The rhythm within the wave.
An RF carrier can arrive in bursts. Burst repetition and carrier frequency describe different features. An envelope is not automatically a separate low-frequency electric field at a cell.
Look beyond temperature. Explore signal timing, charged membrane sensors, and a mitochondrial protein implicated in a controlled field experiment.
Explore John Coates’ low fidelity biology framework. Add timing disturbances, combine hypothetical stressors, and examine cellular coordination and resilience.
An RF carrier can arrive in bursts. Burst repetition and carrier frequency describe different features. An envelope is not automatically a separate low-frequency electric field at a cell.
The ion forced-oscillation model proposes that field-driven ions influence charged voltage sensors. The animation illustrates that hypothesis; it does not calculate an exposure threshold or a biological response.
Kim and colleagues identified CYB5B as necessary for their field-responsive gene switch. Its precise sensing role, and applicability to ordinary wireless exposures, remain separate questions.
Panagopoulos et al. · International Journal of Oncology
CONTROLLED EXPERIMENT · 2026Kim et al. · Cell
Also read: 2025 mechanism review · Cell paper correction · Author institution’s study summary.
Playback: source timing is slowed exactly 50×. Displayed cycles per second = selected Hz / 50. The trace shows a fixed 250 ms physical time window (12.5 seconds of playback); faster repetition produces more closely spaced bursts. RF oscillations are compressed separately for visibility and are not to scale. At zero, the field-driven illustration stops; actual cells retain thermal motion.
Wi-Fi: a common beacon interval of 100 time units is 102.4 ms, giving 9.765625 repetitions/s. Beacon duration is stylized here. Traffic, contention, multiple networks and configuration alter the real waveform. Cisco documentation.
GSM: a 60/13 ms TDMA frame gives 216.6667 frames/s. The illustration uses a simplified single-slot burst, not every GSM operating mode. ETSI TS 145 001.
5G NR: 10 ms frames and 5 ms half-frames correspond to 100 and 200 Hz timing references. They do not establish a universal 100–200 Hz exposure envelope. Burst duty and the 3.5 GHz carrier shown here are illustrative; actual scheduling and TDD patterns vary. ETSI TS 138 211 §4.3.1.
CYB5B experiment: the reported protocol used a 2.0 mT pulsed magnetic field with 60 Hz burst repetition. Each 16.67 ms period contained a 5 ms train of 20 pulses followed by an 11.67 ms gap. Pulse shapes here are stylized. This was not a Wi-Fi or 5G experiment. CYB5B is shown on the outer mitochondrial membrane, not as a calcium channel. The diagram does not establish a direct S4-to-CYB5B cascade. Calcium timing is illustrative, not measured or locked to the applied frequency.
Mechanism illustration: normalized oscillation and protein movement depict a proposed coupling, not molecular dynamics or a dosimetric prediction. For an RF signal, a low-frequency biological drive would require a demonstrated coupling process such as nonlinear detection; drawing an envelope alone does not supply one. Mains electric fields and pulsed magnetic fields are also physically different exposures. Frequency alone cannot determine response or harm; field strength, geometry, waveform and biological context matter. “Nonthermal” describes mechanisms other than heating, not proof that every illustrated link occurs.