Copenhagen Quantum Mechanics Emerges from a Deterministic Schrödinger Theory in 11 Dimensional Spacetime Including Weak Field Gravitation

2023

J. Phys.: Conf. Ser.

We present a quantum field theory of gravity in 11 dimensional spacetime, based on Einstein-Hilbert action and expanded up to 4th order in the metric. In the theory the deviation of the local metric from Minkowski metric is a quantum field, called gravonon field. It is responsible for the localization of a matter particle on a definite position in four dimensional spacetime (warp resonance, beable). This is the solution of the measurament problem of Quantum Mechanics coming out as result of the deterministic Schrödinger equation. The quantum gravonon field is also decisive for calculating the expansion of the universe. In lowest order of the metric the interaction of the matter field with the gravonon field is the cause for the expansion of the universe and is the quantum analogue of the often mentioned dark energy. In higher orders of the metric the interaction of ordinary matter and gravonons becomes attractive. The gravonon field then assumes the role of dark matter. McGaugh’s universal radial acceleration relation in rotationally supported galaxies is obtained using this quantum gravitational appoach. The concept of dark matter emerges as do the results of Milgrom’s MOND analysis.

Section: Infinitiesmentioning

confidence: 99%

Section: Basic Features Of Ehhd Emerging Dark Energy and Dark Mattermentioning

confidence: 99%

Section: The Concept Of Gravonons and Beablesmentioning

confidence: 99%

See 1 more Smart Citation

A QFT based on Einstein-Hilbert action and hidden dimensions as consistent theory of measurement, dark energy, dark matter and McGaugh’s universal law for rotating galaxies

2023

J. Phys.: Conf. Ser.

“…We use the expression beable in the sense of John Bell's local beable. According to our proposal signals in experiments in 3D space can be received only via beables and hence measurements are tied to beables (47). Expressed with John Bell's words: "One of the apparent non-localities of quantum mechanics is the instantaneous, over all space, 'collapse of the wave function' on 'measurement'.…”

Section: The Model and The Physical Picturementioning

confidence: 99%

“…The method of solving Schrödinger's equation for the time development of the total wave packet has been described in ref. (47). It uses a basis consiting of many particle configurations (the electron, the photon, gravonons, core movement of the carbonyl CO fragment, protein phonons) in a configuration interaction (CI) approximation.…”

Section: The Hamiltonianmentioning

confidence: 99%

How Can the Green Sulfur Bacteria in the Depths of the Black Sea Use Quantum Computing for Light Harvesting?

Quantum Systems in Physics, Chemistry, and Biology

2017

Long lasting coherence in photosynthetic pigment-protein complexes has been observed even at physiological temperatures (1; 2; 3). Experiments have demonstrated quantum coherent behaviour in the long-time operation of the D-Wave quantum computer as well (4; 5). Quantum coherence is the common feature between the two phenomena. However, the 'decoherence time' of a single flux qubit, the component of the D-Wave quantum computer, is reported to be on the order of nanoseconds, which is comparable to the time for a single operation and much shorter than the time required to carry out a computation on the order of seconds. An explanations for the factor of 10 8 discrepancy between the single flux qubit coherence time and the long-time quantum behaviour of an array of thousand flux qubits was suggested within a theory where the flux qubits are coupled to an environment of particles called gravonons of high density of states (6; 7). The coherent evolution is in high dimensional spacetime and can be understood as a solution of Schrödinger's time-dependent equation.Explanations for the quantum beats observed in 2D Fourier transform electronic spectroscopy of the Fenna-Matthews-Olson (FMO) protein complex in the green sulfur bacteria are presently sought in constructing transport theories based on quantum master equations where 'good' molecular vibrations ('coloured noise') in the chlorophyll and the surrounding protein scaffold knock the exciton oscillations back into coherence (8; 9). These 'good' vibrations are claimed to have developed in three billion years of natural selection. These theories, however, face the discomforting experimental observation that "attempts to scramble vibrational modes or to shift resonances with isotopic substitution miserably failed to affect the beating signals" (10). As a possible way out of this dilemma we adopted the formalism of the quantum computation to the quantum beats in the FMO protein complex.

Reconciling reality, space and time: A graviton driven quantum mechanism of cosmic expansion and CMB radiation

2019

J. Phys.: Conf. Ser.

The theory of emerging quantum mechanics (EQM) is a quantum field theory in flat 11 dimensional spacetime, quantizing gravity in the weak interaction limit. In EQM the quantum fields materialize (i.e., they become real) if they entangle with the gravonons, i.e. localized gravitons, thereby forming beables. If not entangled with gravonons, the quantum field is in a limbo state as e.g. exemplified by the state inbetween source and screen in the double slit experiment. Quantum diffusion proceeds via repeated limbo - beable transitions. This leads to the impression that particles having been measured at a certain separation in space suddenly disappear and reappear at a different separation. For any cosmological experiment this is consistent with the interpretation that space has expanded. The rate of cosmic expansion is then equal to the rate of beable - limbo transitions. This rate is calculated from first principles and equals the experimentally determined Hubble parameter. Explicit calculations on the generation of the cosmic microwave radiation (CMB) require to consider the beabling process of the electromagnetic quantum field. The beabling condition is fulfilled for light-atom-lattices (LAL). Temperature emerges in EQM by escape of the particle out of the warp resonance (beable). Without fitting any free model parameter the CMB radiation temperature is 2.2 K, which is to be compared to the experimental value of 2.7 K.