A multiple-photosensor structure. The multiple-photosensor structure includes a substrate. A first photosensor is formed adjacent to the substrate. A first pixel electrode of the first photosensor is electrically connected to the substrate. A first transparent conductive layer is formed adjacent to the first photosensor. The first transparent conductive layer electrically connects a first outer electrode of the first photosensor to the substrate. A second photosensor is adjacent to the first transparent conductive layer. A second pixel electrode of the second photosensor is electrically connected to the substrate through the first transparent conductive layer. A second transparent conductive layer is adjacent to the second photosensor. The second transparent conductive layer electrically connects a second outer electrode of the second photosensor to the substrate. The multiple-photosensor structure can further include a third photosensor formed adjacent to the second transparent conductive layer.
Fabrication Of Self-Aligned Metal Electrode Structure For Elevated Sensors
Jeremy A Theil - Mountain View CA Min Cao - Mountain View CA
Assignee:
Agilent Technologies, Inc. - Palo Alto CA
International Classification:
H01L 2100
US Classification:
438 73
Abstract:
A self-aligned metal electrode sensor structure. The self-aligned metal electrode sensor structure includes a substrate which includes electronic circuitry. An interconnect structure is formed adjacent to the substrate. The interconnect structure includes conductive interconnect vias which pass through the interconnect structure. A sensor is formed adjacent to the interconnect structure. The sensor includes a pixel metallization section and a doped layer electrode. The pixel metallization section is electrically connected to the interconnect via. The pixel metallization section includes an outer surface which is substantially planar. The doped layer electrode includes an inner surface adjacent to the outer surface of the pixel metallization section. The entire inner surface of the doped layer electrode is substantially planar. A transparent conductive layer is formed adjacent to the sensor.
Self-Aligned Metal Electrode Structure For Elevated Sensors
Jeremy A. Theil - Mountain View CA Min Cao - Mountain View CA
Assignee:
Agilent Technologies, Inc. - Palo Alto CA
International Classification:
H01L 310376
US Classification:
257444, 257 53, 257226, 257448, 257458
Abstract:
A self-aligned metal electrode sensor structure. The self-aligned metal electrode sensor structure includes a substrate which includes electronic circuitry. An interconnect structure is formed adjacent to the substrate. The interconnect structure includes conductive interconnect vias which pass through the interconnect structure. A sensor is formed adjacent to the interconnect structure. The sensor includes a pixel metallization section and a doped layer electrode. The pixel metallization section is electrically connected to the interconnect via. The pixel metallization section includes an outer surface which is substantially planar. The doped layer electrode includes an inner surface adjacent to the outer surface of the pixel metallization section. The entire inner surface of the doped layer electrode is substantially planar. A transparent conductive layer is formed adjacent to the sensor.
Method And Structure For Bonding Layers In A Semiconductor Device
Min Cao - Mountain View CA Jeremy A Theil - Mountain View CA Gary W Ray - Mountain View CA Dietrich W Vook - Menlo Park CA
Assignee:
Agilent Technologies, Inc. - Palo Alto CA
International Classification:
H01L 2100
US Classification:
438149, 438 96
Abstract:
A structure and a method for providing structural stability at an interface between two poorly adhering layers in a semiconductor device involve providing anchoring channels in one of the poorly adhering layers through which the other poorly adhering layer can be anchored to a third layer. Specifically, the structure and method are applicable to a three-layer stack having a top layer of amorphous silicon, a middle layer of titanium nitride, and a bottom layer of oxide. In order to reduce susceptibility to delamination between the amorphous silicon layer and the titanium nitride layer, the anchoring channels are created in the titanium nitride layer to allow the amorphous silicon to attach to the oxide layer. Because the amorphous silicon layer and the oxide layer exhibit good adhesion between each other, delamination between the amorphous silicon layer and the titanium nitride layer is minimized.
Conductive Mesh Bias Connection For An Array Of Elevated Active Pixel Sensors
Jeremy A. Theil - Mountain View CA Jane Mei-Jech Lin - San Jose CA Min Cao - Mountain View CA Gary W. Ray - Mountain View CA Shawming Ma - Sunnyvale CA Xin Sun - San Jose CA
An array of active pixel sensors includes a substrate. An interconnect structure is formed adjacent to the substrate. The interconnect structure includes a plurality of conductive vias. A plurality of photo sensors are formed adjacent to the interconnect structure. Each photo sensor includes a pixel electrode. Each pixel electrode is electrically connected to the substrate through a corresponding conductive yet. A I-layer is formed over each of the pixel electrodes. The array of active pixel sensors further includes a conductive mesh formed adjacent to the photo sensors. An inner surface of the conductive mesh is electrically and physically connected to the photo sensors, and electrically connected to the substrate through a conductive via. The conductive mesh providing light shielding between photo sensors thereby reducing cross-talk between the photo sensors. The conductive mesh includes apertures that align with at least one of the pixel electrodes of the photo sensors.
