The University of Texas System

Other

Ford Global Technolgoies, LLC

Radian Corporation

Radian Corporation and the Board of Regents

Ronald D Matthews

Steven P Nichols

Ronald D Bell

John R Howell

William C Gardiner

William F Weldon

Mark M Koeroghlian

George Carver Davis

Rudolf Hermann Stanglmaier

Wengang Dai

Brian L Harden

Richard W Faidley

A gasoline distillation apparatus (12) for an engine (14) includes a heated vapor separator (22), a condenser (24), and a controller (28). The heated vapor separator (22) partially vaporizes the engine's primary fuel (16) to generate a fuel vapor (44). The condenser (24) cools the fuel vapor (44) to produce a liquid secondary fuel (18) that is more volatile than the primary fuel (16). The controller (28) determines when the engine (14) is supplied with either primary (16) or secondary fuel (18). The secondary fuel (18) is used only during an initial engine operation period, while the primary fuel (16) is used all other times. After engine operation, the primary fuel (16) is purged from the engine (14) and replaced with the secondary fuel (18) to maximize secondary fuel (18) use during the initial engine operation period.

On-board gasoline distillation for reduced hydrocarbon emissions at

A plasma ignitor system capable of injecting a high energy plasma jet into a combustion chamber of an internal combustion engine or continuous combustion system. The plasma ignitor features a high energy current pulse source and a geometrically configured coaxial, dual-rail or three-rail ignitor system for deeper and more accurate injection of plasma into a combustion chamber of either large or small dimension.

Miniature railgun engine ignitor

Apparatus for controlled low NO.sub.x combustion. First and second combustion zones are provided, each filled with a porous high temperature resistant matrix, the void spaces of which provide sites at which substantially all of the combustion occurs. The second zone is downstream of the first zone. Means are provided for mixing fuel and a gaseous source of oxygen and providing the resultant combustible mixture to the input end of the first combustion zone to establish fuel-lean conditions therein; and means for feeding the combustion products from the first zone to the second zone and augmenting same with further oxygen and sufficient additional fuel to create fuel-rich burning conditions therein to complete the oxidation of the products from the first zone. Cooling means are preferably mounted in proximity to the input end of the first combustion zone, for maintaining the temperature of the said combustible mixture at the input end below ignition temperature, thereby limiting the flame produced by combustion in the porous matrix to the downstream side of the cooling means. The corresponding method is also disclosed and claimed.

Apparatus and method for combustion within porous matrix elements

Burner apparatus for use in controlled low NO.sub.x combustion. Mixing and flow-directing means receive and mix fuel and air provided thereto and form a flow of the resulting combustible mixture. A combustion zone defined by a porous high temperature-resistant matrix includes an input end for receiving the combustible flow. Cooling means are mounted in proximity to the input end of the combustion zone, for maintaining the temperature of the flowing combustible mixture proximate the input end below ignition temperature, thereby limiting the flame produced by combustion in the porous matrix to the downstream side of the cooling means. The method for controlled low NO.sub.x combustion is also disclosed and claimed.

Low NO.sub.x combustion is effected by a method wherein a fuel, e.g., natural gas, and a source of oxygen, e.g., air, are mixed and the mixture is combusted in at least two successive combustion zones filled with a porous matrix, the void spaces of which provide sites at which substantially all of the said combustion occurs; viz. a first zone wherein the mixture is fuel-rich, and a second zone wherein the mixture is fuel-lean. Preferably, the method utilizes an additional combustion zone which precedes or is upstream of the first zone and is filled with a said porous matrix, wherein the mixture is fuel-lean. Apparatus for low NO.sub.x combustion is also provided which includes an arrangement for mixing fuel and oxygen, and at least first and second combustion zones filled with a said porous matrix, and means for providing a fuel-oxygen mixture to said first zone which is fuel rich, and for adjusting the resulting combustion products flowed to the second zone with additional fuel and oxygen as to provide a fuel-lean mixture therein. Preferably the apparatus also includes a zone or stage filled with a said porous matrix which precedes or is upstream of the first zone, to which the fuel and oxygen are initially provided as to establish fuel-lean conditions therein.

Combustion method and apparatus for staged combustion within porous

A plasma ignitor system capable of injection a narrowly focused high energy plasma jet into a combustion chamber of an internal combustion engine or continuous combustion system. The plasma ignitor features a high energy current pulse source and a geometrically configured coaxial or dual-rail ignitor system for deeper and more accurate injection of plasma into a combustion chamber of either large or small dimension.

Processes for converting NH.sub.3 contaminants of gaseous fuel to N.sub.2. The processes involve reacting gaseous fuel containing NH.sub.3 with a sufficient amount of NO at a temperature and for a time sufficient to convert a portion of the NH.sub.3 to N.sub.2. The processes disclosed are especially useful in converting NH.sub.3 contaminants in coal gas to N.sub.2.

Growing community of inventors

Austin, TX, United States of America

Ronald D Matthews