RF SAFE / PUBLIC-HEALTH ADVOCACY SINCE 1998
Thousands of comments. Decades of research. One enduring mission: protect children and future generations by bringing wireless safety standards into line with the evidence.
The 2026 comment periods have closed. The public record remains open to everyone.
THE PUBLIC RECORD / OCTOBER 2026
The HHS and FCC proceedings drew thousands of submissions on wireless radiation, health, and federal oversight. RF Safe keeps that participation visible through two independent public-comment archives. Read the experiences, examine the evidence, and share the questions agencies must address.
HHS · HEALTH & RESEARCH
comments received
Explore public submissions on RF/EMF exposure, children and other vulnerable groups, research priorities, and practical exposure reduction.
HHS-OASH-2026-0397
Comment period closed October 21, 2026.
FCC · STANDARDS & OVERSIGHT
reported submissions
Explore public filings concerning RF exposure standards, device testing, long-term exposure, children, and the issues returned to the FCC by the court.
ET Docket 13-84
Comment period closed October 22, 2026.
Submission totals as of October 24, 2026; the FCC figure is RF Safe’s approximate tally. These are proceeding totals, not counts of entries currently displayed in our archives. Sources: HHS notice and received-comment count · FCC notice and deadline.
Public comments bring lived experience, scientific arguments, and policy proposals into view. The volume shows substantial engagement; the substance deserves careful evaluation. RF Safe calls for agencies to explain how they assess the evidence, identify research gaps, and act to reduce avoidable exposure.
Melnick and Moskowitz estimate that the current public whole-body limit can be 15 to 900 times above exposure levels associated with a one-in-100,000 excess cancer risk, depending on daily exposure duration.
The same EPA-method assessment estimates that the current limit is approximately 8 to 24 times above levels intended to protect sperm count, sperm vitality, and testosterone.
The controlling limits remain rooted in short-term thermal injury, while chronic exposure, modulation, vulnerable life stages, and non-thermal endpoints require direct evaluation.
The comment period has closed. RF Safe calls for a transparent response addressing children, long-term exposure, pulsation and modulation, realistic device testing, and environmental effects.
Ronald L. Melnick, who designed the National Toxicology Program radiofrequency studies, and Joel M. Moskowitz applied standard U.S. Environmental Protection Agency risk-assessment methods to animal cancer and male-reproductive data. They estimated cancer-risk reference levels of approximately 0.8 to 5 milliwatts per kilogram and male-reproductive reference levels of approximately 3.3 to 10 milliwatts per kilogram, compared with the FCC/ICNIRP general-public whole-body limit of 80 milliwatts per kilogram.
The largest cancer multiple is an all-day-exposure scenario; it is not one universal factor for every person or device. At eight hours per day, the authors estimate that the current limit is at least about 200 times too high for the cancer-risk target they used. That qualification makes the result more informative, not less alarming: a limit presented to the public as protective changes by orders of magnitude when lifetime risk and exposure duration replace acute heating as the question.
Read the open-access paper and the authors’ summary.
THE RF SAFE RESEARCH PROGRAM
How a field is delivered, which biological system receives it, and whether that system can recover are different questions. RF Safe connects the evidence on exposure with a research program focused on timing, repair, and resilience.
Frequency, intensity, pulse structure, duration, and recovery intervals.
Ion channels, calcium timing, mitochondria, redox chemistry, and cellular state.
Coordination, repair capacity, developmental timing, and response to a second stress.
The Cellular Latent Learning Model (ceLLM) explores how a cell’s physical organization constrains its responses. DNA, chromatin, and molecular machinery provide durable structure; membrane voltage, metabolism, calcium signals, and surrounding tissue supply changing context.
The practical question is whether perturbing those relationships changes the cell’s ability to respond appropriately. Tests should measure function, timing, and recovery alongside gene expression. This is a conceptual research framework, not a claim that cells literally run an artificial language model.
The framework links voltage-sensitive membrane machinery, mitochondrial calcium and energy handling, and spin-dependent chemistry. Density gating asks whether the abundance, arrangement, and operating state of these components help explain why responses differ across tissues and experimental conditions.
