Unknown authors · 2025
Researchers used 21 New Zealand rabbits divided into three groups of seven, with a control group and two groups exposed to 1800 MHz and 2100 MHz radiation. Exposure was maintained at a constant power intensity of 15 dBm for 38 minutes per day under non-thermal conditions with RF levels about ten times lower than normal. Blood-brain barrier permeability was assessed by measuring Evans blue dye in brain tissue using spectrophotometry at 620 nm. No statistically significant difference was found for 1800 MHz exposure, but 2100 MHz exposure produced a statistically significant difference at the 95% confidence level with a decrease in EB values.
Unknown authors · 2025
Researchers exposed mice to 5G signals at 3.5 GHz for six weeks, finding no changes in behavior, memory, or anxiety levels. However, the radiation did alter gene expression in brain cells, particularly affecting genes related to brain communication pathways. The study shows 5G can cause biological changes even when behavioral effects aren't obvious.
Narayanan SN et al. · 2025
Male albino Wistar rats aged four weeks were exposed to 900 MHz radiation from a cellphone for four weeks at one hour per day. In the contextual fear conditioning test, the RF-EMR exposed group showed considerably elevated bright and dark compartment transitions and a significant decrease in latency to enter the dark compartment. Apoptosis was apparent in the CA3 region and perivascular space was significantly increased in the hippocampus of the radiation-exposed group. Lymphocytic infiltrates, congested sinusoids, and apoptotic-like changes were evident in the zona fasciculata, while the cytoarchitecture of the adrenal medulla was comparable in all three groups.
Unknown authors · 2025
Swiss researchers exposed 34 people to 5G signals (3.6 GHz and 700 MHz) for 30 minutes before sleep and monitored their brain waves during sleep. They found that people with a specific genetic variant showed altered brain wave patterns (faster sleep spindles) only when exposed to 3.6 GHz 5G radiation. This suggests that genetic differences may determine how sensitive individuals are to 5G's effects on brain activity during sleep.
Unknown authors · 2025
Researchers exposed 9-day-old chicken embryos to Wi-Fi radiation (2.4 GHz) for the entire incubation period and found cellular damage in developing kidney tissue. While overall organ development appeared normal, the radiation caused degenerative changes, increased cell death, and altered gene expression in the mesonephros (embryonic kidney). This suggests Wi-Fi radiation can disrupt normal tissue development even at low power levels.
Altun G, Kaplan S · 2025
This study exposed pregnant rats to 900 MHz cell phone radiation (similar to 2G/3G frequencies) for 2 hours daily throughout pregnancy, then examined brain changes in their male offspring. Researchers found fewer neurons in key appetite-control brain regions, increased anxiety behaviors, and altered expression of genes linked to obesity. Neither melatonin nor omega-3 supplements protected against these effects.
Unknown authors · 2025
Temperature was the dominant factor, with optimal development at 30–32 °C. RF exposure at 18 GHz accelerated development at intermediate temperatures, but extreme RF and suboptimal temperatures prolonged development. Aedes aegypti was more sensitive to temperature changes than Aedes albopictus.
Sailo L et al. · 2025
Researchers gave a symptom questionnaire to 183 highly exposed and 126 reference residents matched on demographics in a hilly city in Mizoram, India. They measured RF-EMF levels in residents' lounge rooms and compared symptoms between those living closer than 300 meters and farther than 400 meters from base stations. Residents living closer reported more symptoms in all four health categories, and higher exposure levels were the only factor predicting the number of symptoms.
Dom NC, Dapari R, Halim NMHNA, Rahman ATA · 2025
Unknown authors · 2025
Researchers continuously exposed chicken embryos to Wi-Fi radiation at 2.4 GHz and 300 µW/m² for 9 and 14 embryonic days. Standard haematoxylin and eosin staining showed no notable differences in large blood vessel structure between exposed and control groups. Special staining methods revealed an adverse effect of Wi-Fi on the fibrous elements of the vessel wall. Elastic fiber optical density decreased significantly at both 9 and 14 embryonic days, while collagen fiber optical density increased at day 9 and decreased at day 14.
Unknown authors · 2025
Unknown authors · 2025
Researchers exposed planaria to a theta burst electromagnetic field of 1 μT intensity and 100 Hz bursts in a T-maze with an aversive light stimulus. Planaria that received only the light stimulus learned to avoid the associated maze arm, shown by a significant decrease in preferred arm selections. Planaria exposed to the electromagnetic field before or after light exposure did not show this learning, as their arm selections remained stable.
