mhurhangee/ep-ind-claims huggingface dataset:
A vane for a gas turbine engine, comprising: a ceramic airfoil section having an airfoil wall defining a leading edge, a trailing edge, a pressure side, and a suction side, the ceramic airfoil section having an internal cavity; a support spar extending through the internal cavity for supporting the ceramic airfoil section, the support spar being spaced from the airfoil wall such that there is a gap therebetween, the support spar having an internal through-passage for conveying cooling air that is destined for a downstream cooling location; and a baffle disposed in the gap, the baffle being spaced apart from the airfoil wall and the support spar so as to divide the gap into a plenum space and an impingement space, wherein the plenum space is between the support spar and the baffle and is for conveying cooling air for cooling the leading edge, and the impingement space is between the baffle and the airfoil wall, the baffle having impingement holes directed toward the airfoil wall and connecting the plenum space and the impingement space, characterised in that: the internal through-passage is fluidly isolated from the gap. a ceramic airfoil section having an airfoil wall defining a leading edge, a trailing edge, a pressure side, and a suction side, the ceramic airfoil section having an internal cavity; a support spar extending through the internal cavity for supporting the ceramic airfoil section, the support spar being spaced from the airfoil wall such that there is a gap therebetween, the support spar having an internal through-passage for conveying cooling air that is destined for a downstream cooling location; and a baffle disposed in the gap, the baffle being spaced apart from the airfoil wall and the support spar so as to divide the gap into a plenum space and an impingement space, wherein the plenum space is between the support spar and the baffle and is for conveying cooling air for cooling the leading edge, and the impingement space is between the baffle and the airfoil wall, the baffle having impingement holes directed toward the airfoil wall and connecting the plenum space and the impingement space,
A blood glucose measuring instrument, having: - a measuring device for determining measured blood glucose values, - a measured value memory in which the measured blood glucose values are stored, - a data interface which is configured for an exchange of data with an external data readout device, and - a data file system, characterized in that - the data file system comprises a client-executable data readout application which is executed by means of an external data readout device and which is configured to provide the stored measured blood glucose values for readout by means of the external data readout device, and in that - the data file system further comprises a test application which is configured to execute an integrity test for the data readout application by producing a current digital signature for the data readout application and comparing it with a digital test signature provided in the data file system. - a measuring device for determining measured blood glucose values, - a measured value memory in which the measured blood glucose values are stored, - a data interface which is configured for an exchange of data with an external data readout device, and - a data file system, - the data file system comprises a client-executable data readout application which is executed by means of an external data readout device and which is configured to provide the stored measured blood glucose values for readout by means of the external data readout device, and in that - the data file system further comprises a test application which is configured to execute an integrity test for the data readout application by producing a current digital signature for the data readout application and comparing it with a digital test signature provided in the data file system.
A method performed at a system that comprises one or more video cameras (118, 106) and a remote server system, the method comprising: obtaining, via a video camera (118, 106) of the one or more video cameras (118, 106), video data for a scene, wherein the video data comprises: color video data in accordance with a determination that the scene has illumination above an illumination threshold; and infrared video data in accordance with a determination that the scene does not have illumination above the illumination threshold; colorizing the IR video data based on a subset of the color video data; the colorizing the IR video data comprises converting an IR image of the infrared video data to a LAB color space image with identifying, via a neural network, a first set of potential A and B color components for the IR image and converting to the LAB color space image futher comprises: identifying a second set of potential A and B color components based on one or more prior images of the scene; and selecting A and B color components for the IR image based on the first set of potential A and B color components and the second set of potential A and B color components and presenting the colorized video data to a user in real time. color video data in accordance with a determination that the scene has illumination above an illumination threshold; and infrared video data in accordance with a determination that the scene does not have illumination above the illumination threshold; colorizing the IR video data based on a subset of the color video data; the colorizing the IR video data comprises converting an IR image of the infrared video data to a LAB color space image with identifying, via a neural network, a first set of potential A and B color components for the IR image and converting to the LAB color space image futher comprises: identifying a second set of potential A and B color components based on one or more prior images of the scene; and selecting A and B color components for the IR image based on the first set of potential A and B color components and the second set of potential A and B color components and presenting the colorized video data to a user in real time.