A useful test compares different receiver states under the same carefully measured exposure. Researchers can then alter a candidate pathway and ask whether the response changes or disappears. Frequency-specific coupling and exposure relevance must be demonstrated; a mechanism observed under one set of conditions cannot simply be assumed at every wireless frequency.
Explore the biological receiver → · Read the pathway overview ↓
RF Safe’s low-fidelity-biology hypothesis asks whether repeated perturbations reduce the capacity to maintain coordination and recover from other stresses. The proposed consequence is a shared loss of resilience with varied downstream outcomes, influenced by developmental stage, genetics, and prior exposures.
The decisive study should examine multiple tissues in the same exposed animals, using blinded comparisons and a standardized second stress. Measure recovery time, antioxidant and repair capacity, and calcium–energy coordination. Test whether restoring an upstream function improves several outcomes together.
The model must also face a clear contrary result: if relevant exposures leave recovery and reserve intact in well-controlled studies, that weighs against the proposed mechanism. Different outcomes alone do not establish a shared cause.
Animal findings identify hazards; human studies assess associations; mechanistic experiments test pathways. A convincing account must explain both positive and null results without treating every biological change as a disease.
RF Safe is a public-health advocacy and research project, not a product company. It has worked at the forefront of radiofrequency safety since the 1990s with one purpose: protect children and future generations from avoidable exposure by bringing policy into alignment with modern physics, biology, toxicology, and realistic patterns of use.
Founded in 1998 by John Coates, RF Safe grew out of personal loss. After his firstborn daughter, Angel Leigh, died with a neural-tube defect in 1995, Coates began investigating preventable environmental influences on development and redirected his engineering work toward reducing unnecessary radiofrequency exposure. That mission has continued for nearly three decades.
RF Safe stopped selling consumer products in 2020. Its historical engineering designs remain open for public use, but the work today is centered on evidence, public education, and policy. That includes a research library of more than 6,500 studies, open SAR comparison tools, a mechanistic S4–Mito–Spin research framework, and a policy program focused on enforceable exposure reduction.
Personal precautions can lower an individual exposure, but they cannot repair an obsolete national standard or redesign a school network. RF Safe therefore calls for four structural changes: modernize the FCC limits; reinvigorate the federal research and public-health duties established by Public Law 90‑602; repeal or reform the health-based preemption in Section 704; and require Li‑Fi compatibility so schools, homes, healthcare facilities, and workplaces can move routine indoor data traffic from microwave radiofrequency carriers to localized optical links.
No sticker, chip, case, pendant, or shielding accessory can substitute for protective standards and lower-exposure infrastructure. RF Safe has not sold consumer products since 2020, but it does evaluate designs and technologies and may identify them as RF Safe Approved when they satisfy transparent, physics-first exposure-reduction principles. This can include optical alternatives such as Li‑Fi and case designs developed through decades of RF Safe research and testing, including QuantaCase™ and TruthCase™, which were engineered to avoid recognized design red flags.
RF Safe approval is not a claim of zero exposure, medical protection, or a substitute for safer policy. It indicates that a product’s stated function is consistent with known physics, its limitations are communicated honestly, and its complete design avoids foreseeable ways of making exposure worse. For phone cases, that means preserving antenna performance, avoiding unnecessary metal or magnetic structures near antenna systems, teaching correct shielding orientation, and evaluating the functioning phone rather than merely testing a detached fabric sample. Claims should be supported by realistic system-level testing across relevant frequency bands, signal conditions, and user positions.
Heating is a real interaction, but it is not the only biologically relevant question. Living cells encode information in membrane voltage, calcium pulse timing, mitochondrial electrochemical gradients, redox state, and spin-dependent reaction probabilities. The RF Safe framework organizes three plausible receiving and amplifying layers:
These pathways converge on what RF Safe calls bioelectrical dissonance: repeated perturbations that arrive faster than a biological system can correctly terminate, repair, and recover. The predicted result is low-fidelity biology—not a single disease unique to RF exposure, but a control-layer state in which timing, repair, differentiation, mitochondrial quality control, and tumor suppression become less precise. In that state, rare failures can become less rare and age-associated failures can move earlier in life. Genetics, air pollution, nutrition, infection, stress, pharmaceuticals, and other exposures can contribute to the same recovery burden; radiofrequency exposure should be evaluated as a potentially modifiable co-contributor, not dismissed because biology is multifactorial.
