mhurhangee/patent-ind-claim-en huggingface dataset:
A method for transmitting data by a communications device in a wireless communications network, the method comprising: allocating a fraction of the data for transmitting to a first infrastructure equipment of the wireless communications network using a first carrier frequency, allocating a remainder of the data for transmitting to a second infrastructure equipment of the wireless communications network different from the first infrastructure equipment using a second carrier frequency, the second carrier frequency differing from the first carrier frequency, transmitting the fraction of data using the first carrier frequency and the remainder of data using the second carrier frequency, determining an attribute associated with communicating the data from the communications device to the first infrastructure equipment using the first carrier frequency including measuring or estimating the attribute based on acknowledgement information in respect of the data communicated from the communications device to the first infrastructure equipment using the first carrier frequency, the acknowledgement information being included in signals received from the first infrastructure equipment, modifying the fraction based on at least the determined attribute, and transmitting subsequent data using at least one of the first and second carrier frequencies according to the modified fraction. allocating a fraction of the data for transmitting to a first infrastructure equipment of the wireless communications network using a first carrier frequency, allocating a remainder of the data for transmitting to a second infrastructure equipment of the wireless communications network different from the first infrastructure equipment using a second carrier frequency, the second carrier frequency differing from the first carrier frequency, transmitting the fraction of data using the first carrier frequency and the remainder of data using the second carrier frequency, determining an attribute associated with communicating the data from the communications device to the first infrastructure equipment using the first carrier frequency including measuring or estimating the attribute based on acknowledgement information in respect of the data communicated from the communications device to the first infrastructure equipment using the first carrier frequency, the acknowledgement information being included in signals received from the first infrastructure equipment, modifying the fraction based on at least the determined attribute, and transmitting subsequent data using at least one of the first and second carrier frequencies according to the modified fraction.
A converging split-flow microchannel evaporator , comprising: a thermally conductive contact surface to mate to a surface to be cooled, a core mounted in thermal connection with the contact surface and defining at least one layer of microchannels each spanning between a first end and a second end, a first fluid inlet hydraulically connected to the first end of a first plurality of the microchannels defined in the core , a first plurality of inlet restrictions at the first fluid inlet that each restrict the flow into one of the first plurality of microchannels defined in the core , wherein each of the first plurality of microchannels is provided with a corresponding one of the first plurality of inlet restrictions , a second fluid inlet hydraulically connected to the first end of a second plurality of the microchannels defined in the core , a second plurality of inlet restrictions at the second fluid inlet that each restrict the flow into one of the second plurality of microchannels defined in the core , wherein each of the second plurality of microchannels is provided with a corresponding one of the second plurality of inlet restrictions , and a fluid outlet located between the first fluid inlet and the second fluid inlet , hydraulically connected to the second ends of the microchannels in the first plurality of microchannels , and hydraulically connected to the second ends of the microchannels in the second plurality of microchannels . a thermally conductive contact surface to mate to a surface to be cooled, a core mounted in thermal connection with the contact surface and defining at least one layer of microchannels each spanning between a first end and a second end, a first fluid inlet hydraulically connected to the first end of a first plurality of the microchannels defined in the core , a first plurality of inlet restrictions at the first fluid inlet that each restrict the flow into one of the first plurality of microchannels defined in the core , wherein each of the first plurality of microchannels is provided with a corresponding one of the first plurality of inlet restrictions , a second fluid inlet hydraulically connected to the first end of a second plurality of the microchannels defined in the core , a second plurality of inlet restrictions at the second fluid inlet that each restrict the flow into one of the second plurality of microchannels defined in the core , wherein each of the second plurality of microchannels is provided with a corresponding one of the second plurality of inlet restrictions , and a fluid outlet located between the first fluid inlet and the second fluid inlet , hydraulically connected to the second ends of the microchannels in the first plurality of microchannels , and hydraulically connected to the second ends of the microchannels in the second plurality of microchannels .
