P11
COVID IF-channel retrodiction
ロック済み ― テスト待ちDuring lockdown, IF-sensitive diseases (infertility → improvement) and RF-sensitive diseases (depression → worsening) behave in opposite directions. The COVID lockdown acts as a natural experiment: workplace IF exposure dropped ~70% (offices with LED lighting closed) while home RF exposure rose ~40% (more phone/Wi-Fi usage). This predicts channel-specific, opposite-sign health effects.
検証方法: GBD 2024 + national health registers
反証基準: No differential direction between IF-sensitive and RF-sensitive diseases during lockdown
ロック日:2026-08-22
P12
LED rollout × sperm quality
ロック済み ― テスト待ちIn countries where the EU LED transition happened earlier, sperm quality decline should accelerate earlier than in countries where it happened later. EU vs non-EU difference-in-differences design, controlling for mobile density, GDP, and urbanization.
検証方法: Levine meta-analysis ↗iTemporal trends in sperm count: a systematic review and meta-regression analysis of samples collected globally in the 20th and 21st centuriesHuman Reproduction Update · 2022 · journalメタデータ検証済み country-specific estimates + EU Directive 244/2009 ↗iCommission Regulation (EC) No 244/20092009 · regulatoryメタデータ検証済み implementation dates (2009–2016)
反証基準: No acceleration difference, or non-EU countries show faster decline
ロック日:2026-08-22
P13
Cascade order test
ロック済み ― テスト待ちSeven chronic diseases' acceleration points follow the modulome's biological latency hierarchy: sleep < depression < ADHD < metabolic < autoimmune < infertility < cancer. Each acceleration point should fall 0–10 years after mass adoption of its specific technology generation.
検証方法: GBD 2024 acceleration point statistical analysis (structural breakpoint detection)
反証基準: Acceleration order does not match modulome hierarchy, or acceleration points are not temporally linked to technology rollouts
ロック日:2026-08-22
P14
EMF × psychedelic response interaction
ロック済み ― テスト待ちPatients with higher baseline EMF exposure (measured by personal RF dosimetry) will show stronger acute response to psilocybin-assisted therapy, because chronic EMF-driven Ca²⁺ dysregulation creates a larger homeostatic deficit for the psychedelic Ca²⁺ reset to correct. High-EMF patients should show greater pre/post MADRS delta.
検証方法: Psilocybin clinical trial with RF dosimetry covariate
反証基準: No correlation between EMF exposure and treatment response magnitude, or inverse correlation
ロック日:2026-08-22
P15
CACNA1C genotype × psychedelic response
ロック済み ― テスト待ちPatients carrying CACNA1C risk variants (associated with bipolar disorder and schizophrenia in GWAS) will show altered psilocybin response, because the psychedelic signal chain terminates at Cav1.2 (CACNA1C). Specifically, rs1006737 A-allele carriers should show either enhanced or paradoxical response to psilocybin, distinct from wild-type responders.
検証方法: Pharmacogenomic analysis of existing psilocybin trial data with CACNA1C genotyping
反証基準: No genotype-response association at CACNA1C locus
ロック日:2026-08-22
P16
Lithium protects against EMF mood effects
ロック済み ― テスト待ちLithium users will show attenuated mood deterioration in response to EMF exposure compared to non-lithium controls, because Li⁺ directly occupies VGSC and normalizes Na⁺/Ca²⁺ balance that EMF perturbs. Ecological test: lithium-treated bipolar patients should show no seasonal RF-correlated mood variation, while unmedicated patients should.
検証方法: Mood-tracking app data (e.g. Daylio) × personal RF dosimetry, stratified by lithium use
反証基準: Lithium users show equal or greater EMF-mood sensitivity compared to controls
ロック日:2026-08-22
P17
EMF exposure reduces transepithelial potential (TEP)
ロック済み ― テスト待ちControlled EMF exposure will measurably reduce skin TEP (baseline 10–60 mV) via Na⁺/K⁺-ATPase disruption. EHS-reporting individuals will show a larger TEP drop than matched controls under the same exposure, because their ion channel sensitivity threshold is lower. Double-blind measurement with Ag/AgCl electrodes on forearm skin.
