| Popis: |
An explanation is proposed for the nuclear reactions that occur in the electrolysis class of LENR processes. The proposed explanation postulates that a proton, or deuteron, dissolved in the hydrogen bearing metal cathode, absorbs its associated atomic electron to become a short lived state of the neutron with the resulting neutrino in a singular wave function centered on the neutron. The energy required to initiate this endothermic reaction is supplied either by the ion current during electrolysis type experiments, or by ion bombardment in plasma type experiments. It is the energy of this bombardment of the cathode with heavy ions that creates a coherent polyplasmon field within crystalline metallic grains that are present in the metal cathode of typical active electrolysis cells. The LENR process consists of a second order reaction mediated by a coherent plasmon field excited in the conduction electrons in a hydrogen bearing metal that is in the form of crystalline grains of the order of a few microns in dimension. The coherent plasmon field in each grain is called a polyplasmon. The metallic grains typically form during solidification of a metal, the impurities being forced to the grain surfaces. The resulting grain thus forms a resonant structure that can be filled with a number of coherent plasmons, i.e., a polyplasmon. Energy from the polyplasmon is coupled to the nucleus via electron capture by hydrogen. Because the neutrino has mass, its wave function has a second class of solutions. This description can take the form of a short lived pairing with the neutron that results from electron capture by the hydrogen nucleus. This short-lived compound particle is named the “dion” and in the case of deuterium results in a “dineutron”. Because the dion and dineutron are formed with essentially thermal kinetic energy, they can capture in nearby nuclei, either in hydrogen or in the host metal. Most of the resulting exothermic nuclear energy is absorbed in the plasmon field by a variety of mechanisms that increase the intensity of the plasmon field and hence the rate of electron capture – that then increases the rate of nuclear reactions. This stochastic chain-reaction process continues in the grain until it is terminated by the random occurrence of losses preventing the continuation of sustaining nuclear reactions before the plasmon field decays away, or until the rise in temperature of the metal grain alters the physical properties of the metallic grain sufficiently to disrupt the polyplasmon field. Multiple reported experiments confirm that most of the nuclear energy released is absorbed by the host metallic cathode and the electrolyte. Calculations from first principles are consistent with many of the reported quantitative and qualitative phenomena. |
Full Text from ScienceDirect