Ayar Labs, Inc.

Nicira, Inc.

Loop Now Technologies, Inc.

Precigenome, LLC

Wisk Aero LLC

Apple Inc.

Cisco Technology, Inc.

Yahoo! Inc.

Oath Inc.

Wako Pure Chemical Industries, Inc.

Kitty Hawk Corporation

Mgi Tech Co., Ltd.

Ael Mining Services Limited

Cora Aero LLC

Abbott Medical Optics Inc.

Chen Li

Yu Liu

Chong Zhang

Amit Chopra

Patrick K Herring

Roy Edward Meade

Bin Qian

Cifeng Fang

Haiwei Lu

Yunfeng Ling

Yaqi Wang

Jerry Luk

Jianjun Shen

Zhaowei Charlie Jiang

Dexiang Wang

Feng Pan

Yang Ping

Aayush Saxena

Michael Jeremy Temkin

Matthew Sysak

Micah Dubinko

James Liang

Jeff Leung

Wuhsi Li

Manan Raval

June Kim

Ethan Fan

Lucas Alves

Ben Hansen

Shawn Samra

Cory Grenier

Ganesan Chandrashekhar

Jun Xu

Huawei Zhao

Cheng Frank Zhong

John Fini

Benjamin Vigier

Corey G Fugman

Yingfeng Su

Keith Anthony Marlow

Filip Krsmanovic

Sanal Pillai

Jian Ping Zhang

Vincent Yang

Xiangrong Wang

Olga Volodymyrivna Gavrylyako

Jinqiang Yang

Ming Sui

Hui Guo

Yiwen Ouyang

Surendra Sadanand Rajam

Yiyang Gu

Cynthia Johanson

Yufan Jiang

Nigel Choi

Heidi Ann Pollock

Rou Qu

Guang Yang

Abdul Rasel Khan

Jaekwon Park

Takayuki Tei

Samuel Chan

Boaz Aharon Shaham

Hei Chan

Vicent Yang

A first chip includes a first plurality of optical waveguides exposed at a facet of the first chip. A second chip includes a second plurality of optical waveguides exposed at a facet of the second chip. The second chip includes first and second spacers on opposite sides of the second plurality of optical waveguides. The first and second spacers have respective alignment surfaces oriented substantially parallel to the facet of the second chip at a controlled perpendicular distance away from the facet of the second chip. The second chip is positioned with the alignment surfaces of the first and second spacers contacting the facet of the first chip, and with the second plurality of optical waveguides respectively aligned with the first plurality of optical waveguides. The first and second spacers define and maintain an air gap of at least micrometer-level precision between the first and second pluralities of optical waveguides.

Systems and methods for passively-aligned optical waveguide edge-coupling

Disclosed herein are microfluidic devices comprising, one or more inlets in flow communication with one or more microfluidic channels, wherein the one or more inlets are adapted for receiving deformable beads, oil, and/or a suspension comprising buffer, cells, and/or particles, wherein the one or more microfluidic channels are in flow communication with the one or more inlets through a cross junction and define a fluid flow path therebetween, said fluid flow path forming a substantially planar substrate, and wherein the microfluidic channel is adapted to generate droplets. Also disclosed are methods of making and using the same.

Microfluidic device for deformable beads enrichment and self-regulated ordering and encapsulation in droplets

A multi-chip package assembly includes a substrate, a first semiconductor chip attached to the substrate, and a second semiconductor chip attached to the substrate, such that a portion of the second semiconductor chip overhangs an edge of the substrate. A first v-groove array for receiving a plurality of optical fibers is present within the portion of the second semiconductor chip that overhangs the edge of the substrate. An optical fiber assembly including the plurality of optical fibers is positioned and secured within the first v-groove array of the second semiconductor chip. The optical fiber assembly includes a second v-groove array configured to align the plurality of optical fibers to the first v-groove array of the second semiconductor chip. An end of each of the plurality of optical fibers is exposed for optical coupling within an optical fiber connector located at a distal end of the optical fiber assembly.

Multi-chip packaging of silicon photonics

Certain embodiments described herein are generally directed to handling a hypervisor restart event in a distributed network system. Embodiments include receiving, by a central controller, a session identifier from a first hypervisor. Embodiments further include comparing, by the central controller, the session identifier to a stored session identifier associated with the first hypervisor. Embodiments further include determining, by the central controller based on the session identifier not matching the stored session identifier associated with the first hypervisor, that the first hypervisor has restarted. Embodiments further include updating, by the central controller, the stored session identifier associated with the first hypervisor to match the session identifier. Embodiments further include identifying, by the central controller, a second hypervisor that is associated with the first hypervisor. Embodiments further include sending, by the central controller, a notification to the second hypervisor that the first hypervisor has restarted.

