Abstract:
A fuel catalyst for improving combustion efficiency is provided that includes at least one hydride producing element, and at least one element of greater activity on the electrolytic scale than the hydride producing element and at least one element of lesser activity on the electrolytic scale than the hydride producing element. The hydride producing element preferably includes an element from at least one of a Group IV and Group V of the periodic table. The element of greater activity and the element of lesser activity preferably includes at least one of zinc, magnesium, aluminum, palladium, silver, copper and cerium. Preferred formulations of the catalyst element include: a) 20-60% wt antimony, 10-30% wt tin, 10-80% wt zinc and 1-5% wt silver; b) 40% wt antimony, 18% wt tin, 40% wt zinc and 2% wt silver; c) 20-60% wt antimony, 10-30% wt tin, 20-80% wt magnesium, 1-8% wt cerium and 0.1-1.0% wt palladium; d) 40% wt antimony, 25% wt tin, 30% wt magnesium, 4.8% wt cerium and 0.2% wt palladium; and e) 25% wt antimony, 25% wt tin, 39% wt zinc and 11% wt aluminum.
Abstract:
A method and apparatus are provided for reducing pollutants in the exhaust gases produced from the combustion of a fuel by introducing hydroxyl and associated radicals and oxidizers into at least one of the precombustion and postcombustion gas stream of the combustion engine upstream of the catalytic converter and treating the exhaust gases with the catalytic converter.
Abstract:
A method and apparatus are provided for improving the conversion efficiency of a catalytic converter for treating exhaust gases produced from the combustion of a fuel to at least reduce pollutants from incomplete combustion, wherein the reduction in pollutants is achieved by the introduction of ozone, upstream from the catalytic converter, to improve the efficiency of the catalytic converter.
Abstract:
A fuel treatment device treats fuel prior to combustion in order to improve combustion efficiency and reduce exhaust emissions in hydrocarbon fuel burning systems. The fuel treatment device includes at least one element comprising tin, antimony, lead and mercury that is brought in contact with fuel to be treated. The element comprises the following percentages by weight: 60-80% tin; 15-30% antimony; 2-7% lead; and 3-12% mercury. In a further preferred embodiment, the element comprises the following percentages by weight: 70-75% tin; 15-30% antimony; 2-7% lead; and 3-12% mercury. In a still further preferred embodiment, the element comprises an alloy including approximately 75% wt tin, 21% wt antimony and 4% wt lead, wherein 0.5 kg of mercury and 0.020 kg platinum is added to 5.0 kg of the alloy. The fuel is treated as it comes into contact with the element.
Abstract:
Disclosed are methods and compositions for increasing the fuel efficiency of and/or advantageously modifying the emissions of an internal combustion engine. These preferred embodiments involve the addition of elemental selenium or a selenium-containing material to the fuel upon which the engine is operated.
Abstract:
Certain chemical elements or compounds, smog inhibitors, added to combustible hydrocarbon-base fuels, can reduce, or eliminate, ozone, O.sub.3, an oxidant necessary for the formation of smog and its irritants. A test program demonstrated that atmospheric ozone was reduced an average of about 75% when exhaust gases derived from an automotive engine burning fuel containing an inhibitor were injected into a sealed chamber as compared to the same engine burning fuel containing no additive. In each of the tests using the fuel additive, ozone concentrations approached, or reached, zero for short periods of time, indicating the viability of this method of ozone, and therefore smog, control. This patent is for the purpose of controlling smog formation by the addition of smog inhibitors, such as, but not limited to, iodine or its compounds to hydrocarbon-base fuels prior to, or during, the combustion cycle of these fuels.
Abstract:
A colloidal magnesium suspension is prepared by grinding 400 mesh pure magnesium (99.8+%) in dry kerosene until it reaches colloidal dimensions (from about 500 to 1 millimicron) and is thereafter added in critical low concentration of 1/10 grams as substantially pure magnesium up to about 6 grams per 10 gallons of diesel fuel whereby improved burning of the diesel fuel is observed as evidenced by improvement in mileage of up to 50% for the same motor settings as compared to the diesel fuel to which the colloidal magnesium has not been added. Optimum amounts of about 1/2 to 4 grams of colloidal magnesium in 10 gallons are preferred in order to minimize air pollution, while giving maximum benefit for fuel economy.