Cold fusion requires two essential conditions for it to occur. First, a location in which the Coulomb barrier can be reduced must be created. This unique condition is called the nuclear active environment (NAE). Second, the nuclear fuel, which is any isotope of hydrogen, must diffuse from its usual location in the crystal structure and enter the NAE. Upon arrival in the NAE, the fuel is converted to a nuclear product by a very unusual nuclear process, which involves the electrons within the NAE reducing the Coulomb barrier and carrying away part of the nuclear energy as they are emitted with kinetic energy. Helium is the final nuclear product when deuterium is used. This paper describes how these requirements can be met without violating the rules governing a chemical environment while being consistent with the nuclear requirements. A model describing the process is provided using only the observed behaviors and their implications.
Edmund Storms (Sat,) studied this question.
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