Partner at Sharp & Cobos, LLP - 2013-present Owner at Sharp Law Firm - 1991-present Associate at Sharp & Cobos, LLP - 2002-2013 Associate at Michael R. Sharp , Attorney at Law - 1988-2002 Partner at Coffee, Coffee & Sharp - 1978-1991
Education:
Southern Methodist University Graduated - 1978 University of Texas Degree - BBA - Bachelor of Business Administration - Finance Graduated - 1975
Specialties:
Health Care - 75%, 36 years, 1,000 cases Real Estate - 15%, 46 years, 5,000 cases Business - 10%, 46 years, 500 cases
Associations:
American Bar Association, 2013-present Austin Bar Association, 2013-present U.S. Supreme Court, 1982-present U.S. Court of Appeals for the Fifth Circuit, 1980-present U.S. District Court for the Northern and Western Districts of Texas, 1980-present Dallas Bar Association, 1978-present
Description:
I am pleased and humbled to have been rated A-V by Martindale-Hubbell for more than 25 consecutive years.
Dr. Sharp graduated from the Dartmouth Medical School in 1998. He works in Palo Alto, CA and specializes in General Practice. Dr. Sharp is affiliated with Stanford Hospital.
Magdi K. Khair - San Antonio TX Cynthia C. Webb - San Antonio TX Gordon J. Bartley - San Antonio TX Christopher A. Sharp - San Antonio TX
Assignee:
Southwest Research Institute - San Antonio TX
International Classification:
F01N 300
US Classification:
60286, 60274, 60285, 60288, 60311
Abstract:
A method for controlling diesel engine emissions is disclosed. The diesel engines exhaust system has a diesel particulate filter (DPF) and a lean NO trap (LNT). The DPF is a filter and is monitored to determine the need for regeneration. The LNT is monitored to determine the need for regeneration or desulfurization. A fuel injector is used to inject fuel upstream of the LNT under certain conditions, and a bypass may be used to bypass exhaust around the DPF to provide richer or hotter exhaust to the LNT. The sensor outputs and controls for providing the appropriate heat or fuel mix for regeneration and desulfurization may be controlled with enhancements to existing engine control circuitry.
Integrated Method For Controlling Diesel Engine Emissions In Crt-Lnt System
Magdi K. Khair - San Antonio TX Cynthia C. Webb - San Antonio TX Gordon J. Bartley - San Antonio TX Christopher A. Sharp - San Antonio TX
Assignee:
Southwest Research Institute - San Antonio TX
International Classification:
F01N 300
US Classification:
60286, 60274, 60276, 60285, 60288, 60295, 60297
Abstract:
A method for controlling diesel engine emissions is disclosed. The diesel engines exhaust system has a NO oxidation catalyst, a diesel particulate filter (DPF), and a lean NO trap (LNT). The DPF is monitored to determine the need for regeneration. The LNT is monitored to determine the need for regeneration or desulfurization. A fuel injector is used to inject fuel upstream of the LNT under certain conditions, and a bypass may be used to bypass exhaust around the oxidation catalyst to provide richer or hotter exhaust to the LNT.
Noreduction System For Diesel Engines, Using Hydrogen Selective Catalytic Reduction
Gordon James Johnston Bartley - San Antonio TX, US Christopher Alan Sharp - San Antonio TX, US
Assignee:
Southwest Research Institute - San Antonio TX
International Classification:
B01D 53/34
US Classification:
422168
Abstract:
An emission control system for reducing NOin the exhaust of a diesel engine. A partial oxidation system receives diesel fuel from the engine's fuel tank and partially oxidizes the diesel fuel into hydrogen. The hydrogen is then introduced into the main exhaust line and the hydrogen-enhanced exhaust is delivered to a hydrogen selective catalytic reduction unit, which uses the hydrogen to convert the NOto nitrogen.
Gordon James Johnston Bartley - San Antonio TX, US Christopher Alan Sharp - San Antonio TX, US
Assignee:
Southwest Research Institute - San Antonio TX
International Classification:
B01D 53/56
US Classification:
4232391
Abstract:
An emission control system for reducing NOin the exhaust of a diesel engine. A partial oxidation system receives diesel fuel from the engine's fuel tank and partially oxidizes the diesel fuel into hydrogen. The hydrogen is then introduced into the main exhaust line and the hydrogen-enhanced exhaust is delivered to a hydrogen selective catalytic reduction unit, which uses the hydrogen to convert the NOto nitrogen.
Exhaust Gas Recirculation System With Control Of Egr Gas Temperature
Magdi K. Khair - San Antonio TX, US Yiqun Huang - San Antonio TX, US Christopher A. Sharp - San Antonio TX, US Cynthia C. Webb - San Antonio TX, US
Assignee:
Southwest Research Institute - San Antonio TX
International Classification:
F02M 25/07 F02B 47/08 F02B 33/44 F28F 27/02
US Classification:
12356812, 606052
Abstract:
A method and system for controlling the temperature of recirculated exhaust gas in an exhaust gas recirculation (EGR) system, such as those used in connection with diesel engines. An EGR loop (which may be either a high pressure loop or a low pressure loop) has a dual-leg segment with an EGR cooler on one leg and an EGR heater on the other leg. By means of a valve, the EGR gas may be diverted to either one leg or the other, thereby providing either cooled or heated EGR gas to the engine.
Noreduction System For Diesel Engines, Using Hydrogen Selective Catalytic Reduction
Gordon James Johnston Bartley - San Anonio TX, US Christopher Alan Sharp - San Antonio TX, US
Assignee:
Southwest Research Institute - San Antonio TX
International Classification:
B01D 50/00
US Classification:
422168
Abstract:
An emission control system for reducing NOin the exhaust of a diesel engine. A partial oxidation system receives diesel fuel from the engine's fuel tank and partially oxidizes the diesel fuel into hydrogen. The hydrogen is then introduced into the main exhaust line and the hydrogen-enhanced exhaust is delivered to a hydrogen selective catalytic reduction unit, which uses the hydrogen to convert the NOto nitrogen.
Various methods and systems for augmenting the amount of NOin the exhaust of an exhaust flow simulation system. These methods and system can be “combustion” or “post combustion”. A combustion embodiment injects a nitrogen-containing compound (doping agent) into the burner, so that it mixed and combusted with the fuel.
Cylindrical Proton Exchange Membrane Fuel Cells And Methods Of Making Same
Edward Albert Bass - San Antonio TX Patrick Martin Merritt - San Antonio TX Christopher Alan Sharp - San Antonio TX Craig Marshall Wall - San Antonio TX John Campbell - San Antonio TX
International Classification:
H01M 810
US Classification:
429 31
Abstract:
The present invention provides a method of manufacturing a cylindrical fuel cell comprising: providing an anode comprising a substantially solid cylindrical porous conductive matrix, said anode having an anode outer surface; intimately contacting a first proton exchange catalyst with said anode; conforming around and in intimate contact with said anode outer surface an inner polymer electrolyte membrane comprising a membrane outer surface and a membrane inner surface, wherein said membrane inner surface defines a tubular compartment and ionically communicates with said first proton exchange catalyst; providing a source of hydrogen gas in fluid communication with said first proton exchange catalyst; and, disposing around and in ionic communication with said membrane outer surface a cathode comprising a catalytically effective amount of a second proton exchange catalyst.
Rainbow Elementary School Ansbach SC 1980-1982, Logan Elementary School El Paso TX 1981-1984, Basset Junior High School El Paso TX 1984-1985, Sego Middle School Augusta GA 1987-1989