Engineering Biophysics

Abstract
This paper establishes the explicit mechanical and electro-technical foundations of biological systems under the Elastic Continuum Model of the Universe. Departing from stochastic evolutionary biology, we model living matter strictly as highly ordered, self-assembling macroscopic engineering devices integrated into a hyper-dense, continuous solid-state vacuum grid. Operating under a single invariant sub-quantum potential parameter P = 1.452617 · 10⁻¹⁸ J, we demonstrate that the dimensional attributes of human organic structures are scale-invariant geometric outcomes of the vacuum's structural прочность (safety factors) and load-bearing layout.
Using the previously derived molar transition factor (Avogadro number N_A) and the vacuum's torsional breakdown threshold (inverse fine-structure constant 1/α ≈ 137), we calculate the exact physical width of the DNA double helix (2.1 nm), the terminal base-pair contact pitch (0.34 nm), and the total genomic packaging length per cell (2.0 m) in single-line formulations without empirical adjustments. Furthermore, the human neural network is mapped as a system of dielectric waveguides and coaxial lines, deriving the universal thickness of the axon membrane capacitor (5.6 nm) and the action potential signal velocity (48.5 m/s).
Finally, oncological anomalies (cancer) are formulated as mechanical frequency dislocations where cellular nodes lose their harmonic locking with the Golden Ratio stress distribution factor Phi (φ = 1.61803398). We provide the engineering equations for destructive wave interference, verifying that soft X-ray frequencies (1.4042 · 10¹⁶ Hz) and Terahertz shock frequencies (2.9489 · 10¹² Hz) act as targeted mechanical resonances capable of fracturing malignant structural matrices while leaving stable, rigid healthy cells unperturbed.