SERM2 Technology: A Hypothesis for Deterministic Anomalous Heat Generation via Multifractal Entropy Reduction and its Methodological Validation

This work presents SERM2 (Singular Entropy Reduction due to Multifractal) — a hypothesis and technological framework for the deterministic control of anomalous heat effects. Grounded in the established thermodynamic formalism for multifractal measures and further supported by the generalized framework based on Rényi entropy, SERM2 applies and extends this formalism to non-equilibrium condensed matter systems. We posit that a driven, open multifractal nanostructure can act as a geometric constraint, leading to a macroscopic reduction of thermodynamic entropy (ΔS∼⋅h, where η is the fractal complexity). This creates conditions for extreme localized temperatures via the amplification of energy release ΔU due to a geometrically constrained reduction in entropy ΔS. A key advancement in this version is the interpretation of the universal 2.12 fm resonance scale — derived from the Nagel peaks in LENR transmutation, fusion screening, and muon capture data. This scale is shown to be connected to the pion Compton wavelength and, remarkably, to the Feigenbaum constant δ ≈ 4.6692 via rd»(δ⁄π)∙lπ, suggesting a potential deep connection between fractal dynamics, geometry, and the scale of strong interactions. It is important to note that this connection remains hypothetical and serves as a speculative bridge between fractal dynamics and nuclear scales, requiring further theoretical and experimental validation. Furthermore, the energy release mechanism is governed by a variable entropic efficiency coefficient γ (spanning 10−7 to 0.1), which naturally explains the observed continuum of energy scales in SERS-blinking artifacts — from standard plasmonic events (eV) to anomalous heat effects (keV–MeV). The proposed Objective Reduction (OR) mechanism, triggered by laser-induced LSPR/SERS in critically-tuned multifractal Pd-D systems, provides a deterministic pathway from stochastic artifacts to controlled energy release. The validation pathway includes synchronized detection of spectral entropy collapse and nanosecond-scale excess heat pulses, transforming SERM2 from a speculative hypothesis into a structured, predictive research program with clear success/failure criteria. The framework is protected by PCT Patent Application PCT/RU2025/000368.