A method using an antimicrobial composition to control the outgrowth of pathogens and spoilage microorganisms comprising: (a) providing a food or beverage product having a moisture content of 65% by weight to 80% by weight, pH in the range of 5.5 to 8.5, and salt content less than 2.0% by weight; and (b) contacting the food or beverage product with an antimicrobial composition comprising an organic acid or its salt and a fermentation derived antimicrobial peptide to control growth of pathogens and growth of spoilage microorganisms; wherein the packaging condition of the food or beverage product is non-vacuum packaged; wherein the food or beverage product is free of nitrate and nitrite that is derived either from synthetic or fermentation process. (a) providing a food or beverage product having a moisture content of 65% by weight to 80% by weight, pH in the range of 5.5 to 8.5, and salt content less than 2.0% by weight; and (b) contacting the food or beverage product with an antimicrobial composition comprising an organic acid or its salt and a fermentation derived antimicrobial peptide to control growth of pathogens and growth of spoilage microorganisms;
A method implemented on a system comprising a processor and a memory, wherein the system includes a message-based operating system, OS, and a difference detector including a recorder, a monitor and a handler, the method comprising: receiving, by the difference detector from the OS, a first series of operating system programmatic procedure invocations invoked by a first process; populating in a buffer, by the recorder of the difference detector, a first ordered set of identified call sequences comprising invocation identifiers identifying the operating system programmatic procedure invocations in the first series; receiving (404, 520), by the difference detector from the OS, a second series of operating system programmatic procedure invocations invoked by a second process; generating, by the monitor of the difference detector, a second ordered set of call sequences comprising invocation identifiers identifying the operating system programmatic procedure invocations in the second series; and detecting, by the difference detector, a hardware error based on the monitor of the difference detector detecting a difference between outputs of the first process and the second process by comparing programmatic procedure invocations made by the processes. receiving, by the difference detector from the OS, a first series of operating system programmatic procedure invocations invoked by a first process; populating in a buffer, by the recorder of the difference detector, a first ordered set of identified call sequences comprising invocation identifiers identifying the operating system programmatic procedure invocations in the first series; receiving (404, 520), by the difference detector from the OS, a second series of operating system programmatic procedure invocations invoked by a second process; generating, by the monitor of the difference detector, a second ordered set of call sequences comprising invocation identifiers identifying the operating system programmatic procedure invocations in the second series; and detecting, by the difference detector, a hardware error based on the monitor of the difference detector detecting a difference between outputs of the first process and the second process by comparing programmatic procedure invocations made by the processes.
A compound of structural Formula I or a pharmaceutically acceptable salt thereof: wherein R 1 is R 2 is halo or -C 1-3 alkyl substituted with 1 to 3 of -F; R 3 is (a) halo, (b) -C 1-3 alkyl substituted with 1 to 3 of -F, or phenyl substituted with halo; and; R 4 is R 1 is R 2 is halo or -C 1-3 alkyl substituted with 1 to 3 of -F; R 3 is (a) halo, (b) -C 1-3 alkyl substituted with 1 to 3 of -F, or phenyl substituted with halo; and; R 4 is
A selective access device for a picking/depositing station in an automated warehouse, the device defining an access area and comprising: - a first cover engaging said access area and defined by a pair of movable plane surfaces (30, 31), which are parallel or coplanar to one another and are slidable along a first rectilinear axis and are adapted to define a first opening in said access area; - movement means (32, 33) controlled so as to move said movable plane surfaces (30, 31) along said first axis; - a second cover engaging said access area, arranged above said first cover and configurable so as to open/close, in said access area, a second opening aligned with said first opening; said second cover being defined by a plurality of doors, each rotating about a relative rotation axis in respect to said first cover to define said second opening; said doors being arranged side-by-side along a second rectilinear axis, orthogonal to said first axis; the device comprising, for each said door, a relative lock for keeping said door closed; characterised in that said movable plane surfaces (30, 31) can slide in opposite directions to open and close said first opening, and in that said rotation axes are parallel to said second axis. - a first cover engaging said access area and defined by a pair of movable plane surfaces (30, 31), which are parallel or coplanar to one another and are slidable along a first rectilinear axis and are adapted to define a first opening in said access area; - movement means (32, 33) controlled so as to move said movable plane surfaces (30, 31) along said first axis; - a second cover engaging said access area, arranged above said first cover and configurable so as to open/close, in said access area, a second opening aligned with said first opening; said second cover being defined by a plurality of doors, each rotating about a relative rotation axis in respect to said first cover to define said second opening; said doors being arranged side-by-side along a second rectilinear axis, orthogonal to said first axis; the device comprising, for each said door, a relative lock for keeping said door closed; characterised in that said movable plane surfaces (30, 31) can slide in opposite directions to open and close said first opening, and in that said rotation axes are parallel to said second axis. said second cover being defined by a plurality of doors, each rotating about a relative rotation axis in respect to said first cover to define said second opening; said doors being arranged side-by-side along a second rectilinear axis, orthogonal to said first axis; the device comprising, for each said door, a relative lock for keeping said door closed; characterised in that said movable plane surfaces (30, 31) can slide in opposite directions to open and close said first opening, and in that said rotation axes are parallel to said second axis.
