Surface catalyst infra red laser

Abstract

An energy converter reacts hydrocarbons and air on a catalyst configuration to produce a population inversion. A photovoltaic system may extract the radiating energy, and a laser system may extract a significant fraction of the reaction energy in the form of coherent radiation. The flooding of the catalyst adsorption sites with fuel and the choice of catalyst predisposes the adsorbing oxygen molecules to create mono-atomic oxygen hot-atoms, which deposit the considerable energy of oxygen adsorption directly into a reaction channel of adjacent, adsorbed and simple fuel radicals, thereby producing simple, energetic product molecules, concentrating the energy in one or a few modes, and strongly favoring inverted populations. A solid state method to stimulate precursor chemisorbed specie dissociation accelerates the reaction rates, providing a method to greatly intensify pulsed power output, increase efficiency, and to facilitate nano-scale and micro-scale thermal energy heat rejection processes.

Description

CROSS-REFERENCE TO RELATED APPLICATIONS [0001] This application claims the benefit of the U.S. Provisional Patent Application No. 60 / 160,527 filed on Oct. 20, 1999, and entitled SURFACE CATALYST INFRA RED LASER.TECHNICAL FIELD OF THE INVENTION [0002] The present invention relates generally to solid-state devices for converting or extracting energy from hydrocarbon-oxidizer reactions. More specifically, this invention relates to a significant improvement of the process for the efficient conversion and extraction of energy in the form of optical emissions and of coherent radiation and from reactants such as hydrocarbons, hydrogen or other combustible materials reacting on a catalyst surface with air or other oxidizers. BACKGROUND OF THE INVENTION [0003] One method to convert chemical reactant energy directly into useful work such as electricity uses electrochemical couples such as batteries and fuel cells. In this method, a substantial fraction of the reactant bond energies may be con...

AI Technical Summary

Benefits of technology

"The present invention is about a method and system for creating energy from fuel and oxidizer reactions on a catalyst surface. The invention uses a laser to capture the reaction energy and create population inverted reaction products. These products can be efficiently converted into electricity or mechanical forces. The invention also uses a solid-state method to provide hot electrons directly, without the use of UV light, which in turn stimulates dissociation of the precursor, peroxo-chemisorbed oxidizer, and cause an avalanche of surface reactions. Overall, the invention allows for efficient and effective energy conversion from fuel and oxidizer reactions."

Problems solved by technology

However, the physical chemistry underlying these processes limits the rate of such conversion substantially.

However, the reactants and exhausts of this method are usually dangerous and incompatible with human safety considerations.

Moreover, these devices cannot be efficiently miniaturized.

One problem in the prior state of technology is the process of creating highly energetic species on the catalyst surface, such as hot atoms and mono-atomic oxygen, that 1) retain a significant amount of the chemical energy for reactions, instead of dissipating it as a heat of adsorption, and 2) that will produce an inverted population as a product of the reaction.

The issue in the creation of hot atoms, such as mono-atomic oxygen, is that it usually takes more electrical energy to produce the hot atoms than can be extracted from the resulting chemical reactions.

The issue with this approach is the low efficiency of the generation and conversion of UV light into dissociated oxygen atoms.

An issue here is the preferential production of hot atoms.

Furthermore, mono-atomic oxygen atoms supplied externally to the catalytic surface may cause a population inversion in the products of carbon monoxide reaction to carbon dioxide and in the surface catalyzed oxidation of hydrogen.

Heretofore, the oxygen adsorption process wasted approximately half the reaction energy as heat on the catalyst surface.

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