IFRAN Stage 2 (Pavlov Institute, 2017): Wi-Fi Router DNA Damage Confirmed Across Rat Lines; Aires Defender Reduces Aberrations 2.8×

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IFRAN Stage 2 (Pavlov Institute, 2017): Wi-Fi Router DNA Damage Confirmed Across Rat Lines; Aires Defender Reduces Aberrations 2.8×

Por Pavlov Institute of Physiology, RAS

IFRAN Stage 2 (2017): Wi-Fi Router DNA Damage Confirmed Across Rat Nervous System Lines; Aires Defender Reduces Aberrations 2.8×

Stage 2 replication and extension of the Pavlov Institute genetic damage research — confirming router-induced chromosome instability, measuring physical Wi-Fi signal reduction by resonators, and comparing effects across rat lines with different nervous system excitability.

Animal studyVP & NP rat linesChromosome aberrationsWi-Fi 2.4 GHzAires DefenderSignal measurementPavlov Institute RAS, 2017
4×
Chromosome Damage Increase (Wi-Fi, replicated)
2.8×
Damage Reduction (Resonators)
20→15 mV
Signal Reduction with Resonators
3 lines
Rat Lines Compared

Study Design

Stage 2 (October 2016 – April 2017) had three objectives: (1) replicate Stage 1 results in Wistar rats; (2) compare Wi-Fi EMR effects in VP (high nervous-system excitability threshold) and NP (low threshold) rat lines; (3) compare Aires Defender resonator protection across these lines. Equipment and protocol were identical to Stage 1: LinkSys E1200 router (2.4 GHz, 4 dBi), Faraday cage, 4 days × 6 h/day exposure, minimum 200 bone marrow cells analyzed per animal.

VP and NP Rat Lines

VP and NP lines were selectively bred from Wistar stock since the 1970s at the Pavlov Institute, based on neuromuscular excitability thresholds. After 70+ generations of selection:

  • VP line: High excitability threshold. Prone to depression-like states, increased aggression, disrupted plastic processes under stress.
  • NP line: Low excitability threshold. Prone to compulsive movements under stress, used as PTSD and compulsive disorder models.

These lines allow the researchers to test whether nervous system excitability — a genetically determined variable — influences susceptibility to EMR-induced genetic damage.

Physical Signal Measurement

Before the biological experiment, Wi-Fi router signal strength was measured at 4 points on the Faraday cage floor using a Kharchenko antenna — both without and with Aires Defender resonators:

Point 1 (corner)
2 mV → 1.5 mV
Point 2 (near router)
20 mV → 15 mV
Point 3 (near router)
20 mV → 15 mV
Point 4 (corner)
2.5 mV → 1.7 mV

The resonators produced a measurable 25% reduction in Wi-Fi antenna signal strength at the router positions (20→15 mV), and proportional reductions at peripheral positions. This physical measurement provides an independent, instrument-based confirmation that the resonators interact with and modify the EMR field in the experimental environment.

Results

Replication (Wistar line): Wi-Fi router at 4 days × 6h/day caused a 4× increase in chromosome aberration frequency vs. both controls (intact and Faraday cage) — fully confirming Stage 1 results (p<0.0005).
VP and NP lines: Router exposure caused disruption of the genetic apparatus of cycling bone marrow cells in both lines, confirming that the EMR-induced genetic effect is not specific to Wistar rats and is not conditional on nervous system excitability phenotype.
Aires Defender resonators: Aberration frequency decreased 2.8× vs. router alone — a substantial and statistically significant (p<0.0005) protective effect. Important nuance vs. Stage 1: in Stage 2, combined router + resonator exposure did not achieve complete restoration to control levels (Stage 1 did achieve full restoration). The researchers note this difference between experiments, which may reflect variability in resonator placement or animal batch. Isolated resonator exposure (no router) produced no change in chromosome aberrations — confirming the resonators themselves are genetically inert.

Key Conclusions

  1. Stage 1 results are replicated: Wi-Fi router EMR (4d×6h/day) causes 4× chromosome aberration increase in Wistar rats.
  2. The cytogenetic effect of Wi-Fi EMR is not specific to one genetic line — VP and NP rats (with distinct nervous system excitability phenotypes) both show significant damage.
  3. Aires Defender resonators significantly reduce chromosome aberrations (2.8×) without themselves affecting baseline chromosome stability.
  4. Physical measurement confirms resonators reduce Wi-Fi signal strength by ~25% at router proximity, providing a physical correlate for the biological protection observed.

Institutions: Pavlov Institute of Physiology, RAS + Aires Human Genome Research Foundation  |  Stage: 2 of multi-stage agreement  |  Period: Oct 2016 – Apr 2017

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