検証方法: Double-blind TEP measurement before/during/after controlled RF exposure (1 V/m, 30 min), EHS vs. control cohort
反証基準: No TEP change under EMF, or EHS patients show equal or smaller change than controls
ロック日:2026-08-22
P18
EMF slows wound healing via electrotactic interference
ロック済み ― テスト待ちStandardized skin wounds (e.g. suction blister) will heal significantly slower in high-EMF environments compared to Faraday-shielded controls, because exogenous EMF superimposes noise on the endogenous wound electric field (100–200 mV/mm) that guides keratinocyte electrotaxis. Effect size should correlate with EMF field strength.
検証方法: Suction blister wound healing RCT: Faraday-shielded vs. standard room, time to re-epithelialization
反証基準: No wound healing difference, or faster healing in high-EMF environment
ロック日:2026-08-22
P19
LED blue light retinal damage is IF-EMF mediated
ロック済み ― テスト待ちRetinal damage attributed to LED blue light is partially caused by IF-EMF (65 kHz – 2 MHz) from the LED switching power supply, not blue light alone. An incandescent lamp filtered to identical blue spectrum (no IF-EMF) will produce significantly less retinal oxidative stress than LED blue light at the same intensity and spectrum.
検証方法: LED vs. incandescent (same blue spectrum) retinal cell viability assay; LED vs. incandescent + IF-EMF source
反証基準: Incandescent blue light produces equal retinal damage to LED blue light at matched spectrum and intensity
ロック日:2026-08-22
P20
IF-EMF alone causes retinal oxidative stress
ロック済み ― テスト待ちIF-EMF exposure (65 kHz – 2 MHz, levels matching LED driver output) without any light stimulus will produce measurable oxidative stress in retinal cells via Cav1.4 VGCC activation. This would confirm that the IF-EMF component of LED light is independently biologically active on retinal tissue.
検証方法: Retinal cell culture exposed to IF-EMF only (no light): ROS measurement, Cav1.4 channel activity
反証基準: No retinal oxidative stress from IF-EMF alone, or no Cav1.4 involvement
ロック日:2026-08-22
P21
Night mode does not eliminate IF-EMF melatonin suppression
ロック済み ― テスト待ちPhone/tablet 'night mode' (warm color filter) removes blue light but not IF-EMF from the display backlight. Melatonin suppression measured with night mode ON will be significantly greater than in a no-screen control, because IF-EMF continues to suppress melatonin via CRY pathway independent of light spectrum. Mechanistic basis: Chae et al. (2019) ↗iBlue light-dependent human magnetoreception in geomagnetic food orientationPLOS ONE · 2019 · journalメタデータ検証済み demonstrated that human magnetoreception requires blue light (400–500 nm), identifying cryptochrome as the transducer. This implies two independent intervention points: (1) blue-light filtering removes CRY activation entirely (no radical pairs to disrupt), and (2) Faraday shielding removes RF disruption while preserving natural CRY function. BERM predicts Faraday shielding is more effective because it corrects the interference while leaving the natural system intact, whereas blue-light filtering removes the disruption by shutting down the entire CRY system.
検証方法: Salivary melatonin: night-mode screen vs. no screen vs. incandescent reading light, evening exposure protocol
反証基準: Night mode restores melatonin to no-screen baseline levels
ロック日:2026-08-22
P22
Myopia correlates with IF-EMF, not blue light alone
ロック済み ― テスト待ちThe childhood myopia epidemic correlates with cumulative IF-EMF exposure (screen time + LED lighting hours) more strongly than with blue light dose alone. The EU incandescent ban (2009) provides a natural experiment: countries with faster LED adoption should show steeper myopia acceleration, controlling for education hours and outdoor time.
検証方法: Cross-country DID analysis: LED adoption rate × myopia prevalence, controlling for near-work hours and outdoor time
反証基準: Myopia rates correlate equally with blue light and IF-EMF, or LED adoption timing shows no association
ロック日:2026-08-22
P23
Hospital EMF levels correlate with post-hospital syndrome
ロック済み ― テスト待ちHospitals with higher measured EMF levels (especially IF from LED lighting and RF from Wi-Fi density) will have higher post-hospital syndrome (PHS) incidence, controlling for patient acuity, length of stay, and standard care quality metrics. The correlation should be strongest in elderly patients (>75 years) who spend the most time bed-bound.
