Review Article
Role of Mitochondria in the Oxidative Stress Induced by Electromagnetic Fields: Focus on Reproductive Systems
Table 1
Review of studies investigating the effect of RF and ELF-MF on mitochondria and redox balance.
(a) |
| Reference | Radiation | SAR | Exposure time | Model | Temperature | Effect |
| [157] | RF 900 MHz | 0.090 W/kg | Long-term exposure | Mice | — | Mitochondrial DNA damage | [158] | RF 900 MHz | 2–5.7 W/kg | Short-term exposure | Human spermatozoa | Constant | No effect on mitochondria | [67] | RF 850 MHz | 1.46 W/kg | Short-term exposure | Human semen | Room temperature | Loss in sperm motility and viability Increased ROS production | [133] | RF 1.8 GHz | 0.4–27.5 W/kg | Short-term exposure | Human spermatozoa | Constant | Mitochondrial ROS generation Alterations of electron potential of mitochondrial membrane, Oxidative DNA damage | [124] | RF 900–1800 MHz | — | Long-term exposure | Rat | Constant | Lower sperm motility Decreased GSH levels Oxidative damage | [140] | RF 900 MHz | 0.9 W/kg | Long-term exposure | Rat | — | Decreased antioxidant enzyme activity Increased ROS production Lipid peroxidation Increased apoptosis | [144] | MW 10 GHz | 0.014 W/kg | Long-term exposure | Rat | — | Spermatozoa cell cycle arrest ROS production | [145] | RF 900–1800–1900 MHz | 0.9 W/kg | Long-term exposure | Rat | — | Decreased antioxidant defences Lipid peroxidation | [122] | RF 900 MHz | — | Long-term exposure | Rat | — | Decreased sperm count Decreased antioxidant defences Lipid peroxidation | [141] | RF 900 MHz | 0.66 W/kg | Long-term exposure | Rat | — | Decreased sperm viability Increased ROS production Increased apoptosis | [156] | RF 1800–1900 MHz | — | Long-term exposure | Human | — | Mitochondrial damage | [154] | RF 900 MHz pulsed | 0.0516–0.0054 W/kg | Long-term exposure | Mice | — | Alterations of electron potential of mitochondrial membrane DNA damage | [146] | RF 902.4 MHz | 0.00516–0.0054 W/kg | Long-term exposure | Mice | — | Decreased antioxidant defences Lipid peroxidation DNA damage Decreased sperm count | [142] | RF 900 MHz | 0.0067 W/kg | Long-term exposure | Rat | Constant | Imbalance in total antioxidant capacity Lipid peroxidation | [155] | RF 1800 MHz | 0.15 W/kg | Short-term exposure | Mouse germ cells | — | Increased ROS production DNA fragmentation Oxidative DNA damage | [143] | RF 1800 MHz | 4 W/kg | Short-term exposure | Mouse germ cells | — | Oxidative DNA damage Increased autophagy |
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(b) |
| References | Radiation | Magnetic flux density | Exposure time | Model | Temperature | Effect |
| [159] | ELF-MF 50 Hz | 1 mT | Short-term exposure | Boar | — | Lower mitochondrial activity | [160] | ELF-MF 50 Hz | 8 mT | Long-term exposure | Rat | — | Mitochondrial damage | [161] | ELF-MF 50 Hz | 5 mT | Short-term exposure | Human spermatozoa | Constant | Increased mitochondrial metabolism efficiency | [149] | ELF-MF 50 Hz | 100 μT | Long-term exposure | Rat | Constant | Decreased antioxidant defences Decreased sperm motility | [103] | ELF-MF 60 Hz | 1 mT | Long-term exposure | Rat | — | Mitochondrial damage | [150] | ELF-MF 50 Hz | 100–500 μT | Long-term exposure | Rat | Constant | No on effect rat sperm count No effect on oxidative stress Increased caspase 3 activity | [109] | ELF-MF 50 Hz | 500 μT | Long-term exposure | Rat | — | No effect on oxidative stress | [147] | ELF-MF 120 Hz | 2.5–8 mT | Short-term exposure | Mouse germ cells | — | Decreased viability Increased ROS production Increased apoptosis | [148] | ELF-MF 50 Hz | 2.5 mT | Short-term exposure | Mouse germ cells | — | No effect on mitochondria Increased ROS production Decreased bcl-2 protein level |
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