General Electric Company

University of Illinois

Whatman International Limited

Shanghai Jiaotong University

Natural Gas Solutions North America, LLC

Xuefeng Wang

Erin Jean Finehout

Kanakasabapathi Subramanian

Xiaolei Shi

Christopher Fred Keimel

Zhiyuan Ren

Victor Petrovich Ostroverkhov

Marco Francesco Aimi

Ralf Lenigk

Kuna Venkat Satya Rama Kishore

Bo Li

John Erik Hershey

John Anderson Fergus Ross

Weston Blaine Griffin

Chang Po Liu

Rui Chen

Kashan Ali Shaikh

Philip Alexander Shoemaker

Greg Darryl Goddard

William James Premerlani

Hua Xia

Pierino Gianni Bonanni

Cheng-Po Chen

Xinghua Wang

Wei Zhang

Edward K Howell

Glenn Scott Claydon

Brian Lee Lawrence

John Norton Park

Erik Solhjell

Alex David Corwin

Long Que

Parag Thakre

Joshua Isaac Wright

Nannan Chen

David Andrew Bullen

Oliver Charles Boomhower

Hanna Elina Viertio-Oja

Rolf Jahren

Shubhra Bansal

Xiaohong Li

Jun Zou

Matthew Damian Pietrzykowski

Abhijeet Dinkar Sathe

Fan Yi

Huacheng He

Licheng Qin

Greg D Goddard

Edward Keith Howell

The invention provides a dynamic positioning and thrust distribution method based on an artificial neural network, is a quadratic programming problem in the optimization problem, and can compute the thrust coefficient of a rear thruster in a constraint condition of a thrust distribution problem by taking into account of the corner of a front thruster and through the artificial neural network. Then the optimization problem enabling the power of the thruster to be minimized is solved according to a sequential quadratic programming algorithm, so that a thrust distribution scheme on the azimuth thrusters is obtained. Meanwhile the invention further provides a dynamic positioning and thrust distribution device based on an artificial neural network. The invention, through the introduction of the concept of thrust coefficients, on the one hand, can accurately quantize thrust loss, and on the other hand can enlarge the feasible area of the rotation angle of the thruster, thereby ensuring that the more optimized and reasonable result can be obtained for the quadratic programming problem, reducing the power of the thruster and saving energy.

Dynamic positioning and thrust distribution device and method based on artificial neural network

An integrated device for a sample collection and transfer is provided. The integrated device comprises a capillary channel disposed between a first layer and a second layer, wherein the first layer comprises a hydrophilic layer comprising a fluid inlet for receiving a sample fluid to the capillary channel, wherein the capillary channel comprises an inner surface and an outer surface; and an outlet for driving out the sample fluid. The device further comprises a third layer comprising an adhesive material such as a patterned adhesive material and a flow path, wherein the third layer is disposed on the outer surface of the capillary, at a determining position relative to the outlet, such that the capillary is in contact with the third layer and the outlet is in contact with the flow path of the third layer for allowing the sample fluid out from the integrated device.

Sample collection and transfer device

Methods and systems for processing samples fixed to a porous substrate generally comprising, a compressor defining one or more fluid isolation areas, a support, for the porous substrate, having an opening corresponding to one or more of the fluid isolation areas of the compressor, an actuator that causes at least a portion of the compressor to press against the porous substrate, a fluid inlet having access to the fluid isolation area at least when the compressor is pressed against the porous substrate, and a fluid outlet to receive fluid, through the opening in the support corresponding to the fluid isolation area of the compressor, at least when the compressor is pressed against the porous substrate.

Methods and systems for processing samples on porous substrates

A system, comprising a first sensor that generates a first output signal representative of a first flow rate measurement in a first flow rate range of a fluid, a second sensor that generates a second output signal representative of a second flow rate measurement in a second flow rate range of the fluid that at least partially overlaps the first flow rate range of the fluid to form a partially overlapping region, a data repository storing a first calibration relationship corresponding to a first condition of the fluid and a second calibration relationship corresponding to a second condition of the fluid, wherein the first calibration relationship and the second calibration relationship correspond to the first sensor, and a processing subsystem that automatically generates a third calibration relationship when the second flow rate measurement falls in the partially overlapping region, wherein the third calibration relationship corresponds to a third condition of the fluid based at least on the first calibration relationship, the second calibration relationship, the first output signal and the second output signal.

