mhurhangee/ep-ind-claims huggingface dataset:
A method for determining a diagnosis or prognosis in an individual comprising: (i) measuring the concentration of cardiac troponin I (cTnI) from a serum sample from the individual, wherein said concentration is determined by a cTnI assay with a limit of detection for said cTnI in said sample of less than 5 pg/ml; (ii) comparing the measured concentration to a threshold concentration of 7 pg/mL; and (iii) determining a diagnosis or prognosis of myocardial infarct in the individual, if the sample concentration is greater than the threshold concentration; wherein the individual is a human. (i) measuring the concentration of cardiac troponin I (cTnI) from a serum sample from the individual, wherein said concentration is determined by a cTnI assay with a limit of detection for said cTnI in said sample of less than 5 pg/ml; (ii) comparing the measured concentration to a threshold concentration of 7 pg/mL; and (iii) determining a diagnosis or prognosis of myocardial infarct in the individual, if the sample concentration is greater than the threshold concentration;
A semiconductor device comprising: a substrate having an upper surface that defines a sensing region and includes wiring contacts; suspension structures extending from the upper surface of the substrate around the sensing region; and an absorber stack attached to the substrate by the suspension structures, the suspension structures suspending the absorber stack over the sensing region and spaced apart from the sensing region such that a gap is defined between the absorber stack and the sensing region, the absorber stack being configured to have a temperature that changes in a manner dependent upon absorbed infrared radiation and including a transducer element having an electrical resistance that depends on the temperature of the absorber, wherein the absorber stack includes a plurality of metallization layers interleaved with a plurality of insulating layers, wherein a bottom metallization layer of the plurality of metallization layers is configured as the transducer element, the bottom metallization layer being the lowermost layer in the absorber stack and being electrically connected to the wiring contacts on the substrate, and wherein the bottom metallization layer has a thickness of less than 5 nm. a substrate having an upper surface that defines a sensing region and includes wiring contacts; suspension structures extending from the upper surface of the substrate around the sensing region; and an absorber stack attached to the substrate by the suspension structures, the suspension structures suspending the absorber stack over the sensing region and spaced apart from the sensing region such that a gap is defined between the absorber stack and the sensing region, the absorber stack being configured to have a temperature that changes in a manner dependent upon absorbed infrared radiation and including a transducer element having an electrical resistance that depends on the temperature of the absorber, wherein the absorber stack includes a plurality of metallization layers interleaved with a plurality of insulating layers, wherein a bottom metallization layer of the plurality of metallization layers is configured as the transducer element, the bottom metallization layer being the lowermost layer in the absorber stack and being electrically connected to the wiring contacts on the substrate, and wherein the bottom metallization layer has a thickness of less than 5 nm.
A method for routing and mobility in a named data network, NDN, comprising: a first device having first content comprising identity and address space/location providing a registration to a first point of attachment, PoA; the first PoA forwarding the registration to a first service router serving the first PoA; the first service router responsively creating a local entry in a fast path table, FPT, by decoupling the identity from the address space/location; and the first service router registering the first device to a first local domain controller. a first device having first content comprising identity and address space/location providing a registration to a first point of attachment, PoA; the first PoA forwarding the registration to a first service router serving the first PoA; the first service router responsively creating a local entry in a fast path table, FPT, by decoupling the identity from the address space/location; and the first service router registering the first device to a first local domain controller.
A method for compiling a script for execution on a client device in an interactive television system comprising: receiving a HTML page containing at least one script from a service provider at a server; extracting the script from the HTML page in a filter; compiling the script into a client compatible code for execution at a client device; transmitting the compiled client compatible code to the client device; and executing the compiled client compatible code at the client device. receiving a HTML page containing at least one script from a service provider at a server; extracting the script from the HTML page in a filter; compiling the script into a client compatible code for execution at a client device; transmitting the compiled client compatible code to the client device; and executing the compiled client compatible code at the client device.
A composite fabric comprising a base fabric and at least one biopolymer layer, wherein said base fabric is a woven fabric comprising warp yarns and weft yarns (3,4) woven together, and having a front side and a back side, wherein a first plurality of warp yarns and at least one plurality of first weft yarns form a base layer of said base fabric, and characterised in that at least one second plurality of warp yarns and/or at least one plurality of second weft yarns forms an additional layer of loop portions on at least one of the sides (5,6) of said base fabric, wherein said at least one biopolymer layer is obtained from microorganisms and is provided at least on part of said additional layer.