検証方法: Multi-hospital EMF survey × 30-day readmission/complication rates, stratified by age and mobility
反証基準: No correlation between hospital EMF levels and PHS incidence after controlling for confounders
ロック日:2026-08-22
P24
Low-EMF patient rooms improve recovery
ロック済み ― テスト待ちPatients in Faraday-shielded or low-EMF rooms (reduced Wi-Fi, incandescent/DC lighting, minimal monitors) will show faster recovery, shorter stays, lower delirium incidence, and better sleep quality compared to standard rooms, controlling for patient acuity and treatment protocols.
検証方法: RCT or quasi-experimental: low-EMF ward vs. standard ward, primary endpoints: LOS, delirium, sleep quality (actigraphy)
反証基準: No difference in any recovery metric, or worse outcomes in low-EMF rooms
ロック日:2026-08-22
P25
Home care advantage is partially EMF-mediated
ロック済み ― テスト待ちThe observed advantage of home care over hospitalization for certain elderly patients is partially mediated by lower EMF exposure at home. Patients discharged to high-EMF home environments (multiple Wi-Fi networks, LED-heavy) will show outcomes closer to hospital patients than those in low-EMF homes.
検証方法: Home EMF survey at discharge × 30-day outcomes, comparing high-EMF vs. low-EMF home environments
反証基準: Home EMF levels do not predict post-discharge outcomes after controlling for socioeconomic factors
ロック日:2026-08-22
P29
AD incidence correlates with cumulative lifetime EMF
ロック済み ― テスト待ちAlzheimer's disease incidence correlates with cumulative lifetime EMF exposure (urban > suburban > rural), after controlling for education, cardiovascular risk, and ApoE4 status. The mechanism chain: EMF → VGCC → Ca²⁺ ↑ → BACE1 → Aβ oligomers → positive feedback loop. The calcium hypothesis (LaFerla, O'Day) identifies Ca²⁺ dysregulation as the proximal cause; BERM provides the upstream environmental driver.
検証方法: Longitudinal cohort with RF/IF dosimetry × AD diagnosis, controlling for ApoE4, education, CVD risk
反証基準: No dose-response between cumulative EMF and AD incidence after confounders controlled
ロック日:2026-08-22
P30
CACNA1C rs7304986 modulates AD risk
ロック済み ― テスト待ちCACNA1C rs7304986 T/C carriers (who show greater EMF sleep sensitivity per Sousouri 2025 ↗iCACNA1C genotype determines sleep EEG response to 5G exposure in double-blind studyNeuroImage · 2025 · journalメタデータ検証済み) will have higher AD risk than T/T homozygotes in high-EMF environments but equivalent risk in low-EMF environments. This is the same gene × environment interaction as for EHS: genetically heightened VGCC sensitivity amplifies environmental Ca²⁺ dysregulation.
検証方法: GWAS × EMF exposure interaction analysis in existing AD biobank cohorts
反証基準: No CACNA1C × EMF interaction on AD risk, or T/C carriers show lower AD risk
ロック日:2026-08-22
P31
AD incidence accelerates 2025–2035 (30-year lag)
ロック済み ― テスト待ちAD incidence in the 60–70 age group will accelerate beyond demographic aging predictions during 2025–2035, reflecting a ~30-year lag from mass 2G/Wi-Fi adoption (1995–2005). CAUTION: this acceleration could result from other causes (diabetes epidemic, sedentary lifestyle, diagnostic changes). The prediction is confirmable only if EMF-specific biomarkers (Ca²⁺ levels, VGCC expression) co-correlate.
検証方法: Age-specific AD incidence trends vs. demographic projection, supplemented by Ca²⁺/VGCC biomarker panel
反証基準: No above-demographic acceleration, or acceleration without Ca²⁺/VGCC biomarker correlation
ロック日:2026-08-22
P32
Low-EMF care homes slow AD progression
ロック済み ― テスト待ちAD patients in low-EMF care environments (Faraday-shielded or reduced Wi-Fi/LED) will show slower cognitive decline (MMSE/MoCA trajectory) than matched controls in standard care facilities. The Arendash paradox (controlled 918 MHz protects in mice) suggests dose/frequency/context matter — chaotic multi-frequency environmental EMF drives damage, while removal allows homeostatic recovery.
