Quantum Compression Theory Applications: Y-C-H Superconductors and Triboelectric Materials
Grand Unification of Space, Matter and fundamental interactions for new unitarity predictions with interdisciplinary implications - (QCT), 2025
We present a comprehensive theoretical framework for applying Quantum Compression Theory
(QCT) to... more We present a comprehensive theoretical framework for applying Quantum Compression Theory
(QCT) to condensed matter systems, with specific focus on high-temperature superconductivity in
Y-C-H compounds and triboelectric phenomena. Starting from the fundamental QCT Lagrangian,
we derive effective field theories for electrons in materials with significant quantum entanglement
density (ρent) gradients. We demonstrate that ρent modifies electron-phonon coupling through a
novel mechanism involving topological defects, leading to enhanced Cooper pair formation in spe-
cific Y-C-H stoichiometries. Our microscopic model, combining QCT with modified Eliashberg
theory, predicts critical temperatures up to Tc ≈ 290 ± 15 K for optimized Y0.95Cr0.05H9C0.2 com-
pounds at ambient pressure—a prediction amenable to experimental verification. For triboelectric
materials, we derive from first principles how ρent gradients generate additional charge transfer
mechanisms beyond conventional electrostatic effects, explaining anomalous triboelectric series vio-
lations observed in certain materials. We present detailed numerical simulations of both phenomena,
including ab initio calculations incorporating QCT effects, and propose specific experimental tests
involving neutron scattering, tunneling spectroscopy, and specialized triboelectric measurements.
Our results establish QCT as a powerful theoretical framework for understanding and engineering
novel quantum materials with unprecedented properties.
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Papers by Boleslav Plhák
(QCT) to condensed matter systems, with specific focus on high-temperature superconductivity in
Y-C-H compounds and triboelectric phenomena. Starting from the fundamental QCT Lagrangian,
we derive effective field theories for electrons in materials with significant quantum entanglement
density (ρent) gradients. We demonstrate that ρent modifies electron-phonon coupling through a
novel mechanism involving topological defects, leading to enhanced Cooper pair formation in spe-
cific Y-C-H stoichiometries. Our microscopic model, combining QCT with modified Eliashberg
theory, predicts critical temperatures up to Tc ≈ 290 ± 15 K for optimized Y0.95Cr0.05H9C0.2 com-
pounds at ambient pressure—a prediction amenable to experimental verification. For triboelectric
materials, we derive from first principles how ρent gradients generate additional charge transfer
mechanisms beyond conventional electrostatic effects, explaining anomalous triboelectric series vio-
lations observed in certain materials. We present detailed numerical simulations of both phenomena,
including ab initio calculations incorporating QCT effects, and propose specific experimental tests
involving neutron scattering, tunneling spectroscopy, and specialized triboelectric measurements.
Our results establish QCT as a powerful theoretical framework for understanding and engineering
novel quantum materials with unprecedented properties.
Books by Boleslav Plhák
Key findings and predictions include:
A Novel Origin for Dark Matter: The theory posits that the gravitational effects attributed to dark matter in the early universe were caused by a "Heavy Hadron Era," a phase of temporarily stabilized, known heavy baryons.
An Explanation for the Positron Anomaly: The observed excess of high-energy positrons in cosmic rays (AMS-02 anomaly) is interpreted as a direct observational echo from the decay of the Heavy Hadron Era.
A Mechanism for Particle Stability: The stability of matter is explained via the "Atomic Antenna" mechanism, a dynamic energy exchange with the vacuum that accounts for the measured isotope shift and links particle stability directly to the expansion of the cosmos.
A Finite Proton Lifetime: As a direct consequence of its stability model, QCT predicts a finite, calculable lifetime for the proton, dictated by the continued expansion of the universe.
The framework provides a physical resolution to the Hubble tension, derives particle properties like spin and mass from topological defects, and presents a suite of falsifiable, experimentally testable predictions, including specific signatures in the Cosmic Microwave Background (CMB) and variations in beta-decay rates.
This paper presents the complete mathematical formalism and cosmological implications of QCT as a candidate for a new paradigm in fundamental physics.