A device comprising: a data input module configured to receive information about the living being's physiological signals, coordinates, and motion intensity; an activity recognition module configured to calculate, from information received about the living being's motion intensity, a living being's activity; a location recognition module, configured to calculate, from information received about the living being's coordinates, a living being's location; a memory storage to store information about said living being's physiological signals and said activities associated with said location; and characterized by further comprising a normalization parameters estimator module configured to calculate, from a plurality of physiological signal values associated with each detected activity and location, statistics of the distribution of the physiological signals values for each activity or a subset of activities and use a mathematical model to calculate a plurality of normalization parameters, depending on the location information; and a model selector-module configured to determine, from the plurality of normalization parameters and location information, a set of location-specific normalization parameters used to further calculate normalized physiological signals. a data input module configured to receive information about the living being's physiological signals, coordinates, and motion intensity; an activity recognition module configured to calculate, from information received about the living being's motion intensity, a living being's activity; a location recognition module, configured to calculate, from information received about the living being's coordinates, a living being's location; a memory storage to store information about said living being's physiological signals and said activities associated with said location; a normalization parameters estimator module configured to calculate, from a plurality of physiological signal values associated with each detected activity and location, statistics of the distribution of the physiological signals values for each activity or a subset of activities and use a mathematical model to calculate a plurality of normalization parameters, depending on the location information; and a model selector-module configured to determine, from the plurality of normalization parameters and location information, a set of location-specific normalization parameters used to further calculate normalized physiological signals.
A method of calibrating a printing apparatus comprising a plurality of print modules, the method comprising: printing a first plurality of test patches for each print module of the plurality of print modules; analysing the first plurality of test patches to identify at least two clusters of print modules, wherein each cluster comprises a sub-group of print modules having substantially similar performance (506, 508); printing a second plurality of test patches for each cluster of print modules, the second plurality of test patches being distributed across the print modules of the respective cluster; and analysing the second plurality of test patches for each cluster to determine a calibration parameter for the printing apparatus. printing a first plurality of test patches for each print module of the plurality of print modules; analysing the first plurality of test patches to identify at least two clusters of print modules, wherein each cluster comprises a sub-group of print modules having substantially similar performance (506, 508); printing a second plurality of test patches for each cluster of print modules, the second plurality of test patches being distributed across the print modules of the respective cluster; and analysing the second plurality of test patches for each cluster to determine a calibration parameter for the printing apparatus.
A medical lead (100, 200), comprising: a lead body; a filar with an openly coiled central portion (114, 214), wherein said openly coiled central portion of the filar is a coiled portion of the filar that is not surrounded by a protective tubular jacket but is instead itself the lead body; a distal body (102, 202) having an electrode (104, 106, 204, 206), with a distal portion of the filar passing through the distal body and being coupled to the electrode, wherein the distal body has at least one tine (108, 110, 208, 210) on a proximal end, wherein the filar has a linear distal end and wherein the distal body is molded onto a distal portion of the linear distal end of the filar. a lead body; a filar with an openly coiled central portion (114, 214), wherein said openly coiled central portion of the filar is a coiled portion of the filar that is not surrounded by a protective tubular jacket but is instead itself the lead body; a distal body (102, 202) having an electrode (104, 106, 204, 206), with a distal portion of the filar passing through the distal body and being coupled to the electrode, wherein the distal body has at least one tine (108, 110, 208, 210) on a proximal end, wherein the filar has a linear distal end and wherein the distal body is molded onto a distal portion of the linear distal end of the filar.
