Unknown authors · 2025
Researchers exposed pregnant rats to 900 MHz EMF radiation (similar to cell phone frequencies) during different stages of pregnancy and examined brain damage in their offspring 28 days after birth. They found that exposure during the final week of pregnancy (days 15-21) caused significant brain cell death in the hippocampus, the brain region critical for learning and memory. This timing coincides with a crucial period of brain development when new neurons are forming.
Unknown authors · 2025
Researchers tracked 1,666 pregnant women in Iran from 2015-2019, measuring their exposure to cell phones, cordless phones, and Wi-Fi devices. Women with longer cell phone call durations during pregnancy showed significantly higher rates of miscarriage, abnormal birth weight, and abnormal infant height. The study found that every additional minute of daily cell phone use increased miscarriage risk by 0.6%.
Pal S, Paladhi P, Dutta S, Ghosh P, Chattopadhyay R, Ghosh S · 2025
This study examined 708 azoospermic men and 640 controls from West Bengal to investigate whether genetic variants in meiotic regulator genes (SPO11, RNF212, SYCP3) combined with electronic radiation exposure increase azoospermia risk. The researchers found significant associations between these genetic variations and azoospermia, particularly in men aged 30+ with electronic radiation exposure, suggesting radiation may exacerbate meiotic errors and impair fertility in genetically predisposed individuals.
Özyılmaz C et al. · 2025
Turkish researchers exposed pregnant rats to WiFi-frequency radiation (2.45 GHz) throughout pregnancy, then examined their offspring's thyroid glands one year after birth. The study found significant thyroid damage including increased cell death, DNA breaks, and tissue scarring in animals whose mothers were exposed during pregnancy. This suggests prenatal WiFi exposure may cause lasting thyroid problems that persist into adulthood.
Unknown authors · 2025
Researchers exposed chicken embryos to Wi-Fi radiation (2.4 GHz) for 9-14 days and found significant damage to blood vessel walls. The radiation decreased elastic fibers by 33-62% and disrupted collagen fibers, suggesting Wi-Fi could contribute to cardiovascular problems by weakening blood vessel structure.
Unknown authors · 2025
Unknown authors · 2025
Researchers exposed sperm samples from 102 healthy men to electromagnetic fields from various devices for one hour in an IVF laboratory setting. Mobile phones and Wi-Fi repeaters significantly reduced sperm motility, while other EMF-emitting equipment showed no effect. The findings suggest certain wireless devices may harm male fertility.
Zhang M et al. · 2025
This study examined the relationship between BDNF Val76Met polymorphism and susceptibility to cognitive changes induced by microwave radiation exposure in rats. The research investigated whether genetic variation in brain-derived neurotrophic factor influences vulnerability to microwave radiation-related cognitive effects.
Unknown authors · 2025
Scientists exposed mice to dual-frequency electromagnetic radiation at 0.8/2.65 GHz (similar to cell phone and WiFi frequencies) and found it caused significant anxiety-like behavior. The radiation disrupted the brain's endocannabinoid system, particularly reducing CB1 receptors in the prefrontal cortex that help regulate emotions. This study provides new evidence that common wireless frequencies may affect mental health through specific brain chemistry changes.
Unknown authors · 2025
Researchers exposed mouse brain tissue to 1.94 THz (terahertz) waves for one hour and found significant damage to brain cell connections and communication. The study showed these waves reduced the activity of glutamatergic neurons (brain cells that use glutamate for signaling) and impaired synaptic plasticity, which is essential for learning and memory. Artificially stimulating these neurons helped reverse the damage, suggesting potential protective strategies.
Unknown authors · 2025
Researchers exposed laboratory rats to 1800 MHz electromagnetic fields (cell phone frequency) for 12 weeks and found significant hormonal disruptions, reduced sperm quality, and increased anxiety behaviors. The effects included elevated stress hormone levels, decreased thyroid function, and impaired reproductive health that persisted for weeks after exposure ended.
Narayanan SN et al. · 2025
Researchers exposed young rats to 900 MHz cell phone radiation for one hour daily over four weeks and found significant brain and stress system damage. The radiation caused increased fearfulness, brain cell death in the hippocampus (crucial for memory), and damage to stress hormone-producing glands. This suggests cell phone frequencies may disrupt normal fear responses and brain development.
Unknown authors · 2025
Researchers tested radiofrequency stimulation on 17 healthy volunteers' hands and feet while monitoring brain activity with EEG. They found that RF energy can selectively activate pain-sensing nerve fibers through rapid skin heating, producing measurable brain responses. This technique could offer a new way to study and diagnose pain system function in medical settings.
