Quantum Field Mechanics: Complex-Dynamical Completion of Fundamental Physics and Its Experimental Implications
Résumé
This report provides a brief review of a recently developed new framework for the fundamental physics, designated as Quantum Field Mechanics and including causally complete and intrinsically unified theory of explicitly emerging elementary particles, their inherent properties, quantum and relativistic behaviour, interactions and their results. The essential progress with respect to the conventional theory is attained due to the unreduced, nonperturbative analysis of arbitrary interaction process revealing the qualitatively new phenomenon of dynamic multivaluedness of interaction results and their dynamically entangled internal structure (physics/9806002, physics/0211071), which gives rise to the universally defined dynamic complexity and is absent in the conventional, always perturbative and dynamically single-valued models corresponding to the zero value of unreduced complexity (including the substitutes used for "complexity", "chaoticity", "self-organisation", etc.). It is shown how the observed world structure, starting from elementary particles and their interactions, dynamically emerges from the unreduced interaction between two initially homogeneous, physically real protofields (quant-ph/9902015, quant-ph/9902016). In that way one avoids arbitrary imposition of abstract entities and improvable postulates or "principles", let alone "mysteries", of the conventional theory, which now obtain their unified, consistent and realistic explanation in terms of the unreduced dynamic complexity. We complete the theoretical description of the fundamental world structure emergence and properties by an outline of the ensuing experimental implications of the quantum field mechanics and the resulting causally substantiated change of the basic research strategy.