A system for providing cooling to an engine (10, 50), comprising: a fan bypass duct (34, 54) communicating with fan bypass air, said fan bypass duct (34, 54) having a fan bypass duct nozzle and disposed about a centerline of the engine (10, 50); characterized by a secondary bypass duct radially inwardly spaced from said fan bypass duct (34, 54), said secondary bypass duct having an inlet with a diffuser for decelerating air passing therethrough, said secondary bypass duct in communication with said fan bypass duct (34, 54) for directing a portion of the fan bypass air to said secondary bypass duct, said secondary bypass duct having an outlet in communication with the bypass air at a location downstream of a throat of said fan bypass duct nozzle; and comprising a secondary bypass duct nozzle disposed at said outlet of said secondary bypass duct; and one of a microchannel or minichannel heat exchanger (88, 90, 92, 94) disposed within said secondary bypass duct and orientated non-perpendicularly with respect to the centerline of the engine (10, 50), said one of a microchannel or minichannel heat exchanger (88, 90,92, 94) being in communication with a heat transfer fluid. a fan bypass duct (34, 54) communicating with fan bypass air, said fan bypass duct (34, 54) having a fan bypass duct nozzle and disposed about a centerline of the engine (10, 50); characterized by a secondary bypass duct radially inwardly spaced from said fan bypass duct (34, 54), said secondary bypass duct having an inlet with a diffuser for decelerating air passing therethrough, said secondary bypass duct in communication with said fan bypass duct (34, 54) for directing a portion of the fan bypass air to said secondary bypass duct, said secondary bypass duct having an outlet in communication with the bypass air at a location downstream of a throat of said fan bypass duct nozzle; and comprising a secondary bypass duct nozzle disposed at said outlet of said secondary bypass duct; and one of a microchannel or minichannel heat exchanger (88, 90, 92, 94) disposed within said secondary bypass duct and orientated non-perpendicularly with respect to the centerline of the engine (10, 50), said one of a microchannel or minichannel heat exchanger (88, 90,92, 94) being in communication with a heat transfer fluid.
A method of determining phasor components of a periodic waveform, wherein the method comprises: a) sampling the periodic waveform, b) determining a frequency spectrum of the sampled periodic waveform by means of a frequency transform utilizing a Gaussian window, wherein a ratio n p defined by the duration (T 0) of the sampling of the periodic waveform divided by the width (t w) of the Gaussian window is at least 5, where the Gaussian window is defined by the Gaussian function e^(-((t-T 0 /2)/t w)^ 2), where t w is the width of the Gaussian window and T 0 is the duration of the sampling of the periodic waveform, c) selecting a region of the frequency spectrum containing a frequency peak defined by a group of consecutive frequency bins (H0-H6) each being defined by a frequency value and a magnitude value, and d) determining phasor components of the periodic waveform based on the group of consecutive frequency bins (H0-H6). a) sampling the periodic waveform, b) determining a frequency spectrum of the sampled periodic waveform by means of a frequency transform utilizing a Gaussian window, wherein a ratio n p defined by the duration (T 0) of the sampling of the periodic waveform divided by the width (t w) of the Gaussian window is at least 5, where the Gaussian window is defined by the Gaussian function e^(-((t-T 0 /2)/t w)^ 2), where t w is the width of the Gaussian window and T 0 is the duration of the sampling of the periodic waveform, c) selecting a region of the frequency spectrum containing a frequency peak defined by a group of consecutive frequency bins (H0-H6) each being defined by a frequency value and a magnitude value, and d) determining phasor components of the periodic waveform based on the group of consecutive frequency bins (H0-H6).
Press cover in the form of a continuous belt or tube for a shoe press roll, comprising at least one polymer layer, wherein the polymer layer comprises or has been produced from a polyurethane, wherein the polyurethane has been formed from a prepolymer and a crosslinker, and the prepolymer is a reaction product of phenylene 1,4-diisocyanate (PPDI) and at least one polyol, characterized in that the polyol comprises caprolactone and carbonate, such as a polycaprolactone polycarbonate polyol.
Thermoelectric device at least comprising - at least one module having a first carrier layer and a second carrier layer, - an interspace between the first carrier layer and the second carrier layer, - an electrical insulation layer on the first carrier layer and on the second carrier layer toward the interspace, - a plurality of p- and n-doped semiconductor elements, which are arranged alternately in the interspace between the insulation layers and are alternately electrically connected to one another characterized in that the semiconductor elements are configured in annular fashion and are connected to the electrical insulation layer by an outer circumferential area and an inner circumferential area and wherein the p- and n-doped semiconductor elements are electrically connected to one another by means of a solder material on the electrical insulation layer and the p- and n-doped semiconductor elements each have current transfer areas of the same size. - at least one module having a first carrier layer and a second carrier layer, - an interspace between the first carrier layer and the second carrier layer, - an electrical insulation layer on the first carrier layer and on the second carrier layer toward the interspace, - a plurality of p- and n-doped semiconductor elements, which are arranged alternately in the interspace between the insulation layers and are alternately electrically connected to one another
A method for isolating one or more autologous T cells specific for an antigen of interest from a patient, comprising: (a) incubating a sample comprising T cells obtained from said patient with said antigen or a derivative thereof which retains the ability to elicit an immune reponse; (b) isolating T cells specific for said antigen by identifying cells that express one or more first markers selected from the group consisting of CD69, CD4, CD25, CD36 and HLADR and one or more second markers selected from the group consisting of IL-2, IFNγ, TNFα, IL-5, IL-10 and IL-13. (a) incubating a sample comprising T cells obtained from said patient with said antigen or a derivative thereof which retains the ability to elicit an immune reponse; (b) isolating T cells specific for said antigen by identifying cells that express one or more first markers selected from the group consisting of CD69, CD4, CD25, CD36 and HLADR and one or more second markers selected from the group consisting of IL-2, IFNγ, TNFα, IL-5, IL-10 and IL-13.