検証方法: Quasi-experimental: low-EMF care unit vs. standard unit, MMSE trajectory over 12 months, controlling for medication and baseline severity
反証基準: No difference in cognitive decline rate, or faster decline in low-EMF environment
ロック日:2026-08-22
P33
CACNA1C genotype × prenatal EMF → ADHD risk
ロック済み ― テスト待ちCACNA1C rs7304986 T/C-carrying mothers' prenatal EMF exposure will produce higher ADHD risk in offspring than T/T carriers'. This is a gene × environment interaction: genetically heightened VGCC sensitivity amplifies the developmental ion channel calibration error from prenatal EMF. The same CACNA1C variant associates with ADHD, ASD, bipolar, and EMF sleep sensitivity (Sousouri 2025 ↗iCACNA1C genotype determines sleep EEG response to 5G exposure in double-blind studyNeuroImage · 2025 · journalメタデータ検証済み).
検証方法: Kaiser-type cohort with prenatal MF dosimetry + maternal CACNA1C genotyping × offspring ADHD diagnosis
反証基準: No CACNA1C × prenatal EMF interaction on offspring ADHD risk
ロック日:2026-08-22
P34
Guanfacine protects against EMF-worsened ADHD
ロック済み ― テスト待ちIf ADHD is an ion channel calibration error, guanfacine (HCN channel modulator) should protect against EMF's ADHD-symptom-worsening effect better than stimulants (which only compensate by raising signal). In controlled EMF exposure, guanfacine-treated ADHD patients should show less symptom worsening than methylphenidate-treated patients, because guanfacine corrects the threshold while stimulants raise the signal.
検証方法: Guanfacine vs. methylphenidate during controlled EMF exposure → ADHD symptom change (CPT, Conners)
反証基準: Guanfacine shows equal or less protection than methylphenidate against EMF symptom worsening
ロック日:2026-08-22
P35
ADHD prevalence acceleration follows prenatal EMF with 3–10y lag
ロック済み ― テスト待ちADHD prevalence acceleration follows prenatal EMF exposure growth with a 3–10 year lag (exposure → diagnosis age). 2G mass adoption 1991–95 → ADHD acceleration ~1995–2005. Smartphone mass adoption 2007–12 → ADHD acceleration ~2012–2020. 5G mass adoption 2019–24 → ADHD acceleration ~2025–2035 (prediction). CAUTION: ADHD diagnostic practices have changed significantly — prevalence data requires careful correction for diagnostic trends.
検証方法: Age-specific ADHD incidence trends vs. prenatal EMF proxy (mobile penetration at birth year), controlling for diagnostic practice changes
反証基準: No temporal correlation between prenatal EMF proxy and ADHD incidence after diagnostic correction
ロック日:2026-08-22
P36
EMF exposure × bipolar cycle frequency
ロック済み ― テスト待ちBipolar patients in higher-EMF environments should have more frequent mood cycles, because stronger ionic perturbation destabilizes the neural oscillator — amplitude increases and period shortens. Computational models (PubMed 32278494iIon channel conductance changes underlie bipolar neuron excitability oscillationsTranslational Psychiatry · 2020 · journal検証中) show bipolar neurons oscillate between hyperexcitability and hypoexcitability due to ion conductance changes; EMF adds external perturbation to this unstable system.
検証方法: EMF dosimetry + mood diary + cycle length in longitudinal bipolar cohort
反証基準: No correlation between environmental EMF and bipolar cycle frequency
ロック日:2026-08-22
P37
Lithium + EMF shielding synergy in bipolar
ロック済み ― テスト待ちLithium-treated bipolar patients will benefit from EMF shielding (Faraday) because Li⁺ dampens the oscillation AND EMF removal eliminates the perturbation — combined effect exceeds either alone. Li⁺ traverses VGSC and accumulates in hyperactive neurons; removing the EMF perturbation source reduces the oscillation that lithium must dampen.