Hypervisor restart handling mechanism using random session numbers

A solid electrolyte interface is formed on a silicon monoxide electrode in a battery cell. While the solid electrolyte interface is being formed on the silicon monoxide electrode, the battery cell is charged for one or more initial cycles.

Generation of wrinkle-free silicon monoxide electrodes using combined preformation and formation

Techniques for video manipulation based on an immersive video experience including rotation are disclosed. Parameters pertaining to a video are determined. Second parameters pertaining to a video display are determined. A minimum scale value is calculated to inscribe a rectangle within an oval based on a height and a width of the video. A height and a width of the video display define the rectangle. A gravity sensor input is preprocessed using a low-pass filter before using it to determine the minimum scale value. The video is preprocessed using a video inset and a viewport inset. The video can be trimmed, and the rectangle can be scaled. A rectangular portion of the video is rendered on the video display wherein the rectangular portion is on or inside the boundaries of the oval.

Immersive video experience including rotation

Disclosed herein are pressure control systems, comprising: a touch screen electrically connected to industrial computer or embedded operating system; a pressure output channel connected to the touch screen and/or the industrial computer or embedded operating system; and pressure control unit for communicating with the pressure output channel, wherein the pressure control unit can be controlled with the touch screen, and wherein the industrial computer or embedded operating system comprises preinstalled software with User Interface (UI) for pressure control setup and running the system.

Multichannel pressure control system with user friendly interface

Disclosed herein are microfluidic devices and systems for amplifying and detecting a target polynucleotide, comprising: one or more wells for receiving one or more substrates; a droplet generation channel in fluid communication with the one or more wells, wherein the microfluidic channel is adapted to generate droplets; and a chamber in fluid communication with the droplet generation channel, and adapted to collect droplets generated by the droplet generation channel, and further adapted to perform nucleic acid amplification in droplets, and further adapted to detect light signal from droplets. Also disclosed are methods of using the same.

Integrated microfluidic system for droplet generation, nucleic acid amplification, and detection

A handle-integrated composite wafer assembly includes a handle wafer attached to a device wafer. The device wafer includes a device layer formed on a buried oxide layer. The device layer includes an optical resonator structure. The handle wafer includes a base layer and a layer of anti-reflective material disposed on a top side of the base layer. The base layer has a cavity extending into the base layer from the top side of the base layer. The cavity has at least one side surface and a bottom surface. The layer of anti-reflective material is substantially conformally disposed within the cavity on the at least one side surface and bottom surface of the cavity. The handle wafer is attached to the device wafer with the layer of anti-reflective material affixed to the buried oxide layer, and with the cavity substantially aligned with the optical resonator structure in the device layer.

Wafer-level handle replacement processing

Certain embodiments described herein are generally directed to allocating security parameter index ('SPI') values to a plurality of endpoints in a network. The SPI values may be derived using an SPI derivation formula and a plurality of parameters. In some embodiments, the SPI values may be derived by an endpoint and in other embodiments by a server. Using the SPI derivation formula and the plurality of parameters enables endpoints and servers to instantaneously derive SPI values without the need for servers to store them.

Systems and methods for allocating SPI values

Display screen with graphical user interface

A microfluidic device includes a substrate, a sensor, and one or more lamination films. The top surface of the substrate can include first recessed grooves forming first open channels and the bottom surface of the plastic substrate can include a first recessed cavity and second recessed groves forming second open channels. A first lamination film can be adhered with the top surface of the plastic substrate to form first closed channels. A second lamination film can be adhered to the bottom surface of the plastic substrate to form second closed channels. The sensor can be on the bottom surface of the substrate such that it overlies the first recessed cavity to form a flow cell with the sensor top surface inward facing. A first closed channel can be fluidically connected with a second closed channel and a first or second closed channel can be fluidically connected with the flow cell.

Injection molded microfluidic/fluidic cartridge integrated with silicon-based sensor

The subject matter described herein is generally directed towards generating security parameter index ('SPI') values at a plurality of endpoints (EP) in a network using time-based one-time passwords (TOTPs). In this manner, the SPI values are generated in a decentralized manner. The SPI values are used for distributed network encryption among the EPs.

Allocating security parameter index values using time-based one-time passwords

Growing community of inventors

Sunnyvale, CA, United States of America

Chen Li