DR. ADAM JOSEPH RODRIGUEZ, PSY.D.
Social Work at Market St, San Francisco, CA

2011020, Aug 18, 2011

Jul 9, 2010

12/803965

Daniel Braithwaite - San Francisco CA, US
Wonhyoung Ryu - Goyang, KR
Courtney Aline Helland - San Francisco CA, US
Kei E. Yamamoto - San Francisco CA, US
Andrew Philip Peterson - San Francisco CA, US
Matthieu Jonemann - San Francisco CA, US
Adam Naegeli Rodriguez - San Francisco CA, US

B01J 19/00

422242, 422129

A reaction hydrogen production control mechanism is provided that includes, a solid sodium borohydride mixture, a liquid fuel reactant, at least one liquid delivery medium (LDM), a movable boundary interface (MBI) and a reaction zone, where the MBI is disposed to provide a constant contact between a reacting surface of the solid fuel mixture and the primary LDM to form the reaction zone. A reaction in the reaction zone includes a hydrolysis reaction. The MBI moves according to a spring, gas pressure, or an elastic membrane. Product paths are disposed to transfer reactants from the system. The product paths can include a channel on a surface of the solid fuel mixture, a channel disposed through the solid fuel mixture, a channel disposed about the solid fuel mixture, a contained region disposed about the solid fuel mixture, or a conduit abutting the solid fuel mixture.

2012010, Apr 26, 2012

Oct 20, 2010

12/908845

DANIEL BRAITHWAITE - SAN FRANCISCO CA, US
JESSE THOMAS - SAN FRANCISCO CA, US
ADAM RODRIGUEZ - SAN FRANCISCO CA, US
TOBIN FISHER - SAN FRANCISCO CA, US
TIBOR FABIAN - MOUNTAIN VIEW CA, US

H01M 8/06

429411, 429421

The present invention discloses a fuel supply for a fuel cell, the fuel cell including a liquid storage area that includes a liquid reactant, a reaction area that includes a solid reactant, wherein the liquid reactant is pumped into the reaction area such that the liquid reactant reacts with the solid reactant to produce reaction components, a product collection area that receives the reaction components, a barrier, and a container with an interior volume that substantially encloses the reaction area, liquid storage area, product collection area. The barrier separates and defines several of the aforementioned areas, and moves to simultaneously increase the product collector area and decrease the liquid storage area as the liquid reactant is pumped from the liquid storage area and the reaction components are transferred into the product collection area.

2012018, Jul 26, 2012

Oct 31, 2011

13/286044

DANIEL BRAITHWAITE - SAN FRANCISCO CA, US
TIBOR FABIAN - MOUNTAIN VIEW CA, US
TOBIN J. FISHER - SAN FRANCISCO CA, US
JONATHAN LOUIS GLASSMAN - INDIANAPOLIS IN, US
ANDREW PHILLIP GUST PETERSON - SAN FRANCISCO CA, US
ADAM RODRIGUEZ - SAN FRANCISCO CA, US

Ardica Technologies, Inc. - San Francisco CA

H01M 8/06, H01M 8/04

429416, 429513

A pump assembly including a first subassembly and a second subassembly. The first subassembly includes a fluid conduit; an inlet fluidly coupled to the liquid reactant dispenser and the fluid conduit; an outlet fluidly coupled to a reaction chamber and the fluid conduit; and a diaphragm, defining a portion of the fluid conduit, that flexes to pump the liquid reactant from the inlet to the outlet. The diaphragm preferably includes an actuation point coupled to the diaphragm, wherein the liquid reactant is substantially contained within the first subassembly during pumping. The second subassembly is couplable to the first subassembly, and is fluidly isolated from the liquid reactant. The second subassembly includes an actuator that couples to the actuation point, wherein operation of the actuator causes pumping action.