A multicenter case-control study in Iran reported that self-reported prolonged mobile phone use was associated with higher odds of confirmed and suspected breast cancer status. The authors emphasize that the findings do not imply causation and note limitations including self-reported exposure and potential residual confounding. They call for larger prospective studies with objective exposure assessment.

This RF Safe commentary argues that if HHS and FDA pursue a “reset” on cellphone radiation policy, they should fund mechanistic, predictive biology rather than relying on literature summaries or general safety reassurances. It cites the NTP rat bioassays and a WHO-commissioned animal cancer systematic review (Mevissen et al., 2025) as motivation, emphasizing reported tissue-selective findings and non-monotonic dose patterns. The post proposes a mechanistic framework (“S4–Mito–Spin”) and calls for research to map boundary conditions across tissues and exposure parameters to inform standards beyond SAR/thermal assumptions.

This RF Safe article reports that in mid-January 2026 HHS, led by Secretary Robert F. Kennedy Jr., removed or redirected certain FDA webpages that previously conveyed strong “no-risk” conclusions about cellphone radiation. It argues the updated FDA framing emphasizes statutory duties (monitoring, testing, hazard control) and signals a shift from definitive safety messaging toward renewed inquiry, while noting that details of any planned research have not been publicly disclosed. The piece also highlights Kennedy’s past public statements alleging harms from Wi‑Fi/5G and links the policy context to the 2021 D.C. Circuit remand of FCC RF policy.

RF Safe reports that the U.S. FDA substantially revised its cellphone radiation webpages around January 15, 2026, removing or reducing prior language that broadly reassured the public about safety. The article argues the new framing more closely reflects the FDA’s statutory responsibilities under the Radiation Control for Health and Safety Act of 1968 (Public Law 90-602), emphasizing research, monitoring, and public information rather than definitive safety conclusions. It also links the change to a reported HHS announcement of a new study and portrays the update as a shift toward greater transparency, while noting some safety language may remain on the page.

RF Safe promotes its QuantaCase (also called TruthCase) as a leading “anti-radiation” phone case for 2026, emphasizing a directional shielding design intended to deflect RF energy away from the body. The article argues the product aligns with consumer-safety guidance such as keeping phones away from the body and using hands-free modes, and it claims RF Safe’s earlier advocacy influenced FTC/FCC warnings about ineffective or counterproductive shielding products. It cites comparisons, user reviews, and an “independent” 2017 TV review as support, but presents limited verifiable technical detail in the excerpt.

RF Safe critiques the anti-radiation phone case market for relying on headline percentage-blocking claims that may reflect tests of shielding material rather than real-world phone behavior in a case on a live network. The article argues that poorly designed or misused shielding cases can interfere with a phone’s signal and prompt higher transmit power, potentially increasing exposure in some scenarios. It positions RF Safe’s QuantaCase/TruthCase as avoiding percentage marketing claims and emphasizes a systems-engineering approach to testing and use, while noting that health causation from typical consumer RF exposure remains debated by authorities.

RF Safe argues that “anti-radiation” phone case marketing based on universal “99% blocking” claims is misleading because real-world phone emissions vary with signal conditions, orientation, and how a case affects the antenna. The post positions RF Safe’s TruthCase/QuantaCase as more credible specifically because it refuses to advertise a single percentage reduction and instead emphasizes design constraints intended to avoid prompting a phone to increase transmit power. It cites a KPIX 5 (CBS San Francisco) test as an example of how flip cases can reduce exposure in some configurations but potentially increase it in others when used differently than intended.

RF Safe argues that many “anti-radiation” phone cases market misleading “% blocked” claims based on lab material tests rather than whole-device, real-world performance. The article promotes RF Safe’s TruthCase/QuantaCase as a “physics-first” design that avoids advertising a single blocking percentage and emphasizes directional shielding and user education. It cites a 2017 CBS San Francisco/KPIX test as an example of how some flip-style shielding cases can reduce measured RF in certain orientations but may increase readings in other common-use configurations.

RF Safe argues that many “anti-radiation” phone cases use misleading marketing (e.g., fabric-swatch tests, vague “FCC tested” claims) and that some designs may cause phones to increase transmit power if they interfere with antennas. The article provides a checklist of red flags (magnets/metal plates, detachable shields, unclear orientation instructions) and emphasizes behavioral steps to reduce RF exposure. It promotes RF Safe’s QuantaCase as a “directional shielding” design intended to reduce exposure on the body-facing side while avoiding signal blockage that could prompt higher power output.

RF Safe promotes an “Act Now” hub intended to convert EMF safety concerns into policy and regulatory actions, emphasizing accountability and exposure reduction, especially for children. The page outlines five advocacy “levers,” including changing Section 704 of the Telecommunications Act, pressing the FCC to complete actions following a court remand, and restarting a federal electronic-product radiation program. It frames current RF oversight as outdated and insufficient for modern exposure patterns, and provides scripts to help supporters submit comments and demands into official records.