A signaling transmission method, comprising: configuring, by a first base station, a radio resource of an air interface connection between the first base station and a user equipment, UE, wherein the first base station performs control signaling interaction with the UE, by using a signaling radio bearer SRB3, which is different from any one of a signaling radio bearer SRB0, a signaling radio bearer SRB1, and a signaling radio bearer SRB2, wherein any signaling radio bearer of the SRB0, SRB1, and SRB2 is a signaling radio bearer that is used when another base station different from the first base station performs control signaling interaction with the UE, said another base station being responsible for controlling the UE to establish the signaling radio bearer SRB3 with the first base station; and sending, directly by the first base station, a configuration message to the UE by using the signaling radio bearer SRB3, wherein the configuration message comprises radio resource configuration of the air interface connection, wherein user data transmission exists between the first base station and the UE. configuring, by a first base station, a radio resource of an air interface connection between the first base station and a user equipment, UE, wherein the first base station performs control signaling interaction with the UE, by using a signaling radio bearer SRB3, which is different from any one of a signaling radio bearer SRB0, a signaling radio bearer SRB1, and a signaling radio bearer SRB2, wherein any signaling radio bearer of the SRB0, SRB1, and SRB2 is a signaling radio bearer that is used when another base station different from the first base station performs control signaling interaction with the UE, said another base station being responsible for controlling the UE to establish the signaling radio bearer SRB3 with the first base station; and sending, directly by the first base station, a configuration message to the UE by using the signaling radio bearer SRB3, wherein the configuration message comprises radio resource configuration of the air interface connection, wherein user data transmission exists between the first base station and the UE.
A ventilation system comprising: a plurality of ventilation devices each comprising a control device; a sensor (40, 40a) attached to a predetermined ventilation device among the plurality of ventilation devices, the sensor (40, 40a) detecting a state of air; wherein the plurality of ventilation devices include a first ventilation device (20-o) to which the sensor (40, 40a) is attached, and a second ventilation device (20-s) with which a detection signal of the sensor (40, 40a) is to be shared; characterized by a setting unit configured to set, from among the plurality of ventilation devices, the first ventilation device (20-o) and the second ventilation device (20-s); and a transmitter-receiver configured to receive the detection signal of the sensor (40, 40a) and transmit the detection signal to the control device of the first ventilation device (20-o) and the control device of the second ventilation device (20-s), the first ventilation device (20-o) and the second ventilation device (20-s) being set in the setting unit; wherein each of the control device of the first ventilation device (20-o) and the control device of the second ventilation device (20-s) is configured to control an associated one of the ventilation devices based on the detection signal transmitted from the transmitter-receiver. a plurality of ventilation devices each comprising a control device; a sensor (40, 40a) attached to a predetermined ventilation device among the plurality of ventilation devices, the sensor (40, 40a) detecting a state of air; wherein the plurality of ventilation devices include a first ventilation device (20-o) to which the sensor (40, 40a) is attached, and a second ventilation device (20-s) with which a detection signal of the sensor (40, 40a) is to be shared; characterized by a setting unit configured to set, from among the plurality of ventilation devices, the first ventilation device (20-o) and the second ventilation device (20-s); and a transmitter-receiver configured to receive the detection signal of the sensor (40, 40a) and transmit the detection signal to the control device of the first ventilation device (20-o) and the control device of the second ventilation device (20-s), the first ventilation device (20-o) and the second ventilation device (20-s) being set in the setting unit; wherein each of the control device of the first ventilation device (20-o) and the control device of the second ventilation device (20-s) is configured to control an associated one of the ventilation devices based on the detection signal transmitted from the transmitter-receiver.