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This paper investigates the mathematical formulation of quantum mechanics by rewriting the Schrödinger equation as a second-order real-valued scalar field, arguing that while complex numbers can be eliminated algebraically, the underlying symplectic and gauge structures remain essential. The work clarifies how local quantum features like probability density and momentum generation are preserved only when restoring the full Hamiltonian phase-space structure rather than relying on incomplete one-field reductions.
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Schr\"odinger's real-valued equation revisited

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arXiv:2607.20104v1 Announce Type: new Abstract: The Schr\"odinger equation can be rewritten as a second-order equation for a single real-valued scalar field. Taken at face value, however, this one-field reduction obscures several local structures of quantum mechanics: the Born density and current, the role of momentum as a generator, and the usual derivation of the uncertainty relation. We argue that these difficulties do not show that real variables fail. They show that the reduced equation is not, by itself, a complete local representation of the theory. Its coherent real form is obtained by restoring the underlying Hamiltonian phase-space structure, where the missing component reappears as a canonical partner. In this real phase-space formulation, the standard structures reappear locally, and minimal magnetic coupling reveals an internal \(SO(2)\) gauge structure. Thus, the symbol \(i\) can be removed, but the symplectic and complex structure it encodes cannot.

Abstract:The Schrödinger equation can be rewritten as a second-order equation for a single real-valued scalar field. Taken at face value, however, this one-field reduction obscures several local structures of quantum mechanics: the Born density and current, the role of momentum as a generator, and the usual derivation of the uncertainty relation. We argue that these difficulties do not show that real variables fail. They show that the reduced equation is not, by itself, a complete local representation of the theory. Its coherent real form is obtained by restoring the underlying Hamiltonian phase-space structure, where the missing component reappears as a canonical partner. In this real phase-space formulation, the standard structures reappear locally, and minimal magnetic coupling reveals an internal \(SO(2)\) gauge structure. Thus, the symbol \(i\) can be removed, but the symplectic and complex structure it encodes cannot.

Quantum Physics (quant-ph); History and Philosophy of Physics (physics.hist-ph)

arXiv:2607.20104 [quant-ph]

(or arXiv:2607.20104v1 [quant-ph] for this version)

https://doi.org/10.48550/arXiv.2607.20104 Focus to learn more arXiv-issued DOI via DataCite (pending registration)

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