Applied Microstructures, Inc.

Rolith, Inc.

Metamaterial Technologies Usa, Inc.

Other

Spts Technologies Limited

Analog Devices,inc.

Integenx, Inc.

Unaxis USA Inc.

Innovasonic, Inc.

Boris Kobrin

Romuald Nowak

Jeffrey D Chinn

Richard C Yi

Ian Matthew McMackin

Michael D Lowery

Behrang Behin

Michael J Daneman

Laurent G Hoffmann

Ezra Van Gelder

Iuliu Ioan Blaga

Chuang-Chia Lin

Murali Chaparala

Michael Grimes

Gary M Zalewski

Bruce J Richardson

Stevan Bogdan Jovanovich

William D Nielsen

Timothy E Beerling

Meng-Hsiung Kiang

Scott D Dalton

Franklin Joseph Wall

Igor Landau

Boris Volf

Edward Barnard

Jeffrey D Chin

Mark W Chang

Stephen Panyko

Shize D Qi

Dangaria Nikunji Hirji

Oliver Seitz

Benigno A Janeiro

Mukti Aryal

Bryant Grigsby

Nikunj Dangaria

Edward Ostan

An apparatus for vapor deposition of thin film coatings, including: a process controller; a plurality of precursor containers into which a plurality of coating precursors, each in the form of a liquid or a solid, are respectively placed; a plurality of precursor vapor reservoirs, each in communication with a respective one of said precursor containers; a plurality of in-line devices which control a vapor flow of a coating precursor vapor from one of said precursor containers into one of said precursor vapor reservoirs with which said precursor container is in communication upon receipt of a signal from said process controller; a plurality of precursor control valves which control vapor flow from said precursor vapor reservoir upon receipt of a signal from said process controller; and a process chamber for vapor deposition of said coating on a substrate when present in said process chamber.

Apparatus and method for controlled application of reactive vapors to produce thin films and coatings

A micro-LED display having added functionalities like touch sensing, sound generation, self-cleaning, haptics and wireless charging by combining LED dies with micro-transducer dies or thin film structures on the same display substrate.

Display with acoustic or ultrasonic features

Aspects of the present disclosure include an anti-counterfeiting pattern that is identifiable by sheet resistance mapping metrology, a method of fabricating such an anti-counterfeiting device, and a method of detecting such an anti-counterfeiting device by imaging the pattern with sheet resistance mapping metrology. This abstract is provided to comply with rules requiring an abstract that will allow a searcher or other reader to quickly ascertain the subject matter of the technical disclosure. It is submitted with the understanding that it will not be used to interpret or limit the scope or meaning of the claims.

Anti-counterfeiting features and methods of fabrication and detection

Embodiments of the invention pertain to methods useful in transfer printing of small objects, like micro-LEDs from one substrate to another using acoustic or ultrasonic energy. The pickup of objects from a substrate is performed by transfer head equipped with sticky polymer and an array of ultrasonic transducers, and the high efficiency and selectivity of pickup of selected objects is done using ultrasonic energy directed towards the object. The disposing of objects to another substrate from a transfer head is done by directing an ultrasonic energy toward an object, which enable effective and selective detachment of an object from a sticky polymer. Yet another embodiment also uses a UV light source, which directs the light to the UV curable liquid disposed around the object on receiving substrate, thus curing this liquid would attach an object to receiving substrate.

Transfer printing using ultrasound

A cylindrical mask may be fabricated using a hollow casting cylinder and a mask cylinder. The casting cylinder has an inner diameter that is larger than the outer diameter of the mask cylinder. The casting and mask cylinders are coaxially assembled and a liquid polymer inserted in a space surrounding the mask cylinder between the inner surface of the casting cylinder and the outer surface of the mask cylinder. After curing the liquid polymer, the casting cylinder is removed. A surface of the cured polymer can be patterned. It is emphasized that this abstract is provided to comply with the rules requiring an abstract that will allow a searcher or other reader to quickly ascertain the subject matter of the technical disclosure. It is submitted with the understanding that it will not be used to interpret or limit the scope or meaning of the claims.

Method of fabricating cylindrical polymer mask

An article having a surface treated to provide a protective coating structure in accordance with the following method: vapor depositing a first layer on a substrate, wherein the first layer is a metal oxide adhesion layer selected from the group consisting of an oxide of a Group IIIA metal element, a Group IVB metal element, a Group VB metal element, and combinations thereof; vapor depositing a second layer upon the first layer, wherein the second layer includes a silicon-containing layer selected from the group consisting of silicon oxide, silicon nitride, and silicon oxynitride; and vapor depositing a third layer upon the second layer, wherein the third layer is a functional organic-comprising layer, wherein the functional organic-comprising layer is a SAM.

Durable, heat-resistant multi-layer coatings and coated articles

Aspects of the present disclosure describe cylindrical molds that may be used to produce cylindrical masks for use in lithography. A structured porous layer may be deposited on an interior surface of a cylinder. A radiation-sensitive material may be deposited over the porous layer in order to fill pores formed in the layer. The radiation-sensitive material in the pores may be cured by exposing the cylinder with a light source. The uncured resist and porous layer may be removed, leaving behind posts on the cylinder's interior surface. It is emphasized that this abstract is provided to comply with the rules requiring an abstract that will allow a searcher or other reader to quickly ascertain the subject matter of the technical disclosure. It is submitted with the understanding that it will not be used to interpret or limit the scope or meaning of the claims.

