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This research demonstrates how nonadiabatic electromagnetic fields induce a transition from orthogonal to non-orthogonal quantum states, effectively generating a time-dependent Fubini-Study metric within the Hilbert space. By drawing parallels between this dynamical geometric structure and the spacetime metrics of general relativity, the study offers fundamental insights into the geometry of quantum mechanics under rapid field variations. Such theoretical advances are critical for understanding the foundational limits of quantum control and simulation in extreme environments.
Hilbert space geometry change by a nonadiabatic electromagnetic field
arXiv:2609.06800v1 Announce Type: new Abstract: A change in the geometry of the Hilbert space of a quantum system interacting with a nonadiabatic electromagnetic field is found. To identify its physical origin, the evolution of orthogonality to non-orthogonality of the states of the quantum system has been investigated based on the matrix elements of the quantum states in three main physical cases: a quantum system in zero external field (closed quantum system), a quantum system in slowly changing (adiabatic) field, and a quantum system in rapidly changing (nonadiabatic) field. The quantum states are orthogonal in the first two cases and change to non-orthogonal in a nonadiabatic field, following continuously the parameters of the field. A time-dependent Fubini-Study metric of the Hilbert space can be determined based on the matrix elements of the quantum states in the nonadiabatic case. Such a dynamical metric of the Hilbert space in quantum mechanics resembles the dynamical metric of spacetime in general relativity.
Abstract:A change in the geometry of the Hilbert space of a quantum system interacting with a nonadiabatic electromagnetic field is found. To identify its physical origin, the evolution of orthogonality to non-orthogonality of the states of the quantum system has been investigated based on the matrix elements of the quantum states in three main physical cases: a quantum system in zero external field (closed quantum system), a quantum system in slowly changing (adiabatic) field, and a quantum system in rapidly changing (nonadiabatic) field. The quantum states are orthogonal in the first two cases and change to non-orthogonal in a nonadiabatic field, following continuously the parameters of the field. A time-dependent Fubini-Study metric of the Hilbert space can be determined based on the matrix elements of the quantum states in the nonadiabatic case. Such a dynamical metric of the Hilbert space in quantum mechanics resembles the dynamical metric of spacetime in general relativity.
arXiv:2609.06800 [quant-ph]
(or arXiv:2609.06800v1 [quant-ph] for this version)
https://doi.org/10.48550/arXiv.2609.06800 Focus to learn more arXiv-issued DOI via DataCite (pending registration)
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