Integrated Fuel Cell Technologies, Inc. - Bedford MA
International Classification:
H01M 810
US Classification:
429 30, 429 32, 429 34, 429 38, 429 35, 429 36
Abstract:
A fuel cell is disclosed which is formed on a semiconductor wafer by etching channel in the wafer and forming a proton exchange membrane PEM barrier in the etched channel. The barrier divides the channel into two. A hydrogen fuel is admitted into one of the divided channels and an oxidant into the other reacts with a catalyst formed on an anode electrode at the hydrogen side of the channel to release hydrogen ions (protons) which are absorbed into the PEM. The protons migrate through the PEM and recombine with return hydrogen electrons on a cathode electrode on the oxygen side of the PEM and the oxygen to form water.
Integrated Fuel Cell Technologies, Inc. - Bedford MA
International Classification:
H01M 8/10
US Classification:
429 30, 429 32, 429 34
Abstract:
A fuel cell is disclosed which is formed on a semiconductor wafer by etching channel in the wafer and forming a proton exchange membrane PEM barrier in the etched channel. The barrier divides the channel into two. A hydrogen fuel is admitted into one of the divided channels and an oxidant into the other. The hydrogen reacts with a catalyst formed on an anode electrode at the hydrogen side of the channel to release hydrogen ions (protons) which are absorbed into the PEM. The protons migrate through the PEM and recombine with return hydrogen electrons on a cathode electrode on the oxygen side of the PEM and the oxygen to form water.
Integrated Fuel Cell Technologies, Inc. - Burlington MA
International Classification:
H01M 8/10 H01M 8/02
US Classification:
429 30, 429 32, 429 34
Abstract:
A fuel cell is disclosed which is formed on a semiconductor wafer by etching channel in the wafer and forming a proton exchange membrane PEM barrier in the etched channel. The barrier divides the channel into two. A hydrogen fuel is admitted into one of the divided channels and an oxidant into the other. The hydrogen reacts with a catalyst formed on an anode electrode at the hydrogen side of the channel to release hydrogen ions (protons) which are absorbed into the PEM. The protons migrate through the PEM and recombine with return hydrogen electrons on a cathode electrode on the oxygen side of the PEM and the oxygen to form water.
Stephen A. Marsh - Carlisle MA, US Donald M. Parker - Marblehead MA, US Peter N. Pintauro - Shaker Heights OH, US
Assignee:
Encite, LLC - Burlington MA
International Classification:
B01J 7/00 H01M 8/06 C01B 3/36 C01B 6/24 C01B 3/00
US Classification:
48 61, 48197 R, 423644, 4236582
Abstract:
A self-regulating gas generator that, in response to gas demand, supplies and automatically adjusts the amount of gas (e. g. , hydrogen or oxygen) catalytically generated in a chemical supply chamber from an appropriate chemical supply, such as a chemical solution, gas dissolved in liquid, or mixture. The gas generator may employ a piston, rotating rod, or other element(s) to expose the chemical supply to the catalyst in controlled amounts. The gas generator may be used to provide gas for various gas consuming devices, such as a fuel cell, torch, or oxygen respiratory devices.
A fuel cell is disclosed which is formed on a semiconductor wafer by etching channel in the wafer and forming electronics on the substrate electronically coupled to the fuel cell that controls generation of power by the fuel cell through electrical communication with the fuel cell. A hydrogen fuel is admitted into one of the divided channels and an oxidant into the other. The hydrogen reacts with a catalyst formed on an anode electrode at the hydrogen side of the channel to release hydrogen ions (protons) which are absorbed into the PEM. The protons migrate through the PEM and recombine with return hydrogen electrons on a cathode electrode on the oxygen side of the PEM and the oxygen to form water.
A power cell comprises a membrane with a first side and a second side. The membrane has a geometric structure encompassing a volume. The power cell also has a cover that is coupled to the membrane to separate the first flow path from the second flow path at the membrane. In the power cell, first and second catalyst is in gaseous communication with respective first flow path and second flow path and in ionic communication with respective first and second sides of the membrane. Furthermore, a first electrode is electrically coupled to the first catalyst on the first side of the membrane, and a second electrode is electrically coupled to the second catalyst on the second side of the membrane. In another embodiment, the power cell further includes a substrate on which the membrane is coupled.
Stephen A. Marsh - Carlisle MA, US Donald M. Parker - Marblehead MA, US William J. Grande - Pittsford NY, US
Assignee:
Encite LLC - Burlington MA
International Classification:
H01M 8/24 H01M 8/04
US Classification:
429444, 429513
Abstract:
Among other things, a gas storage system includes a group of capsules and an activation element coupled to the group. The group of capsules are formed within a substrate and contain gas stored at a relatively high pressure compared to atmospheric pressure. The activation element is configured to deliver energy in an amount sufficient to cause at least one of the capsules to release stored gas.