Method for detecting the abnormal removal of fuel from a fuel tank of a motor vehicle (100; 110), comprising the steps of: - continuously detecting changes in the fuel quantity in said tank to determine whether said fuel quantity is being changed normally or otherwise; - transmitting a signal if said fuel quantity is changed abnormally, - detecting a fuel level in said tank by means of a non-mechanical level sensor, characterized in that said non-mechanical level sensor is equipped with a logic system adapted to determine whether said fuel quantity is being changed normally or otherwise, wherein in case the vehicle is operating, said non-mechanical level sensor uses a first-order time derivative dV/dt of a fuel volume V in the tank and, if said non-mechanical level sensor establishes that dV/dt exceeds a preset threshold value Th, said non-mechanical level sensor establishes that said existing fuel volume is being changed in an abnormal way, and said non-mechanical level sensor generates said signal, or, wherein in case the vehicle is switched off, said non-mechanical level sensor compares a detected fuel level L1 at a first time t1 and a detected fuel level L2 at a second time t2, and if said non-mechanical level sensor determines that L2 is less or substantially less than L1, said non-mechanical level sensor establishes that said fuel volume V in the tank 230 is being changed in an abnormal way, and said non-mechanical level sensor generates said signal; and wherein said non-mechanical level sensor directly transmits said signal to an existing alarm system in the vehicle (100; 110). - continuously detecting changes in the fuel quantity in said tank to determine whether said fuel quantity is being changed normally or otherwise; - transmitting a signal if said fuel quantity is changed abnormally, - detecting a fuel level in said tank by means of a non-mechanical level sensor, wherein in case the vehicle is operating, said non-mechanical level sensor uses a first-order time derivative dV/dt of a fuel volume V in the tank and, if said non-mechanical level sensor establishes that dV/dt exceeds a preset threshold value Th, said non-mechanical level sensor establishes that said existing fuel volume is being changed in an abnormal way, and said non-mechanical level sensor generates said signal, or, wherein in case the vehicle is switched off, said non-mechanical level sensor compares a detected fuel level L1 at a first time t1 and a detected fuel level L2 at a second time t2, and if said non-mechanical level sensor determines that L2 is less or substantially less than L1, said non-mechanical level sensor establishes that said fuel volume V in the tank 230 is being changed in an abnormal way, and said non-mechanical level sensor generates said signal; and wherein said non-mechanical level sensor directly transmits said signal to an existing alarm system in the vehicle (100; 110).
Method for operating a household appliance having a treatment container (2, 4) for receiving objects to be treated, a control facility, a storage container for an aqueous liquid, at least one pump (22, 35) for conveying the aqueous liquid between the storage container and the treatment container (2, 4), and an oxidising agent generator which is connected to a separate container for storing an aqueous solution of oxidising agent generated in the oxidising agent generator, comprising a temporally overlapping performance of the following steps: (a) carrying out a treatment program with the objects in the treatment container (2, 4); (b) generating an oxidising agent in the oxidising agent generator; and (c) transferring the oxidising agent into the container and keeping same therein ready for use, wherein steps (a) and (b) are started simultaneously. (a) carrying out a treatment program with the objects in the treatment container (2, 4); (b) generating an oxidising agent in the oxidising agent generator; and (c) transferring the oxidising agent into the container and keeping same therein ready for use,
Multi-selector valve comprising a valve body, a plurality of inlet fittings, configured to be in connection with respective supply lines coming from multiple wells and positioned between them at various distances, a first discharge connector and a second discharge connector for carrying out tests, wherein - in said multi-selector valve, the sealing between a selector element and each inlet fitting is made by means of a conical-spherical sealing, and - the conical-spherical sealing is made between a conical surface of a sealing seat and a spherical surface of the selector element, wherein the conical-spherical sealing between the conical surface of sealing seat and the spherical surface of the selector element is ensured by a plurality of elastic means, said multi-selector valve being characterized in that each plurality of elastic means is present on each inlet fitting, so as to ensure a simultaneous sealing of all supply lines. - in said multi-selector valve, the sealing between a selector element and each inlet fitting is made by means of a conical-spherical sealing, and - the conical-spherical sealing is made between a conical surface of a sealing seat and a spherical surface of the selector element,
A multilayer sheet comprising; at least one sealant layer comprising; from 0.02 to less than 1 percent by weight of one or more antimicrobial agents, based on the total weight of the sealant layer; at least 20 percent by weight of a base polymer, based on the total weight of the sealant layer, wherein said base polymer comprises a propylene/ethylene copolymer composition, wherein said propylene/ethylene copolymer has a crystallinity in the range of from 1 percent by weight to 30 percent by weight as measured by DSC, i.e. a heat of fusion in the range of from 2 Joules/gram to 50 Joules/gram, and a DSC melting point in the range of 25°C to 110°C; from 10 to less than 80 percent by weight of a secondary polymer selected from the group consisting of polypropylene homopolymer, polypropylene random copolymer, impact modified polypropylene and combinations thereof; at least one core layer in contact with said at least one sealant layer, wherein said core layer comprises a core polymer selected from the group consisting of polypropylene homopolymer, polypropylene random copolymer, impact modified polypropylene, and combinations thereof.