検証方法: Li⁺ + Faraday-shielded bedroom vs. Li⁺ alone → cycle frequency and amplitude over 6 months
反証基準: No additional benefit from EMF shielding beyond lithium alone
ロック日:2026-08-22
P38
IVF success rates lower in high-EMF clinics
ロック済み ― テスト待ちIVF laboratories with higher ambient EMF will have lower fertilization rates, blastocyst development, and clinical pregnancy rates. Melatonin in follicular fluid is a critical oocyte protectant (Tamura 2012 ↗iThe role of melatonin as an antioxidant in the follicleJournal of Ovarian Research · 2012 · journalメタデータ検証済み); EMF suppresses endogenous melatonin (Battelle 1980iChronic exposure to 60-Hz electric fields: effects on pineal function in the ratBioelectromagnetics · 1980 · journal検証中, circadian pathway), reducing follicular antioxidant defense during the most vulnerable phase. Tong 2017 ↗iMelatonin levels in follicular fluid as markers for IVF outcomes and predicting ovarian reserveReproduction · 2017 · journalメタデータ検証済み meta-analysis already shows melatonin supplementation improves IVF outcomes — the prediction is that EMF environment is a confound in existing IVF data.
検証方法: EMF dosimetry of IVF labs (incubator + patient treatment rooms) vs. clinic-level outcomes, controlling for patient demographics
反証基準: No correlation between clinic EMF levels and IVF outcomes after standard confound adjustment
ロック日:2026-08-22
P39
Melatonin supplement × EMF interaction in IVF
ロック済み ― テスト待ちMelatonin supplementation benefit in IVF will be LARGER for patients in high-EMF environments, because high EMF creates a deeper melatonin deficit that supplementation partially corrects. In low-EMF environments, endogenous melatonin is already near-optimal, so exogenous supplementation adds less. This predicts an interaction term (melatonin × EMF) in IVF outcome regression, not just a melatonin main effect.
検証方法: IVF RCT with melatonin supplementation, stratified by patient residential/occupational EMF exposure (wearable dosimetry)
反証基準: Melatonin benefit is uniform across EMF exposure levels (no interaction)
ロック日:2026-08-22
P40
Shift workers: lower fertility AND greater melatonin supplement benefit
ロック済み ― テスト待ちShift workers have suppressed nocturnal melatonin (circadian disruption + workplace lighting + occupational EMF), predicting lower natural fertility AND a larger absolute benefit from melatonin supplementation compared to day workers. The melatonin bridge connects cascade 1 (sleep/circadian) to cascade 6 (fertility) — shift work is the strongest natural experiment for this connection because it disrupts melatonin through multiple converging pathways simultaneously.
検証方法: Fertility outcomes (time-to-pregnancy, IVF success) in shift vs. day workers, with and without melatonin supplementation
反証基準: Shift workers show equal melatonin supplement benefit as day workers, or shift work fertility deficit not mediated by melatonin levels
ロック日:2026-08-22
IF-1
LED driver 20–100 kHz disrupts normal cell mitosis
ロック済み ― テスト待ちLED driver switching frequencies (20–100 kHz) overlap the normal-cell mitotic disruption range identified by TTFields research (Neuhaus et al., Nature 2020: normal cells most affected at ~50 kHz, vs. cancer cells at 150–200 kHz). Prediction: in vitro exposure of normal dividing cells (e.g. spermatogonia, intestinal crypt cells) to 20–100 kHz pulsed fields at LED-driver-representative intensities will produce measurable increases in aneuploidy, mitotic spindle misalignment, or reduced proliferation rate. The Kaiser Permanente series (Li 2002–2020) provides epidemiological support: EMDEX-measured MF exposure associates with miscarriage, sperm quality decline, and childhood conditions across 6 cohorts.
検証方法: In vitro: normal cell lines exposed to 20–100 kHz pulsed waveform (LED-driver-representative) vs. sham → aneuploidy rate, spindle orientation, proliferation
反証基準: No effect on normal cell mitosis at LED-driver-representative frequencies and intensities, or effect only at TTFields-level intensities (>100 V/m)
ロック日:2026-08-22