Effect of the Aires Resonator on Erythrocytes in Human Blood — Tarlykov (2019)

By P.V. Tarlykov

Year: January 2019 Researcher: P.V. Tarlykov Cluster: Blood & Biological Method: Hematological Analysis Independent Study

Study Overview

This January 2019 study by P.V. Tarlykov examines the state and behavior of erythrocytes (red blood cells) in human blood under electromagnetic field (EMF) exposure conditions. Erythrocytes are the most abundant cells in human blood and are central to oxygen transport throughout the body. Their morphology, aggregation behavior, and membrane integrity are well-established indicators of biological stress and systemic health.

The study compares erythrocyte parameters under three conditions: baseline (no EMF), EMF exposure without an Aires device, and EMF exposure with an Aires resonator present. By using blood cells as the measurement substrate, this study captures EMF biological effects at the cellular level — a different and complementary evidence domain to the neurological (EEG) and autonomic (HRV) research conducted in parallel.

Why Erythrocytes

Red blood cells are a particularly useful subject for EMF biological research for several reasons: they are easily sampled, their morphology is well-characterized under normal conditions, they lack nuclei (simplifying the analysis of membrane-level effects), and they are in continuous circulation throughout the body, meaning systemic EMF effects should be visible in the blood pool. Changes in erythrocyte shape, aggregation (clumping), or membrane properties under EMF conditions are considered markers of cellular-level biological stress.

This study was commissioned by the Aires Human Genome Research Foundation but conducted independently. The Foundation provided test devices and research parameters; methodology, data collection, and conclusions were controlled entirely by the researcher.

Key Findings

Finding 1 — EMF Exposure Altered Erythrocyte State Electromagnetic field exposure produced measurable changes in erythrocyte parameters relative to baseline. The observed changes included alterations in cell morphology and aggregation behavior consistent with a stress response at the cellular membrane level — effects that are invisible at the scale of whole-body measurements but detectable at the cellular level.
Finding 2 — Aires Resonator Reduced Erythrocyte Disruption The presence of the Aires resonator during EMF exposure was associated with reduced erythrocyte parameter deviation from baseline. Blood samples measured in the Aires condition showed less cellular disruption than those measured under EMF exposure without the device, suggesting the resonator’s coherent field transformation modifies the interaction between EMF and red blood cell membranes.
Finding 3 — Membrane-Level Mechanism Evidence The erythrocyte findings provide evidence that the Aires effect operates at the cellular membrane level, not merely at the scale of gross physiological indicators. This is consistent with the proposed mechanism: a coherently transformed EMF field (rather than a blocked or absorbed one) interacts differently with the electromagnetic properties of biological membranes.

Scientific Context

Blood studies occupy a distinct position in the Aires research program because they operate at a different biological scale than EEG (neural) and HRV (autonomic) research. The convergence of measurable EMF effects and Aires-mediated attenuation across three independent biological systems — brain electrical activity, cardiovascular autonomic function, and blood cell morphology — measured by different researchers using different methods is a key feature of the overall evidence base.

Tarlykov extended this research in a 2024 follow-up study, applying updated methodology and current-generation device configurations to the same research question. The consistency of findings between 2019 and 2024 provides temporal stability evidence for the erythrocyte effect across a five-year interval.

Related Research

Researcher Profile: P.V. Tarlykov Blood & Biological Cluster ← All Research

Tags: Biological Effects, Blood, EMF Research, Erythrocytes, Independent Study, Peer Reviewed