General Electric Company

Other

Kevin Thomas McCarthy

Hua Xia

Kung-Li Justin Deng

Avinash Vinayak Taware

Juntao Wu

Clayton Ming Young

Paul Venditti

Norman Arnold Turnquist

Danian Zheng

Michael Joseph Krok

Ayush Srivastava

Ramesh Pai Brahmavar

Aaron John Avagliano

Robert J Brooks

Mahadevan Balasubramaniam

Ertan Yilmaz

Aditya Kumar

Jeffrey Scott Goldmeer

Huageng Luo

Peter John Eisenzopf

Jie Jiang

Roy Paul Swintek

Goutam Banerjee

Abdul Rahman Abdallah Al-Khalidy

Cheryl Zhan

Christopher Edward Wolfe

James Michael Storey

Fulton Jose Lopez

Robert Joseph Iasillo

Jonathan Carl Thatcher

Eric John Ruggiero

David So Keung Chan

Kenneth Lee Fisher

Axel Busboom

Christopher Eugene Long

Alexander Seth Ross

Yu Zhao

Bala Corattiyil

Sameer Vittal

Russell Stephen DeMuth

Boon Kwee Lee

David Robert O'Connor

James Gerard Lopez

Yun Li

Hunt Adams Sutherland

Ravindra Annigeri

Justin H Knight

Richard Gawrelski

Paul Thomas Schweitzer

Matthew Damian Pietrzykowski

Karthikeyan Loganathan

Thomas Finucane

Parag Arvind Marathe

Tim P Jahnigen

Christian Joseph Wagner

Ronald Kevin Gilstrap

James Richard Nutt

Ted Carlton Kreutz

Hua Xai

Michael Scott Skalyo

A cup liner for a cup of a spray gun includes a fluid reservoir portion that defines a reservoir and includes a divider portion dividing the reservoir into two or more compartments. Each compartment contains a fluid to be dispensed by the spray gun and keeps the fluids separated from fluids held by other compartments. In addition, a fitting for a spray gun includes two or more inlet interfaces and an outlet interface. Each inlet interface couples to a fluid source and the outlet couples to the spray gun such that the fitting provides fluid communication between each fluid source and the spray gun. This permits the spray gun to spray a mixture of the fluids.

Cup liner and a fitting for a spray gun

In one embodiment, a system includes system includes a data collection system configured to collect a data from a control system. The system further includes a configuration management system configured to manage a hardware configuration and a software configuration for the control system based on the data. The system additionally includes a rule engine configured to use the data as input and to output a health assessment by using a rule database configured to store at least one rule, and a report generator configured to provide a health assessment for the control system. The system also includes a rule editor configured to create the at least one rule, update the at least one rule, delete the at least one rule, or a combination thereof.

Systems and methods for rule-based control system reliability

In one embodiment, a system includes a data collection system configured to collect a data from a control system. The system further includes a configuration management system configured to manage a hardware configuration and a software configuration for the control system based on the data. The system additionally includes a rule engine configured to use the data as input and to output a health assessment by using a rule database, and a report generator configured to provide a health assessment for the control system.

Systems and methods for control reliability operations

A dynamic fiber temperature sensing package is provided herein. The sensing package includes a support structure, a holder coupled to the support structure, a sheath coupled to the support structure via the holder, and a fiber optic temperature sensor positioned within the sheath. The holder includes a material having a first thermal conductivity and the sheath includes a material having a second thermal conductivity, wherein the second thermal conductivity is greater than the first thermal conductivity.

Dynamic fiber temperature sensing package and method of assembling the same

A computing device for use in performing a redundancy test on a turbine assembly and a turbine control system including a plurality of controllers each configured to independently control operation of the turbine assembly is provided. The computing device configured to be coupled to the turbine control system and configured to determine whether a plurality of test conditions are satisfied, display to a user an indication of which test conditions are satisfied, and test, in response to a user input, the plurality of controllers.

Systems and methods for performing redundancy tests on turbine controls

In one embodiment, a system includes a data collection system configured to collect a data from a control system by using an offline mode of operations. The system further includes a configuration management system configured to manage a hardware configuration and a software configuration for the control system based on the data. The system additionally includes a rule engine configured to use the data as input and to output a health assessment by using a rule database, and a report generator configured to provide a health assessment for the control system.