Flow meter and a method of calibration

An integrated device for a sample collection and transfer is provided. The integrated device comprises a capillary channel disposed between a first layer and a second layer, wherein the first layer comprises a hydrophilic layer comprising a fluid inlet for receiving a sample fluid to the capillary channel, wherein the capillary channel comprises an inner surface and an outer surface and an outlet for driving out the sample fluid. The device further comprises an interface assembly comprising: a third layer, a fourth layer, a fifth layer, and a flow path. The interface assembly is disposed on the outer surface of the capillary, at a determining position relative to the outlet, such that the capillary is in contact with the third layer of the interface assembly and the outlet is in contact with the flow path of the interface assembly for driving out the sample fluid from the integrated device.

An integrated device for a sample collection and transfer is provided. The integrated device comprises a capillary channel disposed between a first layer and a second layer, wherein the first layer comprises a hydrophilic layer comprising a fluid inlet for receiving a sample fluid to the capillary channel, wherein the capillary channel comprises an inner surface and an outer surface; and an outlet for driving out the sample fluid. The device further comprises a third layer comprising an adhesive material such as a patterned adhesive material, and a flow path, wherein the third layer is disposed on the outer surface of the capillary, at a determining position relative to the outlet, such that the capillary is in contact with the third layer and the outlet is in contact with the flow path of the third layer for allowing the sample fluid out from the integrated device.

A method of monitoring a concentration of an anesthetic drug using a patient's breath is provided. The method comprises forming a breath sample using the patient's breath; exposing one or more sensors to the breath sample; detecting one or more components of the anesthetic drug in the breath sample; measuring a concentration of at least one of the components of the anesthetic drug in the breath sample; and determining a concentration of the component in a plasma of the patient using a transfer function and the concentration of the component in the breath sample.

Methods of intravenous drug monitoring

The present techniques provide methods and systems for recording micro-holograms on a holographic disk using a plurality of counter-propagating light beams in parallel. The parallel counter-propagating light beams overlap to form interference patterns on a data layer and over multiple data tracks in the holographic disk. Rotating the disk enables the parallel recording of micro-holograms over multiple data tracks, thus reducing recording time. Further, the illumination pattern may include illuminated spots and non-illuminated regions, such that each illumination spot may cover a relatively small fraction of the data layer plane, possibly controlling the depth spread of the recorded micro-hologram. In some embodiments, data in the parallel signal beams may be retrieved from a master holographic disk or may be modulated into the parallel signal beams.

Replication and formatting method and system for bit-wise holographic storage

Disclosed embodiments include systems for analyzing the breath of a patient for the presence of one or more analytes of interest. The systems may include an ion detection system capable of receiving a gas mixture having an analyte of interest expired by a patient, flowing the gas mixture, and ionizing molecules within the gas mixture. The molecules include at least the analyte of interest. The ion detection system is also capable of detecting the ionized analyte of interest.

Ion-based breath analysis system

A photo ionization detector (PID) is provided for selectively determining various compounds or gases present in a breath sample. The PID, comprises a substrate comprising a gas ionization chamber, at least one pair of ion sensing electrodes, and at least one amplifying circuit; and an ultraviolet (UV) ionization source to transmit a UV light beam into the gas ionization chamber. A system comprises the PID is also provided. A method of detecting a response pattern for various compounds or gases in breath using PID is also provided.

Photo-ionization detectors and associated methods thereof

In accordance with one aspect of the present invention, a MEMS switch is provided. The MEMS switch includes a substrate, a first and a second actuating element electrically coupled together, an anchor mechanically coupled to the substrate and supporting at least one of the first and second actuating elements, and a gate driver configured to actuate the first and second actuating elements.

MEMS microswitch having a dual actuator and shared gate

A method for servoing when reading out a recorded holographic disk or recording in a preformatted disk includes detecting a primary signal of a reflected primary beam from a target data track of a target data layer of the disk, wherein the primary beam of radiation has a first wavelength; comparing a power measurement of the primary signal with a threshold value of power; detecting a tracking signal of a reflected tracking beam from a reference layer of the disk in an event that the power measurement of the primary signal is below the threshold value, wherein the tracking beam of radiation has a second wavelength; generating a servo error signal based upon the primary signal or the tracking signal; actuating an optical sub-system based upon either of the primary servo error signal or the tracking servo error signal such that the primary beam focuses on the target data layer.

System and method for precise servoing

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Schenectady, NY, United States of America

Xuefeng Wang