Quantum mechanics are generally interpreted as physical reality with superposition of wave functions, which have to collapse to observable reality. From a psycho-biological perspective, it could also be interpreted as superposition in the mental representation of reality, which corresponds to imagined potentiality and is naturally replaced by reality, when it becomes observable. The interpretat...

In this paper we continue the study, started in [1], of the operatorial formulation of classical mechanics given by Koopman and von Neumann (KvN) in the Thirties. In particular we show that the introduction of the KvN Hilbert space of complex and square integrable " wave functions " requires an enlargement of the set of the observables of ordinary classical mechanics. The possible role and the ...

We combine newly developed experimental and theoretical methods to explore and control the rotations of asymmetric top molecules. In the low-temperature limit, the revival spectra of laser-driven rotational wave packets exhibit a fascinating quantum-mechanical structure, which is qualitatively different for asymmetric tops compared to symmetric or linear tops. With increasing fluence, the struc...

It is shown that the Einstein-Podolsky-Rosen conclusion concerning the 'incom-pleteness' of Quantum Mechanics does not follow from the results of their proposed gedanken experiment, but is rather stated as a premise. If it were possible to perform the experiment it would, in fact, show that Quantum Mechanics is 'complete' for the observables discussed. Because, however, of the non square-integr...

The aim of this paper is to give a brief account of the development of the mathematical equivalence of quantum mechanics. In order to deal with atomic systems, Heisenberg developed matrix mechanics in 1925. Some time later, in the winter of 1926, Schrödinger established his wave mechanics. In the spring of 1926, quantum physicists had two theoretical models that allowed them to predict the same...

Abstract: The present work shows that through a suitable change of variables relativistic dynamics can be mapped to light propagation in a non-homogeneous medium. A particle’s trajectory through the modified space-time is thus formally equivalent to a light ray and can be derived from a mechanical equivalent of Fermat’s principle. The similarities between light propagation and mechanics are the...