Autozone Dc
Advisor
Toyota of Tri-Cities Feb 2017 - Mar 2017
Sales Associate
Lineage Logistics Aug 2009 - Jul 2016
Superintendent
Thomas Furniture Jul 2008 - Aug 2009
Sales Associate
Shopko Feb 2005 - Jul 2008
General Merchandise Manager
Education:
Columbia Basin College 2001 - 2002
Skills:
Forklift Operation Forklift Training Supervisory Skills Communication Cpr and First Aid Certified Rf Scanner Knowledge Computer Skills Third Party Logistics Continuous Process Improvement Quality Management Workplace Safety Retail Management Freight Team Supervisory Furniture Sales Selling Cars
Jerome C. Birnbaum - Richland WA, US Glen E. Fryxell - Kennewick WA, US Shari Li Xiaohong - Richland WA, US Christopher A. Coyle - Pasco WA, US Glen C. Dunham - Kennewick WA, US Suresh Baskaran - Kennewick WA, US Ralph E. Williford - Kennewick WA, US
Assignee:
Battelle Memorial Institute - Richland WA
International Classification:
B28B 1/30
US Classification:
264656, 264 44, 264628, 264675
Abstract:
Porous ceramic and hybrid ceramic films are useful as low dielectric constant interlayers in semiconductor interconnects. (Hybrid ceramic films are defined as films that contain organic and ceramic molecular components in the structure, as, for example, organosilicates). This invention describes the usefulness of humidity treatments (using specific temperature/humidity treatments as illustrative examples) in increasing mechanical integrity of porous dielectric films with minimal detrimental effect on film porosity or dielectric constant and with no adverse impact on film quality. The efficacy of such treatments is illustrated using surfactant-templated mesoporous silicate films as an example. This invention also describes a specific family of additives to be used with highly pure alkali-metal-free ceramic and hybrid precursors for such dielectric films that will enable better control of the film porosity and quality and lower dielectric constants with the required mechanical integrity. The efficacy of such additives is illustrated using surfactant-templated mesoporous silicate films as a model example.
Mesoporous Silica Film From A Solution Containing A Surfactant And Methods Of Making Same
Jun Liu - West Richland WA, US Karel Domansky - Cambridge MA, US Xiaohong Li - Richland WA, US Glen Fryxell - Kennewick WA, US Suresh Baskaran - Kennewick WA, US Nathan Kohler - Richland WA, US Suntharampillai Thevuthasan - Kennewick WA, US Christopher Coyle - Richland WA, US Jerome Birnbaum - Richland WA, US
International Classification:
B32B003/26
US Classification:
428/312600, 427/240000, 427/385500, 428/313500
Abstract:
The present invention is a mesoporous silica film having a low dielectric constant and method of making having the steps of combining a surfactant in a silica precursor solution, spin-coating a film from this solution mixture, forming a partially hydroxylated mesoporous film, and dehydroxylating the hydroxylated film to obtain the mesoporous film. It is advantageous that the small polyoxyethylene ether surfactants used in spin-coated films as described in the present invention will result in fine pores smaller on average than about 20 nm. The resulting mesoporous film has a dielectric constant less than 3, which is stable in moist air with a specific humidity. The present invention provides a method for superior control of film thickness and thickness uniformity over a coated wafer, and films with low dielectric constant.
High Strength Insulating Metal-To-Ceramic Joints For Solid Oxide Fuel Cells And Other High Temperature Applications And Method Of Making
K. Weil - Richland WA, US Lawrence Chick - West Richland WA, US Christopher Coyle - Pasco WA, US John Hardy - Richland WA, US Guanguang Xia - Pasco WA, US Kerry Meinhardt - Kennewick WA, US Vincent Sprenkle - Richland WA, US Dean Paxton - Kennewick WA, US
Assignee:
Battelle Memorial Institute - Richland WA
International Classification:
H01M 2/02
US Classification:
228101000, 429034000
Abstract:
A seal formed between a metal part and a second part that will remain gas tight in high temperature operating environments which experience frequent thermal cycling, which is particularly useful as an insulating joint in solid oxide fuel cells. A first metal part is attached to an reinforcing material. A glass forming material in the positioned in between the first metal part and the second part, and a seal is formed between the first metal part and the second part by heating the glass to a temperature suitable to melt the glass forming materials. The glass encapsulates and bonds at least a portion of the reinforcing material, thereby adding tremendous strength to the overall seal. A ceramic material may be added to the glass forming materials, to assist in forming an insulating barrier between the first metal part and the second part and to regulating the viscosity of the glass during the heating step.