This is a research framework, not an established causal explanation for every exposure or health outcome. It generates measurable predictions: waveform-dependent changes should appear first in ion-channel behavior, calcium dynamics, redox chemistry, mitochondrial membrane potential, or recovery kinetics, and only later in persistent functional outcomes. That is the research program a modern exposure standard should encourage. Explore the S4–Mito–Spin overview and diagrams.
The work connects public participation, biological mechanism, exposure literacy, and safer infrastructure. Each is necessary; none is a substitute for the others.
HHS archive · FCC archive · Understand the remand · Action hub
S4–Mito–Spin framework · Framework explainer · Ion visualization · ROS visuals
SAR‑share tools · Compare specific phones · Spot misleading protection claims
Section 704 · Public Law 90‑602 / HHS · Li‑Fi compatibility and Clean Ether
The controlling FCC radiofrequency limits date to 1996 and are organized around avoiding excessive short-term heating and acute stimulation. They were not derived as lifetime cancer or reproductive-toxicity standards, and they do not directly regulate many biological variables now central to RF research: chronic duration, pulse structure, developmental timing, recovery, and interactions among multiple transmitters.
In Environmental Health Trust et al. v. FCC, the D.C. Circuit held that the agency had not provided a reasoned explanation for retaining its limits with respect to non-cancer effects. The court remanded the matter and directed the FCC to address evidence concerning children, long-term exposure, signal pulsation and modulation, rapidly changing wireless use, testing procedures, and environmental effects. The ruling did not calculate a replacement limit; it required the agency to confront the record it had not adequately explained.
The FCC must complete the remand transparently, disclose how it weighs conflicting evidence, use independent health expertise, and replace acute heating limits with standards that protect across a lifetime. Until that process is complete, agencies should adopt precautionary exposure-reduction guidance, especially for children, pregnancy, schools, and chronic near-body use.
The National Toxicology Program completed one of the largest controlled radiofrequency animal studies ever conducted, then discontinued further cell-phone-RF work. Ending follow-up after a positive cancer signal leaves essential questions about dose, waveform, developmental timing, susceptibility, and replication unresolved.
Restore a long-term, publicly funded RF research program with preregistered protocols, independent exposure engineering, open data, blinded pathology, modern 4G/5G and Wi-Fi waveforms, developmental cohorts, reproductive endpoints, and direct replication of positive findings.
The FCC is a communications regulator, not a public-health research agency, yet its limits determine what the public is told is acceptable. Confidence collapses when standard-setting bodies, advisory groups, and review teams are dominated by overlapping professional networks without rigorous conflict-of-interest safeguards or visible consideration of dissenting evidence.
Place the health-risk assessment under agencies with statutory public-health competence, require genuinely independent multidisciplinary panels, preserve minority scientific reports, and subject the final standard to periodic review as technology and evidence change.
Section 704 of the Telecommunications Act preserves some local zoning authority but bars state and local regulation of wireless-facility placement based on the environmental effects of RF emissions when a facility complies with FCC regulations. That preemption makes the adequacy of the federal limit decisive: communities cannot use health-based siting authority to compensate when the national standard is obsolete.
Repeal or reform the health-based preemption in Section 704, restore meaningful local participation, and require that siting decisions consider cumulative exposure, schools, childcare settings, healthcare facilities, and lower-RF alternatives while preserving reliable communications and emergency service.
The Radiation Control for Health and Safety Act of 1968, commonly known as Public Law 90‑602, established a federal program to protect the public from unnecessary electronic-product radiation. Its research, evaluation, information, and control responsibilities are directly relevant to phones, tablets, routers, wearables, and other RF-emitting products.
