Entanglement-enhanced test proposal for local Lorentz-symmetry violation via spinor atoms

Zhuang, Min; Huang, Jiahao; Lee, Chaohong

doi:10.48550/arxiv.2201.11366

Cited by 1 publication

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“…However, it is known that entanglement in quantum mechanics involves Lorentz symmetry violation [1][2][3][4][5][6]. Indeed, several explorers exploit entangled particles to observe Lorentz symmetry violation; see, for instance [7][8][9][10][11][12][13].…”

Section: Introductionmentioning

confidence: 99%

Understanding Lorentz Utilizing Galilei: The Emergence of a Friendly Extended Special Relativity Theory that Admits Relativistic Multi-Particle Entanglement

Abraham A

2024

Ann Math Phys

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Special relativity theory stems from the Lorentz transformation of signature (1,3). The incorporation into special relativity of the Lorentz transformations of signature (m,n) for all m,n∈ℕ (n = 3 in physical applications) enriches the theory. The resulting enriched special relativity is a friendly extended special relativity that admits multi-particle entanglement, as demanded by relativistic quantum mechanics. The Lorentz transformation of signature (m,n) admits a novel physical interpretation induced by the intuitively clear interpretation of the Galilei transformation of signature (m,n) for all m,n > 1. In this sense we understand Lorentz utilizing Galilei in m temporal and n spatial dimensions, resulting in the emergence of multi-particle entanglement that the enriched special theory of relativity admits. Remarkably, it turns out that, for any m,n∈ℕ, the group of Lorentz transformations of signature (m,n) is the symmetry group that underlies any multi-particle system that consists of m n - dimensional entangled particles.

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Section: Introductionmentioning

confidence: 99%

Understanding Lorentz Utilizing Galilei: The Emergence of a Friendly Extended Special Relativity Theory that Admits Relativistic Multi-Particle Entanglement

Abraham A

2024

Ann Math Phys

View full text Add to dashboard Cite

show abstract

Entanglement-enhanced test proposal for local Lorentz-symmetry violation via spinor atoms

Cited by 1 publication

References 55 publications

Understanding Lorentz Utilizing Galilei: The Emergence of a Friendly Extended Special Relativity Theory that Admits Relativistic Multi-Particle Entanglement

Understanding Lorentz Utilizing Galilei: The Emergence of a Friendly Extended Special Relativity Theory that Admits Relativistic Multi-Particle Entanglement

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