Quantum Reality: The Relation between Reality and Space-Time

Olivier Lordereau

In this paper we show that parallel universes are a reality in our space-time. We used a camera and a specific cognitive technology to create a state of well-being and to interact with nature. It"s the first time that we observe the reality of our space-time using a mixture of quantum physics, relativity and cognitive science. Physicists look for a theory to understand our universe, a theory that would blend quantum mechanics with relativity, but they forget an important thing, which is consciousness. Today several ideas exist. The approaches are theoretical and the experiments difficult to carry out. This experimental work proposes to blend physics and cognitive science, thus showing the existence of parallel universe and the existence of light entities or new phenomena in our space-time. Therefore, this work indicates that consciousness plays an important part in the understanding of our universe and of time.

Tomas Pernecky

Jérôme Rosanvallon

Understand the intrinsic physical meaning of quantum formalism leads ontologically to admit that one fundamental side of reality is purely contradictory, irreducibly random, objectively indeterminate and intrinsically independent of relativistic space-time. It means also that physical reality has another fundamental side, i.e. space-time, and that both are irreducible to each other. Quantum reality, discretized by the Planck constant, assume coherent states and partially ordered variables (that are commutative or not), while on the other side, relativistic space-time, structured by the speed of light, assume coherent variables and partially ordered states (that are causally related or not). From this point of view, fields would be only a derived mixture of these two sides. But quantum reality and relativistic space-time seem to be mixed in two kinds of fields themselves irreducible to each other. If, on one hand, quantum field theory has already formalized the way that quantum reality locates, evolves and interacts on a relativistic background, on the other hand, quantum gravity tends to formalize the way that smooth and causally ordered space-time emerges on a quantum background. But no unification of the two fundamental sides of reality must be waited at this derived level. Unification could perhaps intervene only upstream, in a pure variation preceding and underlying its double distinction in variables and states of variation, i.e. its quantization or its localization and their derived mixtures.

道夫 和田

George D. Rock

Boris V. Yakovlev, Liudmila V. Nikiforova

In modern physical theories, when modeling fundamental structures of reality, the relational concept of space and time is not sufficiently taken into account. In modern physical theories, the relational concept of space and time is not sufficiently taken into account when modeling fundamental structures of reality. A priori, the concepts of space and time are introduced, which leads to contradiction. The purpose of the present work is to simulate the localization and motion of a free particle taking into account the relational concept of space and time. When modeling the localization and motion of a free particle, it is shown that the use of the superposition principle, namely, the overlay of subsystems, allows you to take into account the relational concept of space and time. For this, Minkowski space is generalized. State space is introduced - homogeneous space of possible subsystems. From the overlay of these subsystems, Minkowsky space is manifested, taking into account the presence of particles. It is shown that homogeneity and isotropy of space and homogeneity of time follow from homogeneity of space of possible subsystems. For the particle, a non-swinging de Broglie wave packet is obtained.