A method comprising: inferring activity of an NFkB cellular signaling pathway based at least on expression levels of seven target genes of the NFkB cellular signaling pathway measured in a sample, wherein the inferring comprises: determining a level of an NFkB transcription factor (TF) element in the sample, the NFkB TF element controlling transcription of the seven target genes of the NFkB cellular signaling pathway, the determining being based at least in part on evaluating a mathematical model relating expression levels of the seven target genes of the NFkB cellular signaling pathway to the level of the NFkB TF element, wherein the seven target genes are CCL5, CXCL2, ICAM1, IL6, IL8, NFKBIA, and TNFAIP2; inferring the activity of the NFkB cellular signaling pathway based on the determined level of the NFkB TF element in the sample, wherein the inferring is performed by a digital processing device using the mathematical model. inferring activity of an NFkB cellular signaling pathway based at least on expression levels of seven target genes of the NFkB cellular signaling pathway measured in a sample, wherein the inferring comprises: determining a level of an NFkB transcription factor (TF) element in the sample, the NFkB TF element controlling transcription of the seven target genes of the NFkB cellular signaling pathway, the determining being based at least in part on evaluating a mathematical model relating expression levels of the seven target genes of the NFkB cellular signaling pathway to the level of the NFkB TF element, wherein the seven target genes are CCL5, CXCL2, ICAM1, IL6, IL8, NFKBIA, and TNFAIP2; inferring the activity of the NFkB cellular signaling pathway based on the determined level of the NFkB TF element in the sample, determining a level of an NFkB transcription factor (TF) element in the sample, the NFkB TF element controlling transcription of the seven target genes of the NFkB cellular signaling pathway, the determining being based at least in part on evaluating a mathematical model relating expression levels of the seven target genes of the NFkB cellular signaling pathway to the level of the NFkB TF element, wherein the seven target genes are CCL5, CXCL2, ICAM1, IL6, IL8, NFKBIA, and TNFAIP2; inferring the activity of the NFkB cellular signaling pathway based on the determined level of the NFkB TF element in the sample, wherein the inferring is performed by a digital processing device using the mathematical model.
An applicator for applying an on-skin sensor assembly to a skin of a host, the applicator comprising a needle hub , an insertion element , a sensor and the on-skin sensor assembly , the needle hub comprising: a base comprising an anti-rotation feature configured to prevent rotation of the base within an aperture of the on-skin sensor assembly , the base configured to be at least partially disposed in the aperture , wherein the aperture is adapted for insertion of the sensor , wherein the needle hub is configured to couple with the insertion element . a base comprising an anti-rotation feature configured to prevent rotation of the base within an aperture of the on-skin sensor assembly , the base configured to be at least partially disposed in the aperture , wherein the aperture is adapted for insertion of the sensor , wherein the needle hub is configured to couple with the insertion element .
A feeder breaker comprising: a frame having a first end, a second end opposite the first end, and a material flow direction defined between the first end and the second end; a conveying assembly coupled to the frame and configured to convey a material in the material flow direction ; a first crusher coupled to the frame and configured to receive the material conveyed by the conveying assembly; a second crusher coupled to the frame downstream of the first crusher in the material flow direction , the second crusher is configured to receive the material conveyed by the conveying assembly; and characterized in that a flow-limiting member coupled to the frame downstream of the first crusher in the material flow direction ; wherein the flow-limiting member is configured to limit a flow of the material to the second crusher . a frame having a first end, a second end opposite the first end, and a material flow direction defined between the first end and the second end; a conveying assembly coupled to the frame and configured to convey a material in the material flow direction ; a first crusher coupled to the frame and configured to receive the material conveyed by the conveying assembly; a second crusher coupled to the frame downstream of the first crusher in the material flow direction , the second crusher is configured to receive the material conveyed by the conveying assembly; and characterized in that a flow-limiting member coupled to the frame downstream of the first crusher in the material flow direction ; wherein the flow-limiting member is configured to limit a flow of the material to the second crusher .
A battery module comprising: a first liquid battery , which is a unit cell; and characterized by a first solid battery , which is a unit cell that has a larger volume than a volume of the first liquid battery . a first liquid battery , which is a unit cell; and characterized by a first solid battery , which is a unit cell that has a larger volume than a volume of the first liquid battery .