Cylindrical master mold and method of fabrication

A vapor phase deposition method and apparatus for the application of thin layers and coatings on substrates. The method and apparatus are useful in the fabrication of electronic devices, micro-electromechanical systems (MEMS), Bio-MEMS devices, micro and nano imprinting lithography, and microfluidic devices. The apparatus used to carry out the method provides for the addition of a precise amount of each of the reactants to be consumed in a single reaction step of the coating formation process. The apparatus provides for precise addition of quantities of different combinations of reactants during a single step or when there are a number of different individual steps in the coating formation process. The precise addition of each of the reactants in vapor form is metered into a predetermined set volume at a specified temperature to a specified pressure, to provide a highly accurate amount of reactant.

Embodiments of the invention relate to methods and apparatus useful in the nanopatterning of large area substrates, where a rotatable mask is used to image a radiation-sensitive material. Typically the rotatable mask comprises a cylinder. The nanopatterning technique makes use of Near-Field photolithography, where the mask used to pattern the substrate is in contact or close proximity with the substrate. The Near-Field photolithography may make use of an elastomeric phase-shifting mask, or may employ surface plasmon technology, where a rotating cylinder surface comprises metal nano holes or nanoparticles.

Large area nanopatterning method and apparatus

Aspects of the present disclosure include a cylindrical master mold assembly having a cylindrical patterned component with a first diameter and a sacrificial casting component with a second diameter. The component with the smaller radius may be co-axially inserted into the interior of the component with the larger radius. Patterned features may be formed on the interior surface of the cylindrical patterned component that faces the sacrificial casting component. The sacrificial casting component may be removed once a cast polymer has been cured to allow the polymer to be released. It is emphasized that this abstract is provided to comply with the rules requiring an abstract that will allow a searcher or other reader to quickly ascertain the subject matter of the technical disclosure. It is submitted with the understanding that it will not be used to interpret or limit the scope or meaning of the claims.

Cylindrical master mold assembly for casting cylindrical masks

Embodiments of the invention relate to methods and apparatus useful in the nanopatterning of large area substrates, where a movable nanostructured film is used to image a radiation-sensitive material. The nanopatterning technique makes use of Near-Field photolithography, where the nanostructured film used to modulate light intensity reaching radiation-sensitive layer. The Near-Field photolithography may make use of an elastomeric phase-shifting mask, or may employ surface plasmon technology, where a movable film comprises metal nano holes or nanoparticles.

Nanopatterning method and apparatus

Embodiments of the present disclosure include a metal mesh structure and a method of fabrication thereof. The metal mesh structure includes a metal mesh formed on a substrate. The metal mesh is a 2D or 3D pattern of lines. The lines in the first and second set are characterized by a linewidth that is less than 2 microns. Such metal mesh structures are fabricated through rolling mask lithography. This abstract is provided to comply with rules requiring an abstract that will allow a searcher or other reader to quickly ascertain the subject matter of the technical disclosure. It is submitted with the understanding that it will not be used to interpret or limit the scope or meaning of the claims.

Transparent metal mesh and method of manufacture

In the proposed plasmonic nanolithography technique a transparent mask is brought into physical contact with a metal on a substrate that is coated with a photoresist. The mask is not made of metal or other material that supports surface plasmons. The metal layer is exposed to radiation of a characteristic vacuum wavelength through the mask and the photoresist or through the substrate. The mask features and the vacuum wavelength of the radiation are chosen so that the radiation excites surface plasmons at the interface between the metal and the photoresist. The excitation of surface plasmons allows for the exposure and generation of features which are well-below the free space diffraction limit and small compared to the size of the features in the mask.

Plasmonic lithography using phase mask

Methods for fabricating nanopatterned cylindrical photomasks are disclosed. A master pattern having nanometer scale features may be formed on a master substrate. A layer of an elastomer material may be formed on a surface of a transparent cylinder. The master pattern may be transferred from the master to the layer of elastomer material on the surface of the transparent cylinder. Alternatively, a nanopatterned cylindrical photomask may be fabricated by forming a pattern having nanometer scale features on an elastomer substrate and laminating the patterned elastomer substrate to a surface of a cylinder. In another method, a layer of elastomer material may be formed on a surface of a transparent cylinder and a pattern having nanometer scale features may be formed on the elastomer material by a direct patterning process.

Mask for near-field lithography and fabrication the same

A method of protecting a substrate during fabrication of semiconductor, MEMS devices. The method includes application of a protective thin film which typically has a thickness ranging from 3 angstroms to about 1,000 angstroms, wherein precursor materials used to deposit the protective thin film are organic-based precursors which include at least one fluorine-comprising functional group at one end of a carbon back bone and at least one functional bonding group at the opposite end of a carbon backbone, and wherein the carbon backbone ranges in length from 4 carbons through about 12 carbons. In many applications at least a portion of the protective thin film is removed during fabrication of the devices.

Growing community of inventors

Dublin, CA, United States of America

Boris Kobrin