Use the authority Congress already created. HHS and FDA should rebuild a continuous electronic-product-radiation program with adequate funding, independent laboratories, public protocols, and recurring review of new wireless technologies. RF Safe calls for:
Public Law 90‑602 supplies the institutional foundation for sustained oversight. The task now is to fund and use it in a manner proportionate to an exposure that has become continuous, personal, and nearly universal.
Many products advertise that a material blocks a high percentage of incident radiation. That statement says little about exposure from a complete, communicating device. Phones continually adjust power and select antennas in response to connection quality, frequency band, orientation, the user’s hand, and nearby materials. A shield that obstructs one path can change the radiation pattern or cause the phone to compensate with greater transmit power.
The FTC should require substantiation for RF-reduction claims, prohibit the use of raw-material attenuation tests as proof of whole-product protection, and require disclosure when a design may obstruct antennas or alter adaptive power control. Consumers should favor measures that work by basic physics: more distance, shorter active-use time, speaker mode or an appropriate wired connection, airplane mode when connectivity is unnecessary, and a strong network signal that allows a phone to use less power.
Li‑Fi carries data through modulated visible or infrared light rather than a microwave radio carrier. It is not a cure-all and does not automatically disable every radio in a device, but it can replace a substantial share of routine indoor RF traffic when equipment is designed to make optical connectivity a genuine option.
This is no longer a speculative communications concept. IEEE 802.11bb‑2023 added light communications to the 802.11 wireless-networking family. The remaining barriers are compatibility, procurement, and deployment priorities.
Require interoperable Li‑Fi capability in new phones, tablets, laptops, access points, and public procurement standards; prioritize wired and optical connections in schools and healthcare settings; provide a user-controlled hardware method to disable unnecessary RF transmitters; and fund comparative exposure, performance, accessibility, and cybersecurity testing. The goal is not to ban communication. It is to make high-speed communication possible with substantially less compulsory RF exposure.
Supporting RF Safe means supporting a public record, a research program, and a policy transition designed to protect children—not purchasing a product.
FROM EVIDENCE TO PUBLIC PROTECTION
RF Safe advocates a Clean Ether Act that makes exposure reduction a responsibility of institutions as well as individuals. The goals below are proposals for reform—not a claim that new protections have already been enacted.
Fund long-term research, publish protocols and data, and require transparent responses to conflicting findings.
Disclose test distances, evaluate body-contact conditions, and audit complete devices in realistic transmitting configurations.
Prioritize fiber and wired connections, interoperable Li-Fi, and user control over unnecessary transmitters.
A compliance result is meaningful only when the test conditions are disclosed. RF Safe calls for transparent body-contact testing, retail-device audits, and publication of separation distances, active radios, power settings, and measurement uncertainty.
Our reporting examines the FCC’s handling of close-distance test data and Europe’s move toward body-contact testing. Comparisons must preserve the difference between U.S. and European averaging methods; a number from one system is not automatically interchangeable with the other.
Agencies should disclose expert-selection criteria, financial and institutional conflicts, evidence-grading methods, and reasons for accepting or rejecting research. RF Safe calls for scrutiny of standards-setting bodies, including ICNIRP, and a review process that allows independent experts to challenge assumptions.
The public should be able to trace how a study becomes—or fails to become—part of a safety decision. Scientific disagreements require a documented answer, and a published standard should be revisited as evidence and technology change.
RF Safe’s proposal brings together modern exposure assessment, sustained federal health research, reform of Section 704, transparent device testing, and wired and optical alternatives. Children’s environments are a priority for deployment and exposure-reduction planning.
Li-Fi compatibility is one part of the program. Optical networking can replace suitable indoor RF links, while fiber and Ethernet provide the backbone. Equipment still needs optical-safety, performance, accessibility, and security evaluation; enabling Li-Fi does not automatically turn off a device’s other radios.
Explore the Light Age proposal → · Review all seven policy goals ↑
RF Safe’s engineering and educational materials explain how antenna clearance, shielding orientation, and a phone’s power control affect exposure. The historical TruthCase™ and QuantaCase® designs are part of that record. A product claim should stand on transparent testing of the complete, functioning device.