Unknown authors · 2025
Researchers exposed honey bees to 900 MHz radiofrequency electromagnetic fields (similar to older cell phone frequencies) and tracked their behavior for seven days. The exposed bees showed significant changes in walking, flying, and social contact patterns compared to unexposed bees. These findings add to growing evidence that wireless technology frequencies can disrupt natural animal behaviors.
Unknown authors · 2025
Researchers exposed adult zebrafish to Wi-Fi radiation from a 4G router for 4 hours daily over 30 days, then bred them in EMF-free conditions. The offspring showed increased death rates, physical deformities, and anxiety-like behavior, even though they were never directly exposed to the radiation themselves. This suggests Wi-Fi exposure can damage reproductive health and harm future generations.
Unknown authors · 2025
Researchers exposed rats to 28 GHz millimeter waves (5G frequencies) at power levels near current safety thresholds and measured stress hormone responses. They found that even single exposures altered stress hormones like corticosterone and noradrenaline for days afterward. This suggests 5G frequencies can trigger biological stress responses at levels currently considered safe.
Ma S, Li S, Wang H, Li Y, Lu C, Li X · 2025
This study investigated how terahertz radiation affects neuronal morphology and function in a technical model system. The researchers found that terahertz radiation decreased the membrane area ratio of neuronal cytosol to protrusions, which correlated with changes in neuronal firing patterns, including reduced inter-cluster discharge frequency and action potential amplitude, while increasing intra-cluster discharge and postsynaptic current peaks.
Unknown authors · 2025
Researchers exposed New Zealand rabbits to cell phone radiation at 1800 MHz and 2100 MHz frequencies for 38 minutes daily to test blood-brain barrier permeability. While 1800 MHz showed no significant effects, 2100 MHz radiation caused statistically significant changes to the protective barrier that normally prevents toxins from entering brain tissue.
Unknown authors · 2025
This molecular dynamics simulation study examined how terahertz (THz) waves affect the structure and function of voltage-gated calcium channel Cav1.1 in an in vitro cell membrane model. The researchers found that THz waves at specific frequencies (13.4, 48.7, and 53.2 THz) induced resonance with biomolecules, causing measurable changes in the ion channel's pore radius, secondary structure, and calcium ion permeation properties.
Unknown authors · 2025
This study examined how frequency-specific terahertz radiation (42.5 THz) affects NMDAR-mediated miniature excitatory postsynaptic currents using patch-clamp recordings and molecular dynamics simulations. The researchers found that terahertz irradiation enhanced both the frequency and amplitude of these currents by altering the free energy landscape at the Ca²⁺ binding site within the NMDAR channel, increasing calcium permeability.
Iranfar S, Wallace J, Selmaoui B, Yahia-Cherif L · 2025
Researchers exposed healthy young adults to 900 MHz cell phone signals and measured brain activity using magnetoencephalography (MEG). The study found that even brief exposure altered brain connectivity patterns, particularly affecting communication between regions in the right hemisphere including areas involved in memory and emotion processing.
Unknown authors · 2025
Researchers tested hearing function in 78 young adults (ages 17-24) with different levels of mobile phone usage. They found mild to moderate hearing loss at low frequencies (250-1000 Hz) in participants who used phones more than 30 minutes daily for five years, with 4G users showing more hearing damage than 5G users. The study suggests long-term phone use may damage hearing ability in young people.
Syed Taha SMA et al. · 2025
Malaysian researchers exposed male rats to 5G frequencies (3.5 GHz and 24 GHz) for 60 days and found both frequencies damaged sperm quality and disrupted testicular immune function. The 24 GHz millimeter waves reduced sperm concentration and viability, while 3.5 GHz primarily affected sperm movement. Longer daily exposures (7 hours vs 1 hour) made the damage worse.
Sun L et al. · 2025
This study investigated the effects of sequential exposure to 2.8 GHz and 9.3 GHz microwave radiation (at 10 mW/cm²) on rat hippocampus and cognitive function. The researchers found that compound microwave exposure impaired learning and memory, caused abnormal brain electrical activity, induced structural hippocampal damage, and altered gene expression patterns in peripheral blood, though these effects were reversible by 28 days post-exposure.
Li J et al. · 2025
This study examined how terahertz (THz) radiation at 2.52 THz frequency affects human umbilical vein endothelial cells (HUVECs) in vitro. The researchers found that THz irradiation significantly enhanced the cells' angiogenic capacity by increasing intracellular calcium levels and upregulating angiogenesis-related proteins like VEGF, though it did not affect cell proliferation.