Systems and methods for control reliability operations using TMR

A non-pressurized sport ball that simulates the resiliency, rebound, hardness and weight properties of a similar sized, inflatable sports ball. The sports ball, which can be made in different sizes and shapes, includes a hollow ball body with relatively thick sidewalls made of closed-cell foam, elastomeric resin. When cured, the sidewalls have compression and resiliency properties that enable the working action of the sidewalls to be used in place of an air bladder in an inflatable sports ball. Formed on the ball body is an entry hole in which an air escaping cap is inserted made of the same elastomeric resin material as the ball body. During use, the cap flexes within the entry hole to allow air to exit and enter the ball during use so that the internal and external air pressures are equal. Also disclosed is a method of manufacturing the sports ball using a mandrel and a suitable-shaped compression mold with an entry hole formed on one side.

Simulated pressurized ball and manufacturing method

An encasing for a mobile device is disclosed. The encasing includes a front portion including a discontinuous surface area configured to receive a bottom surface of the mobile device, a back portion opposite the front portion, and side portions configured to convexly couple to side surfaces of the mobile device. The side portions include a side region comprising a moveable flap configured to rotate when inserting and removing the mobile device.

Protective encasing for a mobile computing device

A system and method for enhancing operation of a power generation system. The method includes receiving forecasts at a predictive control unit. The method also includes accessing via a controller real-time lifing models or near real-time lifing models in the predictive control unit. Additionally, the method includes accessing via the controller an enhancer configured to simulate operation of a power generating unit in the power generation system to generate an enhancement of the power generation system based on the forecasts and the real-time or near real-time lifing models.

System and method for enhancement of power generation facilities

A device operating in an environment includes a fiber optic sensing system having one or more fiber optic sensors disposed in the device and configured to detect one or more parameters related to the device. The parameters may include temperature, strain, pressure, vibration, or combinations thereof.

Embedded fiber optic sensing device and method

A fiber Bragg grating multi-point temperature sensing system comprises a fiber sensing cable package and a plurality of clamping devices distributed along an inner surface of a wall in a circumferential direction for securing the fiber sensing cable package. The fiber sensing cable package comprises a fiber Bragg grating based sensing cable comprising at least one optical fiber, a plurality of Bragg gratings inscribed in the optical fiber, and a fabric layer and a sheath tube surrounding the optical fiber. The multi-point fiber temperature sensing system comprises a light source for transmitting light to the Bragg gratings based sensing cable package, and a detector module receiving reflected signal. Each clamping device comprises a radiation tee and defines at least one mounting hole for securing the fiber sensing cable.

Fiber Bragg grating sensing package and system for gas turbine temperature measurement

A fiber-optic dynamic sensing module comprises a support member, a beam extending from the support member, and a pre-strained fiber Bragg grating sensor and a strain-free fiber Bragg grating sensor mounted on the beam. The pre-strained and strain-free fiber Bragg grating sensors each comprise a Bragg grating inscribed in a fiber. The Bragg grating of the pre-strained fiber Bragg grating sensor is packaged more tightly along a longitudinal direction of the beam than the Bragg grating of the strain-free fiber Bragg grating sensor.

Fiber-optic dynamic sensing modules and methods

A device includes a stationary, rotary component, and a fiber optic sensing system. The fiber optic sensing system includes a cable having one or more fiber optic sensors disposed on the stationary component, the rotary component, or combinations thereof. The fiber optic sensing system is configured to detect one or more first parameters including temperature, strain, pressure, vibration, torque; or combinations thereof related to the stationary component, the rotary component, or combinations thereof. The one or more first parameters is used to determine one or more second parameters including thermal expansion, clearance, fluid flow rate variation, condensation, fluid leakage, thermal loss, life, thermal stress, or combinations thereof related to the stationary component, the rotary component, or combinations thereof.

Fiber optic sensing device and method

A fiber optic sensor is provided. The fiber optic sensor includes a fiber core having a plurality of grating elements wherein, the grating elements comprise a periodic or a quasiperiodic modulated microcrystalline and silicon dioxide tetrahedral structure and a cladding disposed about the fiber core.

Fiber optic sensor for detecting multiple parameters in a harsh environment

A fiber sensor package is disclosed. The fiber sensor package includes an interconnection between a first optical fiber and a second optical fiber within a tubing such that the first and second optical fibers are at least partially disposed within that tubing. A bonding material is disposed across an edge of the interconnection around at least a part of the circumferential surfaces of the first and second fibers, holds rigid the interconnection of the first and second optical fibers. The methods of preparing the package, and the examples of systems benefiting from the fiber sensor package of this invention are also described.

Packaged sensors and harsh environment systems with packaged sensors

Growing community of inventors

Troy, NY, United States of America

Kevin Thomas McCarthy