The archive remains relevant because it teaches a durable principle: shielding claims must be evaluated as part of a live radio system. Orientation, antenna clearance, adaptive power control, distance, network quality, and user behavior matter. The lasting solution, however, is not a better accessory. It is protective law, honest testing, independent research, and infrastructure that gives the public a lower-RF choice.
The comment periods have ended; the work continues. Help keep the public record visible, support independent research, and advocate for standards and infrastructure that reduce avoidable exposure.
Explore the HHS archive and FCC archive. Share individual submissions with researchers, journalists, and community leaders, keeping original sources and context attached.
Ask HHS and Congress to restore NTP-quality RF research and fully implement Public Law 90‑602.
Support repeal or reform of Section 704 so communities can consider health, cumulative exposure, and lower-RF alternatives in infrastructure decisions.
Ask schools, agencies, manufacturers, and legislators to make wired and optical networking the default wherever radiofrequency transmission is unnecessary.
The evidence base is no longer compatible with the assumption that preventing measurable tissue heating resolves the RF-health question. Controlled animal studies, human observational signals, cellular and molecular experiments, therapeutic applications, and the 2026 quantitative risk assessment converge on a public-health conclusion: biological effects beyond acute heating must be evaluated directly. Uncertainty about the size of a particular human risk is a reason to improve exposure science and reduce avoidable exposure; it is not a scientific basis for treating the 1996 limit as permanently protective.
No single study carries this case. The warning comes from convergence across independent methods and endpoints, combined with the exceptional scale and duration of modern exposure. Standards should be designed to protect vulnerable populations—especially children—before every downstream outcome can be reconstructed in humans over several decades.
Exposure limits to radiofrequency EMF do not account for cancer risk or reproductive toxicity applies standard EPA risk-assessment procedures to tumor and male-reproductive findings from laboratory animals. The comparison is with the FCC/ICNIRP public whole-body SAR limit of 0.08 watts per kilogram, or 80 milliwatts per kilogram.
Regulatory inaction poses significant risks to public health, especially for vulnerable populations such as children. Furthermore, the misclassification of RF-EMF risks has impeded the advancement of life-saving medical interventions that could harness non-thermal effects for therapeutic purposes.
These studies inform the debate over exposure standards and research priorities. RF Safe calls for independent replication, rigorous evaluation of contrary findings, and sustained federal research into long-term exposure and biological mechanisms.
Explore RF Safe's open SAR Comparison Database to see the values manufacturers report under standardized compliance tests. SAR can compare tested absorption under specific configurations, but it does not measure lifetime safety, modulation-sensitive biology, cumulative multi-source exposure, or every real-world use condition. Cell Phone Model Index
Discover RF Safe’s exclusive interactive charts to compare phone radiation levels, explore how children’s exposure differs from adults, and learn practical ways to lower RF exposure. Compare All Phones
Children’s anatomy, development, and longer lifetime of cumulative use warrant explicit analysis. Explore our child vs. adult exposure visualizations.
Compare reported compliance-test values in RF Safe’s interactive SAR chart explorer.
Turning off unused transmitters significantly lowers exposure. See our radio‑off checklist.
Selected RF Safe reading. Live headlines appear when the feed is available.
RF Safe was established as a platform to raise awareness about EMF exposure. For more information or press inquiries, contact John Coates:
Phone: 727-244-4752
RF Safe does not sell a product solution. We maintain an open research and engineering record, teach practical exposure reduction, and advocate for the changes individuals cannot make alone: modern health-based limits, independent federal research, restored local rights, honest product testing, and Li‑Fi-compatible infrastructure.
The public should not have to prove a separate disease for every waveform before regulators examine whether chronic exposure is degrading the biological systems that maintain timing, repair, development, and recovery. The rare becoming less rare, and age-associated failures arriving earlier, are precisely the population-level warning pattern that the low-fidelity-biology framework asks science and policy to investigate.