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Vol.4 , No. 2, Publication Date: Jul. 5, 2017, Page: 8-11
 of the particle is balanced by the gravitational energy of the particle, and the energy of the particle is equal to the rest mass of the particle. The particle has not energy to radiate the photon. The probability of the decay of the proton is negligible. A toy model of the particle with the split energy (high and low level modes) is considered. The energy of the proton in the high level mode is rather large to ensure the efficient decay of the proton. The electron in the high level mode can convert half the liberated gravitational binding energy into radiated photon.&picture=http://www.aascit.org/aascit/decorators/img/journal/909.jpg)
| [1] | Dmitri Khokhlov, CTIE Department, Sumy State University, Sumy, Ukraine. |
The particle falling onto the surface of the gravastar is considered. It is studied the problem of convertation of the liberated gravitational binding energy of the particle into radiated photon and the problem of the decay of the proton. It is shown that the heat energy (gravitational binding energy) of the particle is balanced by the gravitational energy of the particle, and the energy of the particle is equal to the rest mass of the particle. The particle has not energy to radiate the photon. The probability of the decay of the proton is negligible. A toy model of the particle with the split energy (high and low level modes) is considered. The energy of the proton in the high level mode is rather large to ensure the efficient decay of the proton. The electron in the high level mode can convert half the liberated gravitational binding energy into radiated photon.
Keywords
Gravitational Binding Energy, Gravastar, Decay of Proton
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