Experimental and phenomenological comparison between Piezonuclear reactions and Condensed Matter Nuclear Science phenomenology

Source: arXiv


The purpose of this paper is to place side by side the experimental results
of Piezonu- clear reactions, which have been recently unveiled, and those
collected during the last twenty years of experiments on low energy nuclear
reactions (LENR). We will briefy re- port the results of our campaign of
piezonuclear reactions experiments where ultrasounds and cavitation were
applied to solutions of stable elements. These outcomes will be shown to be
compatible with the results and evidences obtained from low energy nuclear
reac- tion experiments. Some theoretical concepts and ideas, on which our
experiments are grounded, will be sketched and it will be shown that, in order
to trigger our measured effects, it exists an energy threshold, that has to be
overcome, and a maximum inter- val of time for this energy to be released to
the nuclear system. Eventually, a research hypothesis will be put forward about
the chance to raise the level of analogy from the mere comparison of results up
to the phenomenological level. Here, among the various evidences collected in
LENR experiments, we will search for hints about the overcome of the energy
threshold and about the mechanism that releases the loaded energy in a suitable
interval of time.

Download full-text


Available from: F. Cardone, Feb 03, 2014
  • [Show abstract] [Hide abstract]
    ABSTRACT: A variety of anomalies have been reported in recent years in fracture experiments, including neutron emission, elemental anomalies, and alpha emission. Such anomalies are similar to those studied in condensed matter nuclear science, which has been of interest to us in the development of theoretical models. In this work a brief review of the new theoretical approach is given, along with connections to both anomalies in fracture experiments and anomalies in other experiments. The fracture anomalies in this picture arise naturally as a result of the relevativistic interaction between vibrations and internal nuclear degrees of freedom, and up-conversion of vibrational quanta. A major conclusion of this work is that the elemental anomalies cannot be accounted for by disintegration as an incoherent process; since the observed products show a high degree of selectivity, while disintegration is very much non-selective. The possibility of disintegration as a coherent quantum process is introduced, and a suggestions for new experiments and measurements are put forth that can help to clarify underlying mechanisms.
    Meccanica 05/2014; 50(5). DOI:10.1007/s11012-014-9988-8 · 1.95 Impact Factor