A fuel cell is disclosed which is formed on a semiconductor wafer by etching channel in the wafer and forming electronics on the substrate electronically coupled to the fuel cell that controls generation of power by the fuel cell through electrical communication with the fuel cell. A hydrogen fuel is admitted into one of the divided channels and an oxidant into the other. The hydrogen reacts with a catalyst formed on an anode electrode at the hydrogen side of the channel to release hydrogen ions (protons) which are absorbed into the PEM. The protons migrate through the PEM and recombine with return hydrogen electrons on a cathode electrode on the oxygen side of the PEM and the oxygen to form water.
Luce Forward 600 West Broadway Suite 2600, San Diego, CA 92101 619 699-2418 (Office), 619 645-5363 (Fax)
Licenses:
California - Active 1984
Education:
University of Michigan Law School Degree - JD - Juris Doctor - Law Graduated - 1984 Wayne State University Degree - BA - Bachelor of Arts - Chemistry Graduated - 1974
American Bar Association - Member Association of Southern California Defense Counsel Inter-Pacific Bar Association - Member San Diego County Bar Association - Member State Bar of California - Member
Environment Energy & Product Regulation California Environmental Law Policy Proposition 65 CERCLA Remediation and Brownfield Redevelopment Chemicals Pesticides and Product Regulation International Defective and Dangerous Products Insurance Litigation Environmental Law Corporate & Incorporation Real Estate
ISLN:
905153184
Admitted:
1984
University:
Florida State University, 1974; Florida State University, 1974; Wayne State University, B.A., 1974
Stephen "Steve" Marsh (born 1979) is a British actor and co-host of the CBeebies programme Big Cook, Little Cook and is also co-host of Space Hoppers. ...
Oct 2011 to 2000 CREW LEADERUS NAVY San Diego, CA Feb 2009 to May 2011 ELECTRONICS TECHNICIANMAINTENACE Huntsville, AL Sep 2007 to Feb 2009 REPAIR TECH, SAFEDRYWILD BILLS ELECTRONICS Albertville, AL Jul 2006 to Sep 2007 SYSTEM INSTALLER
Education:
Stark State College Canton, OH 2013 to 2014 Electrical Engineer in electrical maintenance techElectronics Technician Advanced School Great Lakes, IL 2010 to 2011 Electronics tech in Radar and Radio transmissionArab High School Arab, AL 2003 to 2007 AutoCAD
Skills:
AutoCAD, PLC programming, VFD programming, Microwave/ Radar/ Radio experience in HF/UHF/SHF/EHF, Electrical Experience [] pneumatic and hydralics [] pumps centrifuge/vane/gear/ vacuum, welding arc/mig/tig, mechanical experience and troubleshooting, lathe/mill/ dorenger saw, HVAC/R, cooling tower/ chillers, motor wiring, gearbox repair, conveyor repair and retrofit improvements, soldering Micro/Macro, PCB fabrication and repair, pipe fitting, mandrel bending, tow mtor and scissor lift repair and operation crown/raymond/Cat/Mitsubishi.
His attorney Stephen Marsh said Davis would have spent part of Wednesday taking a polygraph test if pardons officials had taken his offer seriously. But they, too, said they wouldn't reconsider their decision. Georgia's governor does not have the power to grant condemned inmates clemency.
Defense lawyer Stephen Marsh told The Associated Press that the Georgia Department of Corrections denied his request to allow Davis to take a polygraph test. Marsh had said he hoped the polygraph would convince the state pardons board to reconsider a decision against clemency.Attorney Stephen Marsh said he had asked state prisons officials and the pardons board if they would allow a polygraph test. A prisons spokeswoman said she was unaware of the request and the pardons board didn't immediately respond.
"We believe that we've established substantial doubt in this case," said Stephen Marsh, Davis' defense attorney. "And given the level of doubt that exists in this case, we believe that an execution is simply not appropriate."
hey insisted the case had too much conflicting evidence to be a death penalty case. We are thankful that the board provided us with an opportunity to present our case today, Davis attorney Stephen Marsh said after leaving the hearing. We believe that we have established substantial doubt in this
The Board of Pardons and Paroles on Tuesday rejected Davis' request for clemency after hearing hours of testimony from his supporters and prosecutors. That's according to two of Davis' lawyers, Stephen Marsh and Brian Kammer. There was no immediate word from the board.
Inside the closed-door meeting, a parade of attorneys and supporters asked the five-member board to spare Davis' life. Defense attorney Stephen Marsh said the legal team told the board there was too much substantial doubt about his guilt to allow the execution to go forward. Prosecutors were expecte