General Electric Company

General Electricity Company

Haier US Appliance Solutions, Inc.

Cytiva Sweden Ab

Nandini Nagraj

Radislav Alexandrovich Potyrailo

Cheryl Margaret Surman

Andrew Arthur Paul Burns

Andrew David Pris

Anthony John Murray

Zhexiong Tang

John Richard Nelson

Stanton Earl Weaver, Jr

James Lee Armstrong

Vadim Bromberg

Timothy Mark Sivavec

Yongjae Lee

Brandon Alan Bartling

Sabrina Marie Hannah

Hubert Tunchiao Lam

Manuel Alfredo Palacios

Daniel Paik

A method of recovering a target from a sample is provided. The method of recovering the target follows different steps. The steps include providing a binding element, wherein the binding elements are immobilized on a solid support, adding the sample comprising the target to the binding element to form a binding element-target complex; washing the binding element-target complex; and eluting the target from the binding element-target complex. The system for reversible detection of target in a range from 2 to 1,000,000 bind/release cycles is also provided.

Methods and systems for detection of target and applications thereof

A method of recovering a target from a sample is provided. The method comprises the adding a substrate coupled binding element to the sample comprising the target to form a substrate coupled binding element-target complex; precipitating the complex by changing one or more environmental conditions of the substrate and recovering the target and the substrate coupled binding-element under mild conditions.

Methods for detection of target using affinity binding

A method for monitoring cooking in an oven appliance includes drawing cooking vapors or gases from a cooking chamber to a fluid analysis assembly of the oven appliance during a gas or vapor analysis cooking cycle, determining a cooking status of the food item within the cooking chamber with the controller of the oven appliance based upon a response pattern of a plurality of fluid sensors of the fluid analysis assembly to the cooking vapors or gases during the gas or vapor analysis cooking cycle, and activating an alert with the controller of the oven appliance when the cooking status of the food item within the cooking chamber is a particular cooking status.

Method for monitoring cooking in an oven appliance

The subject matter of the present disclosure generally relates to a sensor assembly having a first component configured to melt when a temperature of the sensor assembly reaches a first value below a minimum value of a predetermined temperature range, a second component configured to melt when the temperature of the sensor assembly reaches a second value above a maximum value of the predetermined temperature range, and a third component configured to monitor a volume of fluid disposed in a vessel when the temperature of the sensor assembly is within the predetermined temperature range.

Multifunctional sensor

Methods for selecting a binding-element are provided. The method comprised of different steps. A first mixture is formed using at least one target molecule and a plurality of oligomers, followed by incubating the first mixture to form a second mixture comprising at least one target-bound oligomer and at least one target-unbound oligomer. Then a first accelerator is added to cleave the target-unbound oligomer and the target-bound oligomer is separated from the target molecule. This is followed by addition of a second accelerator for ligation, and a third accelerator for amplification followed by sequencing and post sequence analysis to select the binding-element.

Methods of selecting binding-elements and uses thereof

A sensor for detecting gaseous agents has a transducer, which includes an electrical resonant circuit that forms an antenna. The sensor further includes a sensing material that is disposed on at least a portion of the transducer. The sensing material is configured to simultaneously exhibit a capacitance response and a resistance response in the presence of a gaseous agent. The sensor may be reversible, battery free, and may require no electrical contact with a sensor reader.

Materials and sensors for detecting gaseous agents

Methods and sensors for selective fluid sensing are provided. Each sensor includes a resonant inductor-capacitor-resistor (LCR) sensor that is coated with a sensing material. In order to collect data, an impedance spectrum is acquired over a relatively narrow frequency range, such as the resonant frequency range of the LCR circuit. A multivariate signature may be calculated from the acquired spectrum to discern the presence of certain fluids and/or fluid mixtures. The presence of fluids is detected by measuring the changes in dielectric, dimensional, resistance, charge transfer, and other changes in the properties of the materials employed by observing the changes in the resonant electronic properties of the circuit. By using a mathematical procedure, such as principal components analysis (PCA) and others, multiple fluids and mixtures can be detected in the presence of one another, even in a high humidity environment or an environment wherein one or more fluids has a substantially higher concentration (e.g. 10&#xd7;, 1,000,000&#xd7;) compared to other components in the mixture.

Highly selective chemical and biological sensors

Methods and sensors for selective fluid sensing are provided. A gas dosimeter includes a housing configured with an opening to admit an analyte. The gas dosimeter also includes a multivariate sensor disposed in the housing. The sensor is configured to determine a concentration of the analyte over time. In addition, the multivariate sensor includes an irreversible sensing material. Electrical properties of the irreversible sensing material are configured to change irreversibly upon exposure to the analyte.

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Clifton Park, NY, United States of America

Nandini Nagraj