A method, comprising: determining a discontinuous reception usage state of a user equipment, wherein the discontinuous reception usage state comprises a general discontinuous reception state, a machine type communication physical downlink control channel discontinuous reception state, or both a general discontinuous reception state and a machine type communication physical downlink control channel discontinuous reception state; and selecting a monitoring performance requirement from a plurality of monitoring performance requirements based on the determined discontinuous reception usage stage, wherein when it is determined that that the user equipment is in the general discontinuous reception state and is in the machine type communication physical downlink control channel discontinuous reception state, the selecting comprises selecting a requirement for the user equipment to follow standard monitoring performance requirements modified to replace the discontinuous reception cycle with the greater of a discontinuous reception cycle time period and a machine type communication physical downlink control channel monitoring time period, wherein the machine type communication physical downlink control channel monitoring time period is G ∗ r max, wherein G is a configured parameter for controlling a machine type communication physical downlink control channel, and r max is a configured maximum repetition level of machine type communication physical downlink control channel; and power saving in accordance with the selected monitoring performance requirement. determining a discontinuous reception usage state of a user equipment, wherein the discontinuous reception usage state comprises a general discontinuous reception state, a machine type communication physical downlink control channel discontinuous reception state, or both a general discontinuous reception state and a machine type communication physical downlink control channel discontinuous reception state; and selecting a monitoring performance requirement from a plurality of monitoring performance requirements based on the determined discontinuous reception usage stage, wherein when it is determined that that the user equipment is in the general discontinuous reception state and is in the machine type communication physical downlink control channel discontinuous reception state, the selecting comprises selecting a requirement for the user equipment to follow standard monitoring performance requirements modified to replace the discontinuous reception cycle with the greater of a discontinuous reception cycle time period and a machine type communication physical downlink control channel monitoring time period, wherein the machine type communication physical downlink control channel monitoring time period is G ∗ r max, wherein G is a configured parameter for controlling a machine type communication physical downlink control channel, and r max is a configured maximum repetition level of machine type communication physical downlink control channel; and power saving in accordance with the selected monitoring performance requirement.
A fuel injection system for an internal combustion engine demanding more than one injection event per fuel injector per combustion cycle, the system comprising: a plurality of fuel injectors, each fuel injector including a pressure sensor (64, 82) for measuring the pressure of fuel therein; an accumulator arranged to supply fuel to the fuel injectors (46, 108, 152) in use; the fuel injection system being characterised by a control unit arranged to receive a pressure signal from each of the pressure sensors (64, 82) before an injection event in the corresponding injector to calculate the way in which pressure waves tend to propagate in the fuel injector; to predict the fuel pressure that will prevail in the injector during the injection event; and to supply control signals to that fuel injector to control the amount of fuel injected during that injection event in accordance with the predicted fuel pressure. a plurality of fuel injectors, each fuel injector including a pressure sensor (64, 82) for measuring the pressure of fuel therein; an accumulator arranged to supply fuel to the fuel injectors (46, 108, 152) in use; the fuel injection system being characterised by a control unit arranged to receive a pressure signal from each of the pressure sensors (64, 82) before an injection event in the corresponding injector to calculate the way in which pressure waves tend to propagate in the fuel injector; to predict the fuel pressure that will prevail in the injector during the injection event; and to supply control signals to that fuel injector to control the amount of fuel injected during that injection event in accordance with the predicted fuel pressure.