Chemical Vapor Deposition Method For Amorphous Silicon And Resulting Film
Jeremy A Theil - Mountain View CA Gerrit J Kooi - Sunnyvale CA Ron P Varghese - Fort Collins CO
Assignee:
Agilent Technologies, Inc. - Palo Alto CA
International Classification:
H05H 124
US Classification:
427578, 427534, 427307
Abstract:
Method of depositing a layer of amorphous silicon film on a substrate at a very fast deposition rate while maintaining superior film quality. A plasma volume in a process chamber is defined. A total flow rate of a mixture of gases introduced into the chamber is also defined. The total flow rate is the sum of the flow rates of the respective gases in the mixture. Next, a process parameter that includes the plasma volume and total flow rate is defined. The process parameter is then maintained in a first predetermined relationship with a predetermined value during the deposition of the amorphous silicon film.
Photo Diode Pixel Sensor Array Having A Guard Ring
Frederick A. Perner - Palo Alto CA Min Cao - Mountain View CA Charles M. C. Tan - Santa Clara CA Jeremy A. Theil - Mountain View CA
Assignee:
Agilent Technologies, Inc. - Palo Alto CA
International Classification:
H04N 5335
US Classification:
348294, 257459, 257233
Abstract:
An image sensor array. The image sensor array includes a substrate. An array of photo diode sensors are electrically interconnected to the substrate. The photo diode sensors conduct charge at a rate proportional to the intensity of light received by the photo diode sensors. A ring of guard diodes are located around the periphery of the array of photo diode sensors. Each guard diode has a guard diode anode connected to a predetermined guard anode voltage and a guard diode cathode connected to a static guard cathode voltage.
Isolation Of Alpha Silicon Diode Sensors Through Ion Implantation
Min Cao - Mountain View CA Jeremy A. Theil - Mountain View CA Gary W. Ray - Mountain View CA Dietrich W. Vook - Menlo Park CA
Assignee:
Agilent Technologies, Inc. - Palo Alto CA
International Classification:
H01L 3120
US Classification:
257443, 257 59, 257 72
Abstract:
An array of image sensors that includes ion implantation regions that provide physical isolation between the pixel electrode regions. The physical isolation reduces coupling and cross-talk between the image sensors. The array of isolated image sensors can be formed by a simple fabrication process.
Name / Title
Company / Classification
Phones & Addresses
Jeremy Theil Principal
Api Technology Inc Business Services at Non-Commercial Site · Nonclassifiable Establishments
Manager, Cell Research at First Solar, Adjunct Professor at San Jose State University
Location:
San Francisco Bay Area
Industry:
Renewables & Environment
Work:
First Solar - CTC, Santa Clara, California since Dec 2011
Manager, Cell Research
San Jose State University - San Jose, California since Nov 2011
Adjunct Professor
First Solar - FSAT, Santa Clara, California Oct 2010 - Dec 2011
Manager, Front End Integration
Alta Devices - Santa Clara, California May 2009 - Oct 2010
Technical Lead - Module Development
Optisolar - Hayward, California Dec 2007 - Mar 2009
Manager, Process Integration R&D
Education:
North Carolina State University 1988 - 1992
University of Illinois at Urbana-Champaign 1985 - 1988
Carnegie Mellon University 1980 - 1985
Skills:
PECVD Thin Films Project Management CIGS Photovoltaics Solar Cells a-Si:H Functional Management CdTe Thin Film Solar Process Integration CMOS Image Sensors Semiconductors Compound Semiconductors Process Developmnent Materials Science Reactive Sputtering Mass Spectrometry Infrared Spectroscopy
First Solar - CTC, Santa Clara, California since Dec 2011
Manager, Cell Research
San Jose State University - San Jose, California since Nov 2011
Adjunct Professor
First Solar - FSAT, Santa Clara, California Oct 2010 - Dec 2011
Manager, Front End Integration
Alta Devices - Santa Clara, California May 2009 - Oct 2010
Technical Lead - Module Development
Optisolar - Hayward, California Dec 2007 - Mar 2009
Manager, Process Integration R&D
Education:
North Carolina State University 1988 - 1992
University of Illinois at Urbana-Champaign 1985 - 1988
Carnegie Mellon University 1980 - 1985
Skills:
Thin Films Semiconductors Photovoltaics Materials Science Solar Cells Product Development Silicon Project Management Cvd Failure Analysis Manufacturing Solar Energy Characterization Nanotechnology Cmos Design of Experiments Renewable Energy Process Engineering Pecvd Integration Process Integration Ic R&D Jmp Mems Sensors Cigs A Si Compound Semiconductors Pvd Functional Management Cdte Thin Film Solar Image Sensors Process Developmnent Reactive Sputtering Mass Spectrometry Infrared Spectroscopy Vacuum R Sputtering Engineering Management Cross Functional Team Leadership Materials Program Management
Oct 2010 to 2000 Research ManagerAlta Devices, Inc Santa Clara, CA Apr 2009 to Oct 2010 Project Manager and Senior ScientistOptisolar Inc. Hayward, CA Dec 2007 to Mar 2009 Module Integration Group ManagerPhilips Lumileds San Jose, CA Feb 2005 to Dec 2007 Senior ScientistHewlett-Packard Laboratories / Agilent Technologies Santa Clara, CA Jun 1995 to Feb 2005 Principal Project Scientist
Education:
North Carolina State University 1988 to 1992 PhD in Materials ScienceUniversity of Illinois Urbana, IL 1985 to 1988 MS in Materials ScienceCarnegie-Mellon University Pittsburgh, PA 1980 to 1984 BS in Metallurgical Engineering and Materials Science
Youtube
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J.S. Bach: Prelude in E-Flat Major BWV 552/1 ...
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