Generalized unitary evolution for symplectic scalar fermions
A bstract The theory of symplectic scalar fermion of LeClair and Neubert is studied. The theory evades the conventional spin-statistics theorem because its Hamiltonian is pseudo Hermitian. The definition of pseudo Hermiticity is examined in the interacting and the Heisenberg picture. For states that...
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Published in | The journal of high energy physics Vol. 2024; no. 5; pp. 181 - 19 |
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Format | Journal Article |
Language | English |
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Abstract | A
bstract
The theory of symplectic scalar fermion of LeClair and Neubert is studied. The theory evades the conventional spin-statistics theorem because its Hamiltonian is pseudo Hermitian. The definition of pseudo Hermiticity is examined in the interacting and the Heisenberg picture. For states that evolve under pseudo Hermitian Hamiltonians, we define the appropriate inner-product and matrix element of operators that preserve time translation symmetry. The resulting
S
-matrix is shown to satisfy the generalized unitarity relation. We clarify the derivation of the symplectic currents and charges. By demanding the currents and charges to be pseudo Hermitian, the global symmetry of the free Lagrangian density reduces from Sp(2, ℂ) to SU(2). By explicit calculations, we show that the LeClair-Neubert model of
N
quartic self-interacting scalar fermions admits generalized unitary evolution. |
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AbstractList | The theory of symplectic scalar fermion of LeClair and Neubert is studied. The theory evades the conventional spin-statistics theorem because its Hamiltonian is pseudo Hermitian. The definition of pseudo Hermiticity is examined in the interacting and the Heisenberg picture. For states that evolve under pseudo Hermitian Hamiltonians, we define the appropriate inner-product and matrix element of operators that preserve time translation symmetry. The resulting S -matrix is shown to satisfy the generalized unitarity relation. We clarify the derivation of the symplectic currents and charges. By demanding the currents and charges to be pseudo Hermitian, the global symmetry of the free Lagrangian density reduces from Sp(2, ℂ) to SU(2). By explicit calculations, we show that the LeClair-Neubert model of N quartic self-interacting scalar fermions admits generalized unitary evolution. A bstract The theory of symplectic scalar fermion of LeClair and Neubert is studied. The theory evades the conventional spin-statistics theorem because its Hamiltonian is pseudo Hermitian. The definition of pseudo Hermiticity is examined in the interacting and the Heisenberg picture. For states that evolve under pseudo Hermitian Hamiltonians, we define the appropriate inner-product and matrix element of operators that preserve time translation symmetry. The resulting S -matrix is shown to satisfy the generalized unitarity relation. We clarify the derivation of the symplectic currents and charges. By demanding the currents and charges to be pseudo Hermitian, the global symmetry of the free Lagrangian density reduces from Sp(2, ℂ) to SU(2). By explicit calculations, we show that the LeClair-Neubert model of N quartic self-interacting scalar fermions admits generalized unitary evolution. Abstract The theory of symplectic scalar fermion of LeClair and Neubert is studied. The theory evades the conventional spin-statistics theorem because its Hamiltonian is pseudo Hermitian. The definition of pseudo Hermiticity is examined in the interacting and the Heisenberg picture. For states that evolve under pseudo Hermitian Hamiltonians, we define the appropriate inner-product and matrix element of operators that preserve time translation symmetry. The resulting S-matrix is shown to satisfy the generalized unitarity relation. We clarify the derivation of the symplectic currents and charges. By demanding the currents and charges to be pseudo Hermitian, the global symmetry of the free Lagrangian density reduces from Sp(2, ℂ) to SU(2). By explicit calculations, we show that the LeClair-Neubert model of N quartic self-interacting scalar fermions admits generalized unitary evolution. |
ArticleNumber | 181 |
Author | Lee, Cheng-Yang |
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Lee, Spin-half bosons with mass dimension three-half: Evading the spin-statistics theorem, EPL140 (2022) 24001 [Erratum ibid.140 (2022) 69901] [arXiv:2212.09457] [INSPIRE]. – reference: DasDDasSRJevickiAYeQBi-local Construction of Sp(2N)/dS Higher Spin CorrespondenceJHEP2013011072013JHEP...01..107D304550810.1007/JHEP01(2013)107[arXiv:1205.5776] [INSPIRE] – reference: FeiLGiombiSKlebanovIRTarnopolskyGCritical Sp(N) models in 6 – ϵ dimensions and higher spin dS/CFTJHEP201509076342941110.1007/JHEP09(2015)076[arXiv:1502.07271] [INSPIRE] – reference: NgGSStromingerAState/Operator Correspondence in Higher-Spin dS/CFTClass. Quant. Grav.2013301040022013CQGra..30j4002N305508510.1088/0264-9381/30/10/104002[arXiv:1204.1057] [INSPIRE] – reference: AhluwaliaDVda SilvaJMHLeeC-YMass dimension one fields with Wigner degeneracy: A theory of dark matterNucl. Phys. B2023987116092454190010.1016/j.nuclphysb.2023.116092[arXiv:2212.13114] [INSPIRE] – reference: BenderCMMaking sense of non-Hermitian HamiltoniansRept. Prog. Phys.2007709472007RPPh...70..947B233129410.1088/0034-4885/70/6/R03[hep-th/0703096] [INSPIRE] – reference: LeClairANeubertMSemi-Lorentz invariance, unitarity, and critical exponents of symplectic fermion modelsJHEP2007100272007JHEP...10..027L235795110.1088/1126-6708/2007/10/027[arXiv:0705.4657] [INSPIRE] – reference: RyuSYoonJUnitarity of Symplectic Fermions in α Vacua with Negative Central ChargePhys. Rev. Lett.20231302416022023PhRvL.130x1602R460898310.1103/PhysRevLett.130.241602[arXiv:2208.12169] [INSPIRE] – reference: I. Duck and E.C.G. Sudarshan, Pauli and the spin-statistics theorem, World Scientific (1997) [INSPIRE]. – reference: SatoYComments on Entanglement Entropy in the dS/CFT CorrespondencePhys. Rev. D2015912015PhRvD..91h6009S10.1103/PhysRevD.91.086009[arXiv:1501.04903] [INSPIRE] – reference: C.M. Bender and S. 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bstract
The theory of symplectic scalar fermion of LeClair and Neubert is studied. The theory evades the conventional spin-statistics theorem because its... The theory of symplectic scalar fermion of LeClair and Neubert is studied. The theory evades the conventional spin-statistics theorem because its Hamiltonian... Abstract The theory of symplectic scalar fermion of LeClair and Neubert is studied. The theory evades the conventional spin-statistics theorem because its... |
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StartPage | 181 |
SubjectTerms | Classical and Quantum Gravitation Eigenvalues Elementary Particles Evolution Fermions Global Symmetries Physics Physics and Astronomy Quantum Field Theories Quantum Field Theory Quantum Physics Regular Article - Theoretical Physics Relativity Theory S matrix theory Space-Time Symmetries Spacetime String Theory Symmetry Theorems |
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Title | Generalized unitary evolution for symplectic scalar fermions |
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Volume | 2024 |
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