This study reports measurements of electric field intensity (E) and magnetic flux density (B) from electric vehicles (inside driver/passenger seats during driving) and EV supply equipment (near chargers during charging) up to 400 kHz in and around Chennai. E and B inside EVs and E around EVSEs were reported to be within ICNIRP/IEEE guideline limits. However, B around certain EVSE positions reportedly exceeded a general public threshold (~200 T), and a preliminary FEM analysis suggested relatively higher fields at charging infrastructure. The authors call for further research on long-term health impacts and recommend policy actions to mitigate exposure.

RF Safe promotes its QuantaCase as the only “truthful” anti-radiation phone case and argues that many competing shielding cases use misleading “percent blocking” claims and can sometimes increase user exposure depending on design and phone behavior. The post mixes product marketing with broader claims about RF-EMF health effects, criticizing current exposure guidelines (e.g., FCC/ICNIRP) as outdated and insufficient for non-thermal effects. It cites various reports and analyses (e.g., a 2017 TV test segment and multiple study-count summaries) but does not provide verifiable study details within the excerpt.

This RF Safe blog post recounts a conversation with xAI’s Grok about RF electromagnetic fields and argues that AI “neutrality” can become biased when it defaults to regulatory consensus (e.g., ICNIRP/FCC) as a proxy for scientific truth. The author claims Grok later acknowledged “regulatory deference” and that evidence from animal studies (NTP, Ramazzini), WHO-commissioned reviews, and proposed non-thermal mechanisms should prompt stronger scrutiny of thermal-only safety standards. The piece frames current RF exposure guidelines as outdated and insufficiently responsive to non-thermal biological-effect evidence.

RF Safe argues that a proposed “S4-Mito-Spin” framework explains non-thermal EMF biological effects and that current exposure standards (e.g., FCC/ICNIRP) are outdated because they focus on thermal limits. The article links EMF exposure to mechanisms involving voltage-gated ion channels (S4 segments), mitochondrial/NOX-driven oxidative stress, and radical-pair (spin) chemistry, and claims these mechanisms align with reported animal and human observations. It calls for regulatory overhaul and policy changes, citing various studies and legal/policy references, but presents these as advocacy claims rather than a balanced review.

An RF Safe article argues that U.S. radiofrequency (RF) radiation governance is structurally flawed due to outdated FCC exposure limits, misaligned agency responsibilities, reduced federal research activity, and federal preemption that limits local action. It promotes the site’s “S4-Mito-Spin” framework as a proposed non-thermal mechanism for RF/ELF bioeffects and cites animal studies (e.g., NTP and Ramazzini) as challenging a thermal-only basis for limits. The piece also discusses policy reforms, including a proposed “Clean Ether Act” and increased use of alternatives such as Li‑Fi, while noting that mainstream bodies (e.g., FDA, ICNIRP) do not consider non-thermal harms established.

This paper evaluates and critiques 12 WHO-commissioned systematic reviews and meta-analyses on RF-EMF health effects across outcomes including cancer and reproductive endpoints. It argues that serious methodological flaws and limitations in the WHO reviews prevent them from providing assurance of safety for cell phones and other wireless devices. The authors highlight reported evidence in the animal cancer review (high certainty for heart schwannomas; moderate certainty for brain gliomas) and describe dose-related adverse effects on male fertility and reproductive outcomes, including at exposure levels below current ICNIRP thresholds.

This numerical study modeled RF exposure from WiFi/5G-type antennas near a 3D brain model with implanted brain pacemakers relevant to Parkinson’s disease. SAR and temperature increases were reported to remain below ICNIRP 2020 limits across modeled conditions, with maxima at a 90° antenna-to-brain angle. Despite compliance with SAR/temperature limits, the authors report modeled thermal strain and tissue displacement that could affect postoperative efficacy, leading them to recommend caution and increased distance from phones.

This scoping review and evidence map (PRISMA-ScR) summarizes over 500 studies on RF-EMF exposure and genotoxicity across in vitro, in vivo, and epidemiological research. The authors report a higher proportion of significant DNA damage findings in in vivo and epidemiological studies than in vitro studies, with DNA base damage commonly reported under real-world/pulsed/GSM talk-mode conditions and longer exposures. They conclude that DNA damage has been observed at exposure levels below ICNIRP limits and recommend precautionary measures and updates to guidelines to address potential non-thermal effects.

This standards-focused paper evaluates ICNIRP and IEEE (C95.1-2019) exposure limits for brief, high-intensity pulsed RF-EMF between 6 and 300 GHz, particularly when exposures vary within the 6-minute averaging window. Using numerical and analytical modeling with a one-dimensional thermal tissue model, it reports differences in protection against transient skin heating, with IEEE described as more conservative than ICNIRP. The authors propose an adjustment to pulse fluence limits to improve consistency of protection and note that nonthermal and thermoacoustic effects were not analyzed.

This paper proposes a new methodology to better assess indoor RF-EMF exposure in buildings near telecommunication base station antennas by refining measurement-point selection. Implemented in four multi-storey buildings in Natal, Brazil, indoor electric field peaks and averages were reported to be substantially higher than ground-level measurements. Although the highest indoor levels remained below ICNIRP recommended limits, the authors argue current regulatory evaluation methods may underestimate indoor exposure in certain building locations.

This exposure-assessment study uses FDTD simulations to evaluate auto-induced downlink RF-EMF exposure at 3.5 GHz when downlink energy is focused toward user equipment near the head. Exposure varied substantially by device position (ear, eyes, nose) and by the precoding technique used. The authors report that the choice of normalization strategy can produce cases where ICNIRP basic restrictions are exceeded even when reference levels appear compliant, motivating a precautionary framing for compliance assessment.