Control of chemical conversion with breakdown and rearrangement to form required products, comprises impulse transfer under forces of mass attraction in closed system

摘要

Control of chemical conversion comprising: (1) overcoming energy barriers at each required intermediate stage by directed impulse transfer; (2) releasing energy by bond rupture is bound; (3) generating the frequency pattern taking into account energy equation and conservation, wave mechanics and numbers theory; and (4) using = 270 enzymes for catalysis during the conversion processes, is new. Control of chemical conversion comprising: (1) overcoming energy barriers at each required intermediate stage by directed impulse transfer using forces of mass attraction; (2) releasing energy by bond rupture is bound; (3) generating the frequency pattern (possibly implying temporal-, amplitude- and spectral profiles) taking into account energy equation and conservation, wave mechanics and numbers theory; and (4) using = 270 enzymes for catalysis during the conversion processes, where no external energy is supplied to overcome the energy threshold and all processes are possible at room temperature, is new. The enzymes are made in accordance with requirements, employing corresponding frequency patterns. When it becomes necessary, they are destroyed, to avoid interference with the course of further reaction. Chemical processes decreasing entropy can be carried out, e.g. photosynthesis. Each product is synthesized from a mixture of educts completely incapable of reaction, with no apparent possibility of the desired product arising. Available biosystems can be used to carry out chemical reactions, by use of suitable frequency patterns to synthesize the desired chemical compound. An Independent claim is included for energy recovery through atomic processes in which materials are caused through intentional use of mass attraction forces, to accept the m . v impulse. They are accelerated so powerfully in this way, that the volume of the relevant matter is greatly reduced by Lorentz contraction, to the extent that the specific mass of the element iridium is exceeded, as a result of which energy stored in the mass (reduction) is released.