A method for calibrating an eddy-current, the method comprising: establishing an eddy-current field model, wherein the eddy-current field model is expressed by Laplace transformation; obtaining data of a first eddy-current field and performing inverse Laplace transformation, ILT , based on the data of the first eddy-current field to obtain a Laplacian spectrum; acquiring information of a peak of the Laplacian spectrum to determine a first parameter, based on the information of the peak, characterized in that the determining the first parameter comprises: determining a boundary of a reliable spectrum peak; calculating a total intensity of the reliable spectrum peak within the boundary; and setting the first parameter based on the total intensity of the reliable spectrum peak; fitting the established eddy-current field model with the data of the first eddy-current field and the first parameter to acquire a second parameter; incorporating the second parameter into the established eddy-current field model to obtain a calibrated eddy-current field model; and calibrating the eddy-current based on the calibrated eddy-current field model. establishing an eddy-current field model, wherein the eddy-current field model is expressed by Laplace transformation; obtaining data of a first eddy-current field and performing inverse Laplace transformation, ILT , based on the data of the first eddy-current field to obtain a Laplacian spectrum; acquiring information of a peak of the Laplacian spectrum to determine a first parameter, based on the information of the peak, characterized in that the determining the first parameter comprises: determining a boundary of a reliable spectrum peak; calculating a total intensity of the reliable spectrum peak within the boundary; and setting the first parameter based on the total intensity of the reliable spectrum peak; fitting the established eddy-current field model with the data of the first eddy-current field and the first parameter to acquire a second parameter; incorporating the second parameter into the established eddy-current field model to obtain a calibrated eddy-current field model; and calibrating the eddy-current based on the calibrated eddy-current field model.
Method for utilising nitrogen oxides contained in the ambient air, comprising adsorbing nitrogen oxides (NO x ) from the ambient air in a stationary adsorber unit which contains an adsorber material , removing the adsorber material loaded with nitrogen oxides (NO x ) from the adsorber unit , collecting and temporarily storing the adsorber material loaded with nitrogen oxides (NO x ) in a collection point, transferring the adsorber material loaded with nitrogen oxides (NO x ) into a desorption module , desorbing adsorbed nitrogen oxides (NO x ) from the adsorber material , and converting the nitrogen oxides (NO x ) into liquid or solid nitrogen-containing compounds .
A plumbing fitting mountable on a surface , the plumbing fitting comprising: a body housing at least partially at least one fluid handling component having an inlet for receiving an inlet water flow, wherein the at least one fluid handling component comprises a valve operable in response to a user input to control the temperature and/or flow rate of an outlet water flow ; an inlet waterway for conveying the inlet water flow to the inlet of the fluid handling component, the inlet waterway being connectable to a water supply pipe; and a manually operable isolation valve operable to allow or prevent flow along the inlet waterway, wherein the isolation valve is disposed within the inlet waterway at a location downstream of the water supply pipe and upstream of the inlet for receiving the inlet water flow; wherein, when the plumbing fitting is mounted on the surface, the isolation valve is located in front of the surface and is at a location accessible from in front of the surface. a body housing at least partially at least one fluid handling component having an inlet for receiving an inlet water flow, wherein the at least one fluid handling component comprises a valve operable in response to a user input to control the temperature and/or flow rate of an outlet water flow ; an inlet waterway for conveying the inlet water flow to the inlet of the fluid handling component, the inlet waterway being connectable to a water supply pipe; and a manually operable isolation valve operable to allow or prevent flow along the inlet waterway, wherein the isolation valve is disposed within the inlet waterway at a location downstream of the water supply pipe and upstream of the inlet for receiving the inlet water flow;
A window wash nozzle for a vehicle, comprising a housing in which a nozzle element which is connectable to a liquid supply is mounted so as to be pivotable about a pivot axis , and comprising an adjustment element, the actuation of which brings about pivoting of the nozzle element , characterized in that a sliding piece is mounted in an axially displaceable manner in the housing and interacts with the adjustment element in such a manner that actuation of the adjustment element brings about an axial displacement of the sliding piece , and in that a guiding cam is formed on the sliding piece and interacts with a transmission element in such a manner that the transmission element is adjusted in a direction transversely with respect to the direction of movement of the sliding piece during axial displacement of the sliding piece , wherein the transmission element acts on the nozzle element excentrically with respect to the pivot axis of the nozzle element such that an adjustment of the transmission element brings about pivoting of the nozzle element about the pivot axis .
A thickness measurement method of measuring a thickness of a measurement object, comprising: heating a surface of the measurement object in a dot shape by a heating device; generating a thermal image corresponding to a temperature of the surface of the measurement object by capturing an image of the heated surface of the measurement object at a predetermined time interval by an imaging device; acquiring temperature data indicating temporal changes in temperature at multiple positions on the surface of the measurement object based on the thermal image generated by the imaging device; fitting a solution function indicating a solution of a heat conduction equation corresponding to a point heat source and including a parameter related to the thickness of the measurement object to the temperature data; and calculating the thickness of the measurement object based on a value of the parameter included in the fitted solution function. heating a surface of the measurement object in a dot shape by a heating device; generating a thermal image corresponding to a temperature of the surface of the measurement object by capturing an image of the heated surface of the measurement object at a predetermined time interval by an imaging device; acquiring temperature data indicating temporal changes in temperature at multiple positions on the surface of the measurement object based on the thermal image generated by the imaging device; fitting a solution function indicating a solution of a heat conduction equation corresponding to a point heat source and including a parameter related to the thickness of the measurement object to the temperature data; and calculating the thickness of the measurement object based on a value of the parameter included in the fitted solution function.
