Experiments

Abstract

Quantum cybernetics is a relativistic aether theory that can accommodate quantum-mechanical nonlocality via the concept of organizational coherence. Whenever two highly nonlinear modifications (commonly called “particles”) of the subquantum aether with two characteristic frequencies, ω₁ and ω₂, have at one time interacted with each other, they may continue to influence each other even if they are separated over nonlocal distances. The degree to which they will then influence each other depends on the phase relations between all the “parts” of the quantum system’s “organization” (e.g., in an experimental arrangement). For example, the behavior of a particle in two-particle interferometry on one side of the apparatus will depend also on what happens on the other side (e.g., depend on what kind of phase shifters or detecting procedures are implemented). Whereas in orthodox quantum theory (including the de Broglie-Bohm version), a sudden change in the experimental setup affects all parts of the system (and thus also the behavior of the particles) instantaneously, this effect is in quantum cybernetics considered to propagate with a finite, though very high, velocity u ≫ c. (A quantitative example will be given in the next section.)