Numerical confirmation of the mass of the electron through the energy balance of the proton-proton cycle within the framework of Chronal Dynamics.

The mass of the electron is one of the fundamental constants of physics, but its numerical value has not yet been derived and is introduced into the theory empirically. In the present work, it is shown that the mass of the electron arises as a natural difference between the energy of the chronal attractor and the energy released in the first reaction of the proton-proton cycle . The value is derived from a self-consistent iterative model of the proton–electron system with the introduction of a dynamic parameter of the local metric , determined by the energy density of the system by the relation . The proposed method does not contain fitting parameters and makes it possible to numerically determine the mass of the electron with an accuracy limited only by the numerical error of the model.