California Institute of Technology

Robert Boschgmbh

City of Hope

Google Inc.

Matthieu Liger

Yu-Chong Tai

Gary Yama

Jun Xie

Damien Craig Rodger

Changlin Pang

Satoshi Konishi

Matthias Illing

Terry D Lee

Qing He

Scott Miserendino

Po-Jui Chen

Chia-Jean Wang

Andrew Graham

Fabian Purkl

Ming C Wu

Casey J Feinstein

Po-jui Chen

Theodore Harder

Jui-che Tsai

A device with multiple encapsulated functional layers, includes a substrate, a first functional layer positioned above a top surface of the substrate, the functional layer including a first device portion, a first encapsulating layer encapsulating the first functional layer, a second functional layer positioned above the first encapsulating layer, the second functional layer including a second device portion, and a second encapsulating layer encapsulating the second functional layer.

Substrate with multiple encapsulated devices

Embodiments in accordance with the present invention relate to packed-column nano-liquid chromatography (nano-LC) systems integrated on-chip, and methods for producing and using same. The microfabricated chip includes a column, flits/filters, an injector, and a detector, fabricated in a process compatible with those conventionally utilized to form integrated circuits. The column can be packed with supports for various different stationary phases to allow performance of different forms of nano-LC, including but not limited to reversed-phase, normal-phase, adsorption, size-exclusion, affinity, and ion chromatography. A cross-channel injector injects a nanoliter/picoliter-volume sample plug at the column inlet. An electrochemical/conductivity sensor integrated at the column outlet measures separation signals. A self-aligned channel-strengthening technique increases pressure rating of the microfluidic system, allowing it to withstand the high pressure normally used in high performance liquid chromatography (HPLC). On-chip sample injection, separation, and detection of mixture of anions in water is successfully demonstrated using ion-exchange nano-LC.

IC-processed polymer nano-liquid chromatography system on-a-chip and method of making it

A method of treating a surface includes providing an object and applying a masking layer to a target surface area of the object. A sacrificial material is applied to a non-target surface area of the object. The method also includes removing the masking layer from the target surface area. The target surface area is exposed to a substance that etches or coats the target surface area. The sacrificial material from the non-target surface area of the object is removed, leaving the target surface area of the object etched or coated by the substance while the non-target surface area is not etched or coated by the substance.

Method for selectively treating surfaces

In one embodiment, a method of forming a semiconductor device includes providing a substrate, forming a sacrificial layer above the substrate layer, forming a first trench in the sacrificial layer, forming a first sidewall layer with a thickness of less than about 50 nm on a first sidewall of the first trench using atomic layer deposition (ALD), and removing the sacrificial layer.

Atomic layer deposition strengthening members and method of manufacture

Embodiments in accordance with the present invention relate to packed-column nano-liquid chromatography (nano-LC) systems integrated on-chip, and methods for producing and using same. The microfabricated chip includes a column, flits/filters, an injector, and a detector, fabricated in a process compatible with those conventionally utilized to form integrated circuits. The column can be packed with supports for various different stationary phases to allow performance of different forms of nano-LC, including but not limited to reversed-phase, normal-phase, adsorption, size-exclusion, affinity, and ion chromatography. A cross-channel injector injects a nanolitre/picolitre-volume sample plug at the column inlet. An electrochemical/conductivity sensor integrated at the column outlet measures separation signals. A self-aligned channel-strengthening technique increases pressure rating of the microfluidic system, allowing it to withstand the high pressure normally used in high performance liquid chromatography (HPLC). On-chip sample injection, separation, and detection of mixture of anions in water is successfully demonstrated using ion-exchange nano-LC.

IC-processed polymer nano-liquid chromatoraphy system on-a-chip and method of making it

A method for fabricating a pair of large surface area planar electrodes. The method includes forming a first template above a first substrate, the first template having a first plurality of pores, coating the first plurality of pores of the first template with a first layer of conducting material to form a first electrode, placing the first plurality of pores of the first electrode in proximity to a second electrode, thereby forming a gap between the first plurality of pores and the second electrode, and filling the gap with an electrolyte material.

Method of manufacturing a planar electrode with large surface area

A method of forming a semiconductor sensor in one embodiment includes providing a substrate, forming a reflective layer on the substrate, forming a sacrificial layer on the reflective layer, forming an absorber layer with a thickness of less than about 50 nm on the sacrificial layer, forming an absorber in the absorber layer integrally with at least one suspension leg, and removing the sacrificial layer.

Electromagnetic radiation sensor and method of manufacture

A method of making carbon thin films comprises depositing a catalyst on a substrate, depositing a hydrocarbon in contact with the catalyst and pyrolyzing the hydrocarbon. A method of controlling a carbon thin film density comprises etching a cavity into a substrate, depositing a hydrocarbon into the cavity, and pyrolyzing the hydrocarbon while in the cavity to form a carbon thin film. Controlling a carbon thin film density is achieved by changing the volume of the cavity. Methods of making carbon containing patterned structures are also provided. Carbon thin films and carbon containing patterned structures can be used in NEMS, MEMS, liquid chromatography, and sensor devices.

Pyrolyzed thin film carbon

A method for manufacturing a sensing device, such as a bolometer device or other devices. The method includes providing a substrate, e.g., silicon wafer. The method includes forming a first reflection layer overlying the substrate and forming a first electrode layer overlying the substrate. The method includes forming a sacrificial layer overlying a portion of the first reflection layer and a portion of the first electrode layer. The sacrificial layer is patterned using photolithography techniques. The patterned sacrificial layer corresponds to a cavity region. The method also forms a second electrode layer overlying the sacrificial layer and forms an elastic layer overlying the patterned sacrificial layer. The elastic layer encloses the cavity region corresponding to the patterned sacrificial layer. The method releases the sacrificial layer to form an opening in the cavity region.

Apparatus and method for sensing electromagnetic radiation using a tunable device

A method (and resulting structure) for fabricating a sensing device. The method includes providing a substrate comprising a surface region and forming an insulating material overlying the surface region. The method also includes forming a film of carbon based material overlying the insulating material and treating to the film of carbon based material to pyrolyzed the carbon based material to cause formation of a film of substantially carbon based material having a resistivity ranging within a predetermined range. The method also provides at least a portion of the pyrolyzed carbon based material in a sensor application and uses the portion of the pyrolyzed carbon based material in the sensing application. In a specific embodiment, the sensing application is selected from chemical, humidity, piezoelectric, radiation, mechanical strain or temperature.

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San Francisco, CA, United States of America

Matthieu Liger