Abstract:We show that the set-theoretic forcing is the essential part of the continuous measurement of a suitably rich Boolean algebra of quantum observables. The Boolean algebra structure of quantum observables enables us to give a classical and geometric meaning to the results of measurements of the observables. The measurement takes place in the semiclassical state of the system which is the generic filter added by a forcing to the ZFC model based on the Borel measure algebra. The analogue of the semiclassical state… Show more
“…Without any cutoff imposed, this integral is UV-divergent. However, in our model, it holds that [8,9] Theorem 2. Zero-energy modes of quantum fields have vanishing contributions to the gravitational vacuum energy.…”
Section: The Physics Of Forcingmentioning
confidence: 87%
“…Moreover, forcing can be regarded as a technique for exploring the structure of the real line rather than proving independence results in formal set theory. Set-theoretic forcing as a tool in QM has already been identified and used by several authors, such as P. Benioff [4], G. Takeuti [5], M. Ozawa [6,7], W. Boos [2], R. Van Wesep [1], and the present authors [8][9][10][11][12].…”
Section: Classical Large-scale Coordinates From Quantum Regimementioning
confidence: 99%
“…The case of the energy operator discussed above shows that some forms of energy-namely those whose self-adjoint operators give rise to the non-atomless Boolean algebras as in Proposition 2-propagate in spacetime parametrized by the reals not extended by forcing. This cosmological model was indeed recently studied [8][9][10], where it was proposed that zero-energy modes of energy of quantum fields propagate in spacetime which is parametrized in a ZFC model not extended by forcing. Here, however, B Q , B P lead to the nontrivial extension of the model and the real line.…”
Abstract:Recently, a cosmological model based on smooth open 4-manifolds admitting non-standard smoothness structures was proposed. The manifolds are exotic versions of R 4 and S 3 × R. The model has been developed further and proven to be capable of obtaining some realistic cosmological parameters from these exotic smoothings. The important problem of the quantum origins of the exotic smoothness of space-time is addressed here. It is shown that the algebraic structure of the quantum-mechanical lattice of projections enforces exotic smoothness on R n . Since the only possibility for such a structure is exotic R 4 , it is found to be a reasonable explanation of the large-scale four-dimensionality of space-time. This is based on our recent research indicating the role of set-theoretic forcing in quantum mechanics. In particular, it is shown that a distributive lattice of projections implies the standard smooth structure on R 4 . Two examples of models valid for cosmology are discussed. The important result that the cosmological constant can be identified with the constant curvature of the embedding (exotic R 4 ) → R 4 is referred. . The calculations are in good agreement with the observed small value of the dark energy density.
“…Without any cutoff imposed, this integral is UV-divergent. However, in our model, it holds that [8,9] Theorem 2. Zero-energy modes of quantum fields have vanishing contributions to the gravitational vacuum energy.…”
Section: The Physics Of Forcingmentioning
confidence: 87%
“…Moreover, forcing can be regarded as a technique for exploring the structure of the real line rather than proving independence results in formal set theory. Set-theoretic forcing as a tool in QM has already been identified and used by several authors, such as P. Benioff [4], G. Takeuti [5], M. Ozawa [6,7], W. Boos [2], R. Van Wesep [1], and the present authors [8][9][10][11][12].…”
Section: Classical Large-scale Coordinates From Quantum Regimementioning
confidence: 99%
“…The case of the energy operator discussed above shows that some forms of energy-namely those whose self-adjoint operators give rise to the non-atomless Boolean algebras as in Proposition 2-propagate in spacetime parametrized by the reals not extended by forcing. This cosmological model was indeed recently studied [8][9][10], where it was proposed that zero-energy modes of energy of quantum fields propagate in spacetime which is parametrized in a ZFC model not extended by forcing. Here, however, B Q , B P lead to the nontrivial extension of the model and the real line.…”
Abstract:Recently, a cosmological model based on smooth open 4-manifolds admitting non-standard smoothness structures was proposed. The manifolds are exotic versions of R 4 and S 3 × R. The model has been developed further and proven to be capable of obtaining some realistic cosmological parameters from these exotic smoothings. The important problem of the quantum origins of the exotic smoothness of space-time is addressed here. It is shown that the algebraic structure of the quantum-mechanical lattice of projections enforces exotic smoothness on R n . Since the only possibility for such a structure is exotic R 4 , it is found to be a reasonable explanation of the large-scale four-dimensionality of space-time. This is based on our recent research indicating the role of set-theoretic forcing in quantum mechanics. In particular, it is shown that a distributive lattice of projections implies the standard smooth structure on R 4 . Two examples of models valid for cosmology are discussed. The important result that the cosmological constant can be identified with the constant curvature of the embedding (exotic R 4 ) → R 4 is referred. . The calculations are in good agreement with the observed small value of the dark energy density.
“…This section is the summary of our previous article regarding the forcing emerging from QM. An interested reader is referred to [6] for a more detailed treatment. A forcing can be seen as the deriving property of some Boolean algebra 1 .…”
Section: Forcing In Qmmentioning
confidence: 99%
“…A forcing can be seen as the deriving property of some Boolean algebra 1 . By B, we denote some Boolean algebra of projections chosen from the lattice of projections L(H) on a Hilbert space H. The spectral theorem, in general, gives the correspondence between the algebra of self-adjoint (s-a) operators which are in the Boolean algebra B [6,7] and the measure algebra defined on the Borel subsets of X = R 3 . Actually, there exists the isomorphism between the algebra B generating the family of s-a operators {A α } and the measure algebra of the space 2 (X, µ).…”
We discuss the recently proposed model, where the spacetime in large scales is parametrized by the usual real line R, while at small (quantum mechanical) scales, the space is parametrized by the real numbers R M from some formal model M of Zermelo-Fraenkel set theory. We argue that the set-theoretic forcing is an important ingredient of the shift from micro-to macroscale. The set R M , describing the space at the Planck era, is merely a meager subset of R. It is Lebesgue non-measurable and all its measurable subsets have Lebesgue measure 0. According to this, the contributions to the cosmological constant from the zero-point energies of quantum fields vanish. Moreover, the emerged irregularities in the real line can be considered as the source of the primordial quantum fluctuations.
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