PHYSICAL REALITY IN COLLOID PHYSICS OF GEL OXYHYDRATES
Authors/Creators
Description
The paper makes far-reaching assumptions about the quantum-colloid representation of matter as a macrosystem: a microscopic entangled system becomes a boundary macroscopic (for example) oxyhydrate system, that is, a special quantum form of composite correlations, that is, electro-magnetic noise entangled states (entangledstates) of cluster colloid systems.
The entanglement of oxyhydrate systems is a special quantum form of correlations of composite systems that does not have a classical analogue. It occurs in a system consisting of two or more interacting subsystems (or interacting previously and then separated), and is a superposition of macroscopically different States. In this case, fluctuations of individual parts are interconnected, but not through classical interactions (correlations), but through non-local quantum correlations.
An experimental method is proposed for estimating the size of third clusters of oxyhydrate systems in a dispersion medium, considering entanglement as a special quantum form of correlations of composite systems that does not have a classical analogue. It occurs in a system consisting of two or more interacting subsystems and is a superposition of macroscopically different States. In this case, fluctuations of individual parts are interconnected, but not through classical interactions (correlations), but through non-local quantum correlations.