This article summarizes expert presentations and a panel discussion on radiological protection systems for ionizing and non-ionizing radiation at an international congress. It highlights that ionizing radiation protection is mature and continually revised, while non-ionizing radiation protection lacks a comparable international framework. The authors emphasize that emerging non-ionizing technologies create complex exposure scenarios and unresolved concerns about chronic and acute exposures, calling for a more cohesive and protective framework.

This animal study tested whether short-term 28 GHz (5G-band) millimeter-wave exposure modifies doxorubicin-induced cardiotoxicity in male rats and whether vitamin C mitigates effects. Co-exposure to 28 GHz EMR was reported to worsen several indices of DOX-related cardiac injury (including CAT reduction, increased BAX expression, and QT prolongation), while vitamin C provided partial attenuation. The authors emphasize that results are limited to a short-duration preclinical model and that human relevance remains preliminary.

This exposure assessment measured outdoor micro-environment RF-EMF levels in daily-life settings across urban and suburban locations in Japan using a portable device (50 MHz–6 GHz) with GPS. Reported exposure levels were higher in urban areas, with railway stations showing the highest levels among the environments measured. The authors emphasize the need for further comprehensive studies and frame prolonged RF-EMF exposure as an ongoing public health concern.

RF Safe argues that the established term “electromagnetic hypersensitivity” (EHS) should not be replaced by the newer label “EMR Syndrome,” claiming the rebranding fragments research and weakens advocacy. The piece frames EHS as a continuity-based concept tied to reported symptoms in EMF-rich environments and emphasizes practical mitigation via engineering, architecture, and policy—especially to reduce children’s exposure. It uses “EMR Syndrome” narrowly to describe what it portrays as an ideological, anti-technology pattern that blocks solutions rather than a physiological condition.

RF Safe argues that non-native electromagnetic fields (EMFs) can affect biology through timing and redox mechanisms even without tissue heating, framing this as a challenge to common safety narratives focused on thermal effects. The post links circadian disruption (citing a 2025 Frontiers in Psychiatry paper on ADHD and circadian phase delay) to broader vulnerability of biological timing systems, and proposes an “S4–Mito–Spin” framework involving ion-channel timing noise, mitochondrial oxidative stress amplification, and radical-pair/spin chemistry. It also cites a 2018 PLOS Biology study as mechanistic support for cryptochrome-dependent ROS changes under weak pulsed EMF exposure, while presenting these points as converging evidence rather than definitive proof of harm in real-world exposures.

RF Safe argues that companies marketing wireless connectivity to children should adopt a precautionary, “ethical connectivity” approach rather than relying on existing U.S. RF exposure rules. The piece claims current FCC guidelines are outdated and cites a 2021 D.C. Circuit decision criticizing the FCC’s retention of its RF limits, along with assertions about WHO-commissioned reviews and animal evidence. Overall, it frames wireless exposure for children as a credible risk and emphasizes regulatory lag and legal constraints as reasons for voluntary industry action.

An RF Safe commentary argues that persistent, pulsed “non-native” RF electromagnetic noise can disrupt biological “timing coherence,” leading to downstream “fidelity losses,” particularly in electrically active tissues. It also emphasizes that smartphones are adaptive RF systems that change transmit power and modulation, so accessories that detune antennas or distort near-field conditions may cause phones to transmit harder. The piece cites FTC warnings that partial-shield products can be ineffective and may increase emissions by interfering with signal quality, and it argues that material shielding claims do not directly translate to real-world exposure outcomes.

RF Safe publishes a commentary describing a public feud between Dr. Jack Kruse and RF Safe founder John Coates over how to address health concerns attributed to non-native electromagnetic fields (nnEMFs), especially regarding children. The piece portrays Kruse as emphasizing personal “light/circadian” biohacks and Coates as pushing technology and policy changes such as LiFi adoption and repealing/altering telecom-related legal constraints. It includes numerous claims about EMF-related harms and references to research (e.g., NTP/Ramazzini, a Henry Lai meta-analysis) but presents them within an advocacy narrative rather than as a balanced review.

RF Safe presents “S4 MITO spin” as a proposed mechanistic framework arguing that peer-reviewed evidence can be unified to explain reported biological effects from radiofrequency radiation (RFR) and other non-native EMFs. The post highlights animal studies (notably NTP and Ramazzini) as showing carcinogenic “signals” and emphasizes non-linear dose–response patterns, asserting relevance to regulatory exposure limits. It frames the model as empirically grounded and testable, while acknowledging it is not a complete theory of all EMF effects.