High Strength Insulating Metal-To-Metal Joints For Solid Oxide Fuel Cells And Other High Temperature Applications And Method Of Making
K. Weil - Richland WA, US Lawrence Chick - West Richland WA, US Christopher Coyle - Pasco WA, US John Hardy - Richland WA, US Guanguang Xia - Pasco WA, US Kerry Meinhardt - Kennewick WA, US Vincent Sprenkle - Richland WA, US Dean Paxton - Kennewick WA, US
Assignee:
Battelle Memorial Institute - Richland WA
International Classification:
H01M 2/02
US Classification:
429034000, 228101000
Abstract:
A seal formed between a metal part and a second part that will remain gas tight in high temperature operating environments which experience frequent thermal cycling, which is particularly useful as an insulating joint in solid oxide fuel cells. A first metal part is attached to a reinforcing material. A glass forming material in the positioned in between the first metal part and the second part, and a seal is formed between the first metal part and the second part by heating the glass to a temperature suitable to melt the glass forming materials. The glass encapsulates and bonds at least a portion of the reinforcing material, thereby adding tremendous strength to the overall seal. A ceramic material may be added to the glass forming materials, to assist in forming an insulating barrier between the first metal part and the second part and to regulating the viscosity of the glass during the heating step.
High Strength Insulating Metal-To-Ceramic Joints For Solid Oxide Fuel Cells And Other High Temperature Applications And Method Of Making
K. Scott Weil - Richland WA, US Lawrence A. Chick - West Richland WA, US Christopher A. Coyle - Pasco WA, US John S. Hardy - Richland WA, US Guanguang Xia - Pasco WA, US Kerry D. Meinhardt - Kennewick WA, US Vincent L. Sprenkle - Richland WA, US Dean M. Paxton - Kennewick WA, US
International Classification:
B32B 15/04 C03C 27/02
US Classification:
428433, 65 591, 428332
Abstract:
A seal formed between a metal part and a second part that will remain gas tight in high temperature operating environments which experience frequent thermal cycling, which is particularly useful as an insulating joint in solid oxide fuel cells. A first metal part is attached to a reinforcing material. A glass forming material in the positioned in between the first metal part and the second part, and a seal is formed between the first metal part and the second part by heating the glass to a temperature suitable to melt the glass forming materials. The glass encapsulates and bonds at least a portion of the reinforcing material, thereby adding tremendous strength to the overall seal. A ceramic material may be added to the glass forming materials, to assist in forming an insulating barrier between the first metal part and the second part and to regulating the viscosity of the glass during the heating step.
Intermediate Temperature Sodium Metal-Halide Energy Storage Devices
Guosheng Li - Richland WA, US Xiaochuan Lu - Richland WA, US Vincent L. Sprenkle - Richland WA, US John P. Lemmon - Kennewick WA, US Zhenguo Yang - Bellevue WA, US Christopher A. Coyle - Pasco WA, US
Assignee:
BATTELLE MEMORIAL INSTITUTE - Richland WA
International Classification:
H01M 10/0563
US Classification:
429199
Abstract:
Sodium metal-halide energy storage devices utilizing a substituting salt in its secondary electrolyte can operate at temperatures lower than conventional ZEBRA batteries while maintaining desirable performance and lifetime characteristics. According to one example, a sodium metal-halide energy storage device operates at a temperature less than or equal to 200 C. and has a liquid secondary electrolyte having MNaAlClH, wherein M is a metal cation of a substituting salt, H is an anion of the substituting salt, y is a mole fraction of substituted Na and Cl, and x is a ratio of y over r, where r is the oxidation state of M. The melting temperature of the substituting salt is less than that of NaCl.
Mesoporous Silica Film From A Solution Containing A Surfactant And Methods Of Making Same
Jun Liu - West Richland WA Karel Domansky - Cambridge MA Xiaohong Li - Richland WA Glen E. Fryxell - Kennewick WA Suresh Baskaran - Kennewick WA Nathan J. Kohler - Richland WA Suntharampillai Thevuthasan - Kennewick WA Christopher A. Coyle - Richland WA Jerome C. Birnbaum - Richland WA
Assignee:
Battelle Memorial Institute - Richland WA
International Classification:
B05D 312
US Classification:
427240
Abstract:
The present invention is a mesoporous silica film having a low dielectric constant and method of making having the steps of combining a surfactant in a silica precursor solution, spin-coating a film from this solution mixture, forming a partially hydroxylated mesoporous film, and dehydroxylating the hydroxylated film to obtain the mesoporous film. It is advantageous that the small polyoxyethylene ether surfactants used in spin-coated films as described in the present invention will result in fine pores smaller on average than about 20 nm. The resulting mesoporous film has a dielectric constant less than 3, which is stable in moist air with a specific humidity. The present invention provides a method for superior control of film thickness and thickness uniformity over a coated wafer, and films with low dielectric constant.