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Stochastic electrodynamics provides first glimpse at the Hyperspace beyond our physical universe
Stochastic electrodynamics (SED) is providing a clear picture of the Hyperspace beyond our physical universe.
The laws of the quantum vacuum are not completely understood, but certainly their manifestations are frequently stochastic. Fluctuations of vacuum fields are irregular, but their averaged effects can be calculated using quantum field theory (QFT). Within the rather broad scope of the latter term, calculations agree with observations to great accuracy in processes where electrons interact with photons, i.e. quantum electrodynamics (QED). The basic formulation of QFT as a theory of quantum electrodynamics can be extended also to the theory of the strong or nuclear interaction, where under the term quantum chromodynamics (QCD) it may be a subject for study in the future. Right now, probably the best-studied consequence of QFT as applied to electrodynamics comes from measurements of the Casimir effect. This effect, wherein parallel plates in apparently empty space experience a force of attraction, clearly shows that the quantum vacuum is not passive. Useful calculations can also be done in this subject using a semiclassical approach to the interactions of charged particles with an electromagnetic field known as stochastic electrodynamics (SED). One version of the latter envisages a zero-point electromagnetic field whose quanta buffet charged particles, producing a microscopic motion whih Schroedinger dubbed "zitterbewegung". Using the techniques of SED an intriguing new theoretical approach is suggesting a deep connection between electrodynamics, the origin of inertia and the quantum wave nature of matter.
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