Institute of Physiology, Russian Academy of Sciences (IFRAN) — Cytogen – airestech

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Institute of Physiology, Russian Academy of Sciences (IFRAN) — Cytogenetics & Animal Research

Institute of Physiology, Russian Academy of Sciences (IFRAN)

Location: St. Petersburg, Russia
Type: Division of the Pavlov Institute of Physiology, Russian Academy of Sciences
Research Focus: Cytogenetics, genetics, and animal behavioral models
Role in Aires Program: Conducted the five-stage rat cytogenetics program and subsequent animal studies


About IFRAN

IFRAN refers to the genetics and neurogenetics research division operating within the Pavlov Institute of Physiology of the Russian Academy of Sciences (RAS) in St. Petersburg. The division is known internationally for its work in behavioral genetics, cytogenetics, and the neurobiological effects of environmental stressors on genetic integrity.

Within the Aires research program, IFRAN conducted the most rigorous and methodologically extensive animal-model research in the corpus: a five-stage sequential research program examining the effects of WiFi electromagnetic radiation on chromosomal integrity, memory, behavior, and locomotion in rats — and the degree to which Aires resonator devices protect against these effects.


The Five-Stage Cytogenetics Program (2016–2019)

Led by Dr. Natalya Dyuzhikova and Prof. Evgenia Savvateeva-Popova, the program ran from 2016 to 2019 using a consistent WiFi exposure protocol: 2.4 GHz router, 30 minutes per day, 100 days.

Stage I — Chromosomal Aberrations (2016)

Baseline finding: WiFi EMF exposure increased chromosomal aberrations in rat bone marrow cells from 1.9% (unexposed control) to 9.8% — a approximately 5-fold increase. With the Aires Defender device present, aberrations were reduced to 2.7% — near control-group levels. Statistical significance: p≤0.001. This finding became the quantitative anchor for all subsequent stages.

Stage II — Genotype Variation (2017)

Replicated Stage I findings across two rat genotype lines: VP (high neurological excitability) and NP (low neurological excitability). Both lines showed the WiFi-induced aberration increase and the Aires protective effect. The NP strain showed greater susceptibility to WiFi exposure, documenting individual genetic variation in EMF sensitivity.

Stage III — Memory and Neurodegeneration (2017)

Extended endpoints beyond chromosomal markers to cognitive function. WiFi exposure suppressed memory formation in maze tests and produced histological markers of hippocampal neurodegeneration. The Aires device attenuated both the memory suppression and the neurodegeneration markers.

Stage IV — Behavioral Effects (2018)

Open-field behavioral testing. WiFi-exposed animals showed elevated fear response metrics. Animals in the Aires-protected condition showed behavioral normalization consistent with the control group.

Stage V — Locomotion (2018–2019)

Locomotion and CPAR (conditioned place avoidance response) endpoints. Protective direction maintained across locomotor measures.

Peer-Reviewed Publication (2019)

The core chromosomal aberration findings from Stages I–V were submitted and accepted for peer-reviewed publication in Ecological Genetics journal (2019). Authors: Dyuzhikova NA, Savvateeva-Popova EV, Lopatina N, Dyuzhikov IA, Serov IA. DOI: 10.17816/ecogen17283-92.


Honeybee Research Program

IFRAN researchers also conducted a two-part honeybee memory study examining WiFi effects on insect cognition — an experimental model in which placebo effects are not possible.

  • 2019 — Led by Dr. Natalia Lopatina: 2-year continuous WiFi exposure study. WiFi significantly suppressed bee short-term memory (STM) and food motivation. Published in Entomological Review. DOI: 10.1134/S0367144519010039.
  • 2020 — Follow-up separating STM and LTM endpoints. Result: Long-term memory (LTM) was restored to control levels with the Aires device present; short-term memory (STM) remained suppressed. The distinction reflects the different mechanisms of STM (electrical reverberation, directly field-sensitive) vs. LTM (genomic protein synthesis, protected by field restructuring). Published in Integrative Physiology. DOI: 10.33910/2687-1270-2020-1-3-231-241.

SFERA Program — WiFi 6 (2025)

The most recent IFRAN contribution examined Lifetune Zone Max (Gen 3) against WiFi 6 (Wi-Fi 6, the current commercial wireless standard). Blood parameters and behavioral endpoints in rats were assessed. The protective direction documented in prior studies was maintained under the WiFi 6 standard — validating that the research findings extend to current-generation wireless infrastructure.


Scientific Significance

The IFRAN cytogenetics program is notable for several reasons that are uncommon in the broader EMF research literature:

  • Sequential design: Five stages using the same protocol, progressively expanding endpoints, with peer-reviewed publication of the core finding
  • Quantified dose-response: The 1.9% → 9.8% → 2.7% aberration figures provide a specific, reproducible quantitative result
  • No placebo effect: Animal models eliminate the principal confound in human studies
  • Multi-endpoint replication: From chromosomal (molecular) to memory (cognitive) to behavioral (phenotypic) — the finding holds across biological levels
  • Current-standard validation: The 2025 WiFi 6 study addresses the natural question of whether findings from 2016 WiFi protocols remain relevant to today's wireless environment

Key Researchers

  • Dr. Natalya Dyuzhikova — Principal investigator for the cytogenetics program; Pavlov Institute genetics division
  • Prof. Evgenia Savvateeva-Popova — Senior researcher; behavioral genetics; co-author on the peer-reviewed Ecological Genetics publication
  • Dr. Natalia Lopatina — Behavioral biology; lead researcher on the honeybee memory studies

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