Resumen técnico y arquitectura de diseño EGAIC-BioCore v1.0
Abstract: This technical dossier presents the architectural blueprint and operational specifications for the EGAIC-BioCore v1.0, an open-hardware benchtop prototype designed to physically instantiate the Generalized Information-Cellular Coupling Equation (EGAIC) framework, derived from the Hernández Cosmological Model (RICM/EGARI). Moving beyond conventional statistical and brute-force biochemical paradigms, the system introduces a deterministic, bio-physical approach to non-thermal electromagnetic intervention. The EGAIC-BioCore v1.0 architecture integrates Commercial Off-The-Shelf (COTS) components—including an FPGA logic unit (Tang Nano 20K), a multi-channel Direct Digital Synthesis (DDS AD9959) module, Class A linear RF amplification stages, and a dedicated Micro-Exposure Bioelectrical Cell (MCEB-1 constructed from virgin PTFE and 316L stainless steel). The system computes and delivers dynamic target frequencies (\nu_{\text{target}}) governed by cellular membrane impedance (R_m, C_m), topological tensors (\kappa_{\text{topo}}), and information gradients (\nabla\rho_{\text{info}}). Crucially, the hardware utilizes active phase vector control (\Delta\phi) to operate in two distinct regimes: Tissue Restoration & Homeostasis (\Delta\phi = 0,0^\circ): Constructive interference aimed at optimizing metabolic repair. Selective Structural Collapse (\Delta\phi = 180,0^\circ): Destructive interference designed to disrupt pathological targets (such as viral capsids or mitotic spindles) while maintaining strict non-thermal compliance (\Delta T = 0,00^\circ\text{C}). This open-science instrument bridges theoretical biophysics and empirical biomedical engineering, providing a verifiable hardware framework for non-invasive, targeted bio-modulation.
Authors
- Luis Eduardo Hernández Garcia
Publication Details
- Journal
- Zenodo (CERN European Organization for Nuclear Research)
- Published
- 2026-09-30
- DOI
- https://doi.org/10.5281/zenodo.23067243
- Primary Topic
- Plant and Biological Electrophysiology Studies
- Type
- article
- Field-Weighted Citation Impact
- 0.00