A control apparatus for a vehicle wherein the vehicular control apparatus is configured to perform control of setting a start mode of an internal combustion engine , which generates a motive power applied to a driving wheel of the vehicle , during running of the vehicle with consumption of fuel in the internal combustion engine stopped, characterized in that the vehicular control apparatus is configured to perform control of setting the start mode of the internal combustion engine to a mode that enables start of the internal combustion engine at a time when braking operation for the vehicle is canceled if a vehicle speed of the vehicle is lower than a predetermined vehicle speed that is set in advance, and to a mode that disables start of the internal combustion engine at a time when braking operation for the vehicle is canceled if the vehicle speed of the vehicle is equal to or higher than the predetermined vehicle speed.
A method for coating a substrate comprising the steps: - providing a donor , which comprises a transparent donor substrate with a first side and a second side opposing it, wherein at least one donor layer is arranged on the second side ; - arranging the donor at a predetermined distance (A) to the substrate , wherein the donor layer is turned towards the substrate ; - passing at least one energy beam through the first side of the donor substrate onto the donor layer according to an irradiation strategy such that a part of the donor layer is separated from the donor and transferred to the substrate , wherein - the substrate is selected from a group consisting of paper, cardboard and paperboard or any combination from it, characterized in that - a donor is used, which comprises at least one additional coating of an adhesive glue on the side of the donor layer facing away from the donor substrate . - providing a donor , which comprises a transparent donor substrate with a first side and a second side opposing it, wherein at least one donor layer is arranged on the second side ; - arranging the donor at a predetermined distance (A) to the substrate , wherein the donor layer is turned towards the substrate ; - passing at least one energy beam through the first side of the donor substrate onto the donor layer according to an irradiation strategy such that a part of the donor layer is separated from the donor and transferred to the substrate , wherein - the substrate is selected from a group consisting of paper, cardboard and paperboard or any combination from it, characterized in that - a donor is used, which comprises at least one additional coating of an adhesive glue on the side of the donor layer facing away from the donor substrate .
A composite comprising: a cross-linked polymer comprising a pyridinium group; and a thermoplastic polymer; wherein the cross-linked polymer comprising the pyridinium group is derived from a compound comprising the pyridinium group and a multi-functional compound comprising at least three curable functional groups. a cross-linked polymer comprising a pyridinium group; and a thermoplastic polymer; wherein the cross-linked polymer comprising the pyridinium group is derived from a compound comprising the pyridinium group and a multi-functional compound comprising at least three curable functional groups.
A direct-current interruption apparatus comprising: a current path including a first switch and a second switch connected in series, the first switch being a non-semiconductor device and having a first withstand voltage, the second switch being a non-semiconductor device and having a second withstand voltage lower than the first withstand voltage; a commutation element having one end connected with a connection node of the first switch and the second switch and including a functional element and a first semiconductor switch connected in series, the functional element having a charge/discharge function; a second semiconductor switch being between and connected with the other end of the commutation element and one end of the first switch, the one end of the first switch being opposite to the other end of the first switch connected with the second switch; a conductive path being between and connected with the other end of the commutation element and one end of the second switch, the one end of the second switch being opposite to the other end of the second switch connected with the first switch; and a nonlinear resistor connected in parallel with the second semiconductor switch. a current path including a first switch and a second switch connected in series, the first switch being a non-semiconductor device and having a first withstand voltage, the second switch being a non-semiconductor device and having a second withstand voltage lower than the first withstand voltage; a commutation element having one end connected with a connection node of the first switch and the second switch and including a functional element and a first semiconductor switch connected in series, the functional element having a charge/discharge function; a second semiconductor switch being between and connected with the other end of the commutation element and one end of the first switch, the one end of the first switch being opposite to the other end of the first switch connected with the second switch; a conductive path being between and connected with the other end of the commutation element and one end of the second switch, the one end of the second switch being opposite to the other end of the second switch connected with the first switch; and a nonlinear resistor connected in parallel with the second semiconductor switch.