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Quarkbase Cosmology

A new framework for understanding the universe. The quarkbase — the 100% compact particle — and a constant-volume etheric plasma generate pressure lines that produce all forces of nature..

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The Functioning of the Universe

1.1 Axiomatic Foundations

1.1.1 Finite Universe: The cosmos is a closed container of fixed volume, implying that all dynamics must redistribute matter and vacuum without indefinite growth.

1.1.2 Vacuum–Plasma (Hidden Ether): The vacuum is actually an imperceptible etheric plasma, a medium for pressure and energy transmission. It is undetectable because its interactions internally compensate.

1.1.3 Quarkbase: Unique, compact elementary particle with no internal voids. All other particles are configurations or assemblies of quarkbases.

1.1.4 Pressure Interaction: Each quarkbase displaces the vacuum plasma and generates radial pressure lines around it, the origin of the fundamental forces.

1.2 Theoretical Development

1.2.1 Origin of Forces:
– Gravity: not a distance attraction, but a redistribution of plasma that pushes bodies toward quarkbase concentrations.
– Electromagnetism: vibrational configurations of the quarkbase deform the plasma into pressure waves (photons).
– Nuclear Forces: arise from overlapping and blocking pressure lines, creating glue (strong force) or equilibrium tensions (weak force).

1.2.2 Matter and Energy: Matter is a structured state of quarkbases. Energy is pressure waves in the plasma. The equivalence E = mc² arises because structures composed of quarkbases can split into pressure waves and vice versa.

1.2.3 Cosmology: The universe does not expand; what we perceive as expansion is a variation in plasma density that alters the path of light. Boundaries are compression regions where trajectories close.

Minimal Formulation

The theory can be summarized in four key equations:

\[ \text{1. } (\nabla^2 - \lambda^{-2}) \Psi(x) = -\alpha \sum \delta(x - x_i) \quad \text{(Pressure field equation)} \] \[ \text{2. } F = -\gamma v_q \nabla \Psi \quad \text{(Emergent effective force)} \] \[ \text{3. } \frac{1}{c^2} \ddot{\Psi} - \nabla^2 \Psi + \lambda^{-2} \Psi = -\alpha \sum \delta(x - x_i(t)) \quad \text{(Relativistic wave dynamics)} \] \[ \text{4. } \int_{V_U} \rho_p(x,t) \, d^3x + N v_q = \rho_p^{(0)} V_U \quad \text{(Global volume conservation)} \]

Elementary Solution: Yukawa Type

The pressure potential solution for an isolated quarkbase in the etheric plasma is of Yukawa type:

\[ \Psi(r) = \frac{\alpha}{4\pi} \frac{e^{-r/\lambda}}{r} \] \[ F(r) = \frac{\alpha \gamma v_q}{4\pi} \left( \frac{1}{r^2} + \frac{1}{\lambda r} \right) e^{-r/\lambda} \]

These expressions show how the interaction between quarkbases reproduces the form of gravity and other forces, with corrections due to the screening length \(\lambda\).

Foundations

The universe is finite and maintains a constant total volume. The etheric plasma has density and compressibility; the interaction between quarkbases and this plasma generates a pressure potential Ψ that acts as the emergent origin of gravity and other forces.

Key Concepts

  • Global Volume Conservation: the number and volume of quarkbases and the plasma density are related by a global condition.
  • Pressure Field Ψ: relativistic scalar field satisfying a Klein–Gordon type equation with screening (length λ).
  • Emergent Forces: the effective force between quarkbases is proportional to the gradient of Ψ; in the appropriate regime it reproduces the Newtonian law at large distances.

Key Articles

Quarkbase Cosmology

Foundational document defining the axioms, minimal equations (Ψ field, emergent force, volume conservation) and proposing experiments for falsification.

The Double Slit in Quarkbase Cosmology

Describes how interference and point-like detection are explained by the field’s energy density and nonlinear self-focusing mechanisms (without postulating collapse).

Relativistic Invariance

Mathematical analysis showing how the theory is consistent with Michelson–Morley type experiments and with local operational invariance under reasonable assumptions.

Relativistic Invariance and Experimental Constraints on Quarkbase Cosmology

Demonstrates that Lorentz symmetry emerges locally and effectively in the fundamental Quarkbase field, and that the model is fully compatible with the most precise experimental tests of relativity, according to the current limits of the Standard-Model Extension (SME).

