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Maximum Quantum Entanglement: Hidden Symmetry and the Mirror Universe

Original: "Entanglement Maximization and Mirror Symmetry in Two-Higgs-Doublet Models"
The demand for maximal entanglement in Higgs boson collisions opens the way to a doubling of symmetry and predicts the existence of a dark sector.
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The collision of Higgs bosons is like tuning a cosmic instrument: the demand for maximal entanglement forces symmetry to double, like an orchestra finding perfect harmony without a conductor, giving birth to six silent voices and a mirror twin of our world. Dark matter is no longer a hypothesis, but an obligatory partner in this cosmic dance.

🎯 The demand for maximal entanglement acts as postselection in a quantum repetition code: the system automatically discards states not invariant under a Z₂ symmetry — as if nature programs symmetries directly at the qubit level.

🎬 The idea of a mirror world with dark twins of all particles, familiar from 'Star Trek' and Asimov's novel 'The Gods Themselves,' where twin universes communicate through fundamental forces, now gains theoretical footing.

\lambda_1 = \lambda_2 = \lambda_3 = \lambda_4 = \pm \lambda_5, \quad \lambda_6 = \lambda_7 = 0
Relationship between Higgs potential parameters ensuring maximal entanglement in scattering channels.
\Delta(|\psi\rangle) \equiv 2|\alpha\delta - \beta\gamma|
Concurrence takes values from 0 (no entanglement) to 1 (maximal entanglement).
Scientists
Erwin SchrödingerHugh Everett IIINiels BohrPascual JordanWerner HeisenbergStephen Hawking
Tags
quantum entanglement Higgs boson Standard Model quantum information dark matter quantum computer Quantum Field entropy quantum measurement superposition
Laws
second law of thermodynamicsSchrödinger equationHeisenberg uncertainty principleHawking radiationgravitational lensingNoether's theorem
Original: arXiv:2505.00873v1 · CC BY 4.0 · bridge42worlds