Neutron Concentrator, a Hypothetical Small Neutron Star based on the Emission of Neutrons in Minerals Such as Granite and Other Commonly Available Objects
The aim of this work is to verify the existence of neutron emission in some “circuits” mainly composed of common stones. The idea of this work finds its foundation in the moment in which it is possible to limit the scattering of any neutrons produced, once this is done, the neutron beam could be driven so that they are concentrated in a certain point. The generation of neutrons should obviously be channelled taking into consideration the scattering that is obtained in the minerals that make up these devices after they have been emitted and if a way to contain (a confined space) with an “adjustable” scattering could be found then it could be that the idea of generating a small neutron star could be a viable idea. The most extravagant aspect is the one linked to the compression or pressure force which can be obtained either directly by applying two plates which surround our granite or by a centrifugal force or by a radial acceleration which arises from the rotation of our granite. device; all this was born from a “very strange” idea to plug a black hole with an explosion because the uncontrolled generation of neutrons due to the compression should find its culmination in a very high rotation and a corresponding very high pressure, all this is crazy but is the basic idea that inspired this work. The generation of neutrons with a compressive effect on certain minerals is due to the much discussed so-called “piezonuclear” phenomenon and in any case it seems interesting combined with the Hopkinson circuit famous for its magnetic circuits and with another device; the similarity of the first arises from the idea of constructing a path that allows the circulation of neutrons in a circuit made up of mineral elements and not only but certainly of common materials in order to (as the title says) if one can observe the generation uncontrolled emission (at times) of neutrons which can trigger a particular response in a circuit similar to a Hopkinson equivalent circuit which we can call a “neutron circuit” where the path of N is to verify the existence of a possible maintenance of the emission of neutrons but to verify if this emission can be increased, controlled in a certain sense. Two methods will be presented, one “symmetrical” and one “radial” with radial production axial control with open control chain and the second with rotation and tangential-centrifugal production and radial control.