Publications

Omeñaca Prado, Carlos (2025). The Functioning of the Universe: Quarkbase Cosmology. figshare. Preprint. Omeñaca Prado, Carlos (2025). Reinterpretación de Maxwell. The Next Electromagnetic Revolution. figshare. Preprint. Omeñaca Prado, Carlos (2025). The Double-Slit Experiment in Quarkbase Cosmology. figshare. Preprint. Omeñaca Prado, Carlos (2025). Demonstration of operational relativistic invariance within the framework of Quarkbase Cosmology.. figshare. Preprint. Omeñaca Prado, Carlos (2025). Relativistic Invariance and Experimental Constraints on Quarkbase Cosmology. figshare. Preprint. Omeñaca Prado, Carlos (2025). The Vibrational Architecture of the Universe. figshare. Preprint. Omeñaca Prado, Carlos (2025). Quantum Entanglement in the Unified Framework of the Cosmology of the Quarkbase. figshare. Preprint. Omeñaca Prado, Carlos (2025). The redshift in Quarkbase Cosmology. figshare. Preprint. Omeñaca Prado, Carlos (2025). Cluster and Supercluster Distribution in Quarkbase Cosmology. figshare. Preprint. Omeñaca Prado, Carlos (2025). Biomedical Implications of Quarkbase Cosmology. figshare. Preprint. Omeñaca Prado, Carlos (2025). Hawking Radiation Revisited. figshare. Preprint. Omeñaca Prado, Carlos (2025). The Cosmic Microwave Background in Quarkbase Cosmology. figshare. Preprint. Omeñaca Prado, Carlos (2025). Quasars in the Framework of Quarkbase Cosmology. figshare. Preprint. Omeñaca Prado, Carlos (2025). Extended Study on the Cosmic Microwave Background in Quarkbase Cosmology. figshare. Preprint. Omeñaca Prado, Carlos (2025). Biomedical Applications of Quarkbase Cosmology. figshare. Preprint. Omeñaca Prado, Carlos (2025). Electronic Mobility and Minimum Conductivity in Graphene. figshare. Preprint. Omeñaca Prado, Carlos (2025). Optical Absorption, Quantum Hall Effect, and Superconductivity in Graphene. figshare. Preprint.

Article Synopsis

Cosmology

The Geometry of Galaxies

Explores how the structure of galaxies is interpreted in terms of plasma ether pressure and global volume conservation. Suggests that spiral distribution and flattening result from Ψ field stresses.

Quantum Entanglement in Quarkbase Cosmology

Proposes that quantum entanglement is a consequence of shared pressure channels in the plasma ether, explaining instantaneous correlations without superluminal transmission.

Redshift in Quarkbase Theory

Reinterprets redshift as an effect of variations in plasma ether density and pressure wave propagation, rather than metric expansion of space.

Superclusters in Quarkbase Theory

Presents a model for supercluster formation through redistributions of ether pressure, without invoking dark matter as the primary explanation.

Hawking Radiation in Quarkbase Cosmology

Offers an alternative interpretation of Hawking radiation, linking it to pressure redistributions in the plasma ether around event horizons.

Microwave Background in Quarkbase Cosmology

Explains the cosmic microwave background as an equilibrium state of the plasma ether, rather than a thermal remnant of the Big Bang. Predicts anisotropies related to pressure fluctuations.

Quasars in Quarkbase Cosmology

Interprets quasars as high-energy resonators where ether pressure lines produce intense and persistent emissions, without requiring extreme accretion.

CMB Expansion in Quarkbase Extended Theory

Proposes that apparent signals of cosmic expansion in the CMB are due to density variations in the plasma ether, reinterpreting observations without an inflationary Big Bang.

Technical Applications

Quarkbase Cosmology and Maxwell

Study of the relationship between Maxwell's equations and the Quarkbase framework. It is proposed that electromagnetic phenomena emerge as deformations of the plasma ether induced by quarkbase vibrations.

Biomedical Advances with Quarkbase Theory

Explores potential biomedical applications of the theory, including interpretations of cellular resonance, molecular dynamics, and proposals for diagnosis or therapy based on the plasma ether.

Biomedical Applications: Cancer and Quarkbase Cosmology

Analyzes the dynamics of cancer cells from the plasma ether perspective, suggesting alternative models of proliferation and potential therapeutic research pathways.

Graphene and Quarkbase Cosmology

Interprets the extreme electronic mobility and minimum conductivity of graphene through plasma ether pressure channels in the hexagonal lattice, offering testable predictions against standard physics.

Electronic Mobility and Minimum Conductivity in Graphene

Quantitatively develops the case of graphene, showing how Quarkbase theory deduces finite minimum conductivity and its dependence on the geometry of hexagonal cavities.

Predictions & Applications

Summary of observable predictions and potential technological developments derived from the theoretical framework.

Contact & Collaboration

omenacaprado@gmail.com

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