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This work reconstructs the full mathematical structure of Einsteinian relativity from a physical medium: a frictionless scalar-pressure ether described by the field Ψ(x,t). Instead of postulating the invariance of c and Lorentz symmetry, the analysis shows that both emerge from the finite reorganisation speed of this medium. The Lorentz factor, relativistic kinematics, energy–momentum relations, and gravitational weak-field optics are recovered without invoking mass or geometric axioms. Einstein’s formalism remains valid, but its ontology is reversed: relativity becomes the macroscopic behaviour of a coherent pressure medium rather than a primitive geometric postulate.The theory derives nuclear and atomic constants (Rydberg value, hydrogen binding energy), predicts the next stable element of the periodic table (Z ≈ 155), and introduces an alternative fission mechanism based on resonance of the Ψ pressure field.
This preprint provides the foundational narrative of Quarkbase Cosmology: the emergence of structure, resonance, and coherence from compact quarkic configurations interacting with the etheric Ψ field.

This work reconstructs the full mathematical structure of Einsteinian relativity from a physical medium: a frictionless scalar-pressure ether described by the field Ψ(x,t). Instead of postulating the invariance of c and Lorentz symmetry, the analysis shows that both emerge from the finite reorganisation speed of this medium. The Lorentz factor, relativistic kinematics, energy–momentum relations, and gravitational weak-field optics are recovered without invoking mass or geometric axioms. Einstein’s formalism remains valid, but its ontology is reversed: relativity becomes the macroscopic behaviour of a coherent pressure medium rather than a primitive geometric postulate.The theory derives nuclear and atomic constants (Rydberg value, hydrogen binding energy), predicts the next stable element of the periodic table (Z ≈ 155), and introduces an alternative fission mechanism based on resonance of the Ψ pressure field.
This preprint provides the foundational narrative of Quarkbase Cosmology: the emergence of structure, resonance, and coherence from compact quarkic configurations interacting with the etheric Ψ field.

This work reconstructs the full mathematical structure of Einsteinian relativity from a physical medium: a frictionless scalar-pressure ether described by the field Ψ(x,t). Instead of postulating the invariance of c and Lorentz symmetry, the analysis shows that both emerge from the finite reorganisation speed of this medium. The Lorentz factor, relativistic kinematics, energy–momentum relations, and gravitational weak-field optics are recovered without invoking mass or geometric axioms. Einstein’s formalism remains valid, but its ontology is reversed: relativity becomes the macroscopic behaviour of a coherent pressure medium rather than a primitive geometric postulate.The theory derives nuclear and atomic constants (Rydberg value, hydrogen binding energy), predicts the next stable element of the periodic table (Z ≈ 155), and introduces an alternative fission mechanism based on resonance of the Ψ pressure field.
This preprint provides the foundational narrative of Quarkbase Cosmology: the emergence of structure, resonance, and coherence from compact quarkic configurations interacting with the etheric Ψ field.

This work reconstructs the full mathematical structure of Einsteinian relativity from a physical medium: a frictionless scalar-pressure ether described by the field Ψ(x,t). Instead of postulating the invariance of c and Lorentz symmetry, the analysis shows that both emerge from the finite reorganisation speed of this medium. The Lorentz factor, relativistic kinematics, energy–momentum relations, and gravitational weak-field optics are recovered without invoking mass or geometric axioms. Einstein’s formalism remains valid, but its ontology is reversed: relativity becomes the macroscopic behaviour of a coherent pressure medium rather than a primitive geometric postulate.The theory derives nuclear and atomic constants (Rydberg value, hydrogen binding energy), predicts the next stable element of the periodic table (Z ≈ 155), and introduces an alternative fission mechanism based on resonance of the Ψ pressure field.
This preprint provides the foundational narrative of Quarkbase Cosmology: the emergence of structure, resonance, and coherence from compact quarkic configurations interacting with the etheric Ψ field.

This work reconstructs the full mathematical structure of Einsteinian relativity from a physical medium: a frictionless scalar-pressure ether described by the field Ψ(x,t). Instead of postulating the invariance of c and Lorentz symmetry, the analysis shows that both emerge from the finite reorganisation speed of this medium. The Lorentz factor, relativistic kinematics, energy–momentum relations, and gravitational weak-field optics are recovered without invoking mass or geometric axioms. Einstein’s formalism remains valid, but its ontology is reversed: relativity becomes the macroscopic behaviour of a coherent pressure medium rather than a primitive geometric postulate.The theory derives nuclear and atomic constants (Rydberg value, hydrogen binding energy), predicts the next stable element of the periodic table (Z ≈ 155), and introduces an alternative fission mechanism based on resonance of the Ψ pressure field.
This preprint provides the foundational narrative of Quarkbase Cosmology: the emergence of structure, resonance, and coherence from compact quarkic configurations interacting with the etheric Ψ field.