Summary

Summary written for general audiences

This study examined the effects of 900 MHz radiofrequency radiation (GSM type) exposure on male mouse germ cells and spermatogenesis, with and without melatonin supplementation. The researchers found that RFR exposure caused DNA damage, oxidative stress, and reduced sperm count, but these harmful effects were substantially mitigated in mice that received melatonin supplementation.

Why This Matters

This study uses an animal model (mice) to investigate potential mechanisms of RFR-induced reproductive toxicity, a topic of interest given widespread mobile phone exposure. The findings suggest a potential protective role for melatonin as an antioxidant, though results from animal studies require careful consideration before extrapolation to human health.

Exposure Information

Specific exposure levels were not quantified in this study.

Cite This Study
Pandey N, Giri S (2018). Melatonin attenuates radiofrequency radiation (900 MHz)-induced oxidative stress, DNA damage and cell cycle arrest in germ cells of male Swiss albino mice.Toxicol Ind Health.
Show BibTeX
@article{pandey_n_giri_s_ce2964,
  author = {Pandey N and Giri S},
  title = {Melatonin attenuates radiofrequency radiation (900 MHz)-induced oxidative stress, DNA damage and cell cycle arrest in germ cells of male Swiss albino mice.Toxicol Ind Health},
  year = {2018},
  doi = {10.1038/s41467-018-03851-3},
  
}

Quick Questions About This Study

Auxin synthesis and transport from root tips to differentiation zones triggers specific transcription factors (ARF19, RSL2, RSL4) that promote root hair elongation when phosphate levels are low in soil.
Plants with disrupted auxin transport (aux1 mutants) cannot properly elongate root hairs in response to phosphate deficiency, compromising their ability to forage for this essential nutrient.
The TAA1 gene for auxin synthesis, AUX1 for auxin transport, and transcription factors ARF19, RSL2, and RSL4 are all critical for root hair elongation under low phosphate conditions.
Yes, expressing AUX1 specifically in lateral root cap and epidermal cells can restore normal phosphate stress responses in plants that otherwise lack functional auxin transport systems.
Since phosphate is immobile in soil, longer root hairs increase the surface area available for nutrient uptake, helping plants access more phosphate from their immediate environment.