Levitt et al · 2025
De Borre E, De Massia C, Boone MN, Müller P, Thielens A · 2025
Er H, Basaranlar G., Derin N., Kantar D, Ozen S. · 2025
Researchers exposed adult rats to 2100 MHz RFR for 2 hours per day, 5 days per week, for either 1 week or 10 weeks, with sham controls. In the 1-week exposure group, all auditory brainstem response wave latencies were prolonged, oxidative stress markers increased, and antioxidant enzyme activities decreased. Acute exposure also caused edema in neurons, astrocytes, and astrocytic end-feet, as well as mitochondrial damage in astrocytes. The 10-week exposure group showed no harmful effects on the auditory system.
Unknown authors · 2025
Researchers evaluated the impact of 2.45GHz Wi-Fi radiation exposure for 4 hours daily over a consecutive 30-day period on neurobehavioral and brain oxidative stress parameters in adult zebrafish. Post-exposure assessments revealed significant neurobehavioral impairments, altered locomotion, decreased neurotransmitter levels (AChE), and increased oxidative stress.
Günay S, Delen K, Özkan ET, Kuzay Aksoy D, Sırav Aral B · 2025
Unknown authors · 2025
The study evaluated the in-vitro impact of simultaneous exposure to 5G-modulated 3.5 GHz and GSM-modulated 1.8 GHz signals on neuronal electrical activity, mitochondrial ROS production, and cellular stress protein responses. Primary cortical neurons and human immortalized skin fibroblasts were exposed at SARs of 1 or 4 W/kg for 15 minutes or 24 hours, respectively. No significant effects were found on the mean bursting rate or mean firing rate of cortical neurons, mitochondrial ROS production in fibroblasts remained unaffected, and HSF1 basal activity and responsiveness to MG132 showed no change. BRET assays detected only minor, inconsistent variations in RAS and PML basal activity and drug responsiveness, near the detection threshold.
Unknown authors · 2025
Researchers exposed female Wistar rats to 700MHz radiation for short-term (6 hours daily for 10 days) and long-term (4 hours daily for 60 days) periods. No changes were seen in estrous cycles or DNA damage in either exposure group. Testosterone levels increased significantly in exposed rats, while estradiol and progesterone remained normal. Exposed ovaries showed elevated malondialdehyde and reduced superoxide dismutase, total sulfhydryl content, and ferric reducing antioxidant power. Histopathology revealed no significant ovarian morphology changes after short-term exposure but cystic follicles and abnormal vasculature after long-term exposure.
Unknown authors · 2025
Researchers exposed newborn male Drosophila melanogaster to 3.5 GHz RF-EMF at 0.1, 1, and 10 W/m2 continuously throughout their life cycle in constant darkness. Metabolomic analysis after long-term exposure revealed disruptions in four metabolic pathways and 34 differential metabolites. Key metabolites including GABA, glucose-6-phosphate, AMP, N-formylglycinamide nucleotide, LPC, and MG showed significant decreases. The authors suggest that long-term electromagnetic wave treatment may reduce overall metabolic levels in fruit flies.
Unknown authors · 2025
Gelenli Dolanbay E et al. · 2025
Pregnant Wistar Hannover rats were divided into sham control, full-gestation exposure (3T RFR), and late-gestation exposure (2T RFR) groups with 2 hours of exposure per day. Male offspring were euthanized at 12 months for testicular analysis. In the full-gestation exposure group, seminiferous tubule diameter and epithelial height were significantly reduced compared to controls. Abnormal sperm morphology increased significantly in the full-gestation exposure group. DNA damage markers and apoptosis were elevated in both exposure groups compared to sham.
Unknown authors · 2025
Researchers exposed female rats to 700MHz 5G radiation for either 10 days (6 hours daily) or 60 days (4 hours daily) to study reproductive effects. While hormone levels and fertility cycles remained mostly normal, long-term exposure caused oxidative stress in ovaries and tissue changes including cystic follicles. The findings suggest prolonged 5G exposure may harm reproductive organs through cellular damage.
Syed Taha SMA et al. · 2025
Male Sprague Dawley rats (n = 6 per group) were exposed for 60 days to 3.5 GHz or 24 GHz RF-EMF for 1 h/day or 7 h/day, and testicular cytokines, apoptosis-related genes, and sperm quality were evaluated. IL-10 was significantly reduced in the 24 GHz group at both 1-h and 7-h exposure duration, and at 7 h TNF-α was also lower at 24 GHz. Casp3 expression was higher and Tp53 was lower at 3.5 GHz at 1-h exposure duration. Sperm concentration and viability were reduced after 24 GHz exposure at 7 h, while sperm motility was reduced after 3.5 GHz exposure at both durations.
Unknown authors · 2025
Researchers exposed developing rats to 900MHz cell phone radiation at levels considered safe by current regulations (0.08 and 0.4 W/kg SAR). They found significant changes in brain development, including reduced brain growth factors, altered cell division, and disrupted formation of neural connections. The study suggests developing brains may be particularly vulnerable to wireless radiation even at supposedly safe exposure levels.
