mhurhangee/ep-ind-claims huggingface dataset:
A diagnostic assay for determining the level of a target analyte which is the Inhibitory subunit (cTnI) and/or the Tropomyosin binding subunit (cTnT) of cardiac Troponin (cTn) in a whole blood sample in which a sample fluid is filtered, comprising the steps of receiving the sample fluid; mixing the sample fluid with chymotrypsin to create the sample fluid mixture; the chymotrypsin breaking the target analyte in the sample fluid into at least two peptides that are smaller than the original target analyte, the at least two peptides comprising at least a first peptide and a second peptide, filtering a sample fluid mixture through a sample fluid filter, the sample fluid filter allowing at least the first peptide to flow there through and preventing at least the second peptide from flowing there through to produce a filtered sample fluid mixture; and determining an amount of the first peptide in the filtered sample fluid mixture, wherein the sample fluid is whole blood and further contains heparin, the heparin preventing red blood cells (RBCs) in the whole blood sample from clotting, the heparin binding to individual RBCs and to at least the second peptide but not the first peptide to form a bound compound; and wherein the sample fluid filter prevents the bound compounds from flowing there through and outputs plasma that is substantially free of RBCs.
A method for performing cell selection to a closed subscriber group, CSG, cell by a user equipment, UE, in a mobile communication system, the method comprising: receiving, by the UE, information about a neighbor cell list and information about the CSG cell, from a serving cell, the information about the CSG cell comprising an offset for measuring the CSG cell; performing, by the UE, measurement for at least one neighbor cell, based on the information about the neighbor cell list and the information about the CSG cell; determining, by the UE, a candidate cell based on the measurement; characterized by receiving cell selection-associated system information from the candidate cell; and selecting, based on the cell selection-associated system information, by the UE, the candidate cell in case that the UE identifies that the candidate cell is an accessible CSG cell and a CSG Identification, ID, in the cell selection-associated system information is included in a CSG list stored in the UE. in a mobile communication system, the method comprising: receiving, by the UE, information about a neighbor cell list and information about the CSG cell, from a serving cell, the information about the CSG cell comprising an offset for measuring the CSG cell; performing, by the UE, measurement for at least one neighbor cell, based on the information about the neighbor cell list and the information about the CSG cell; determining, by the UE, a candidate cell based on the measurement; characterized by receiving, by the UE, information about a neighbor cell list and information about the CSG cell, from a serving cell, the information about the CSG cell comprising an offset for measuring the CSG cell; performing, by the UE, measurement for at least one neighbor cell, based on the information about the neighbor cell list and the information about the CSG cell; determining, by the UE, a candidate cell based on the measurement; characterized by receiving cell selection-associated system information from the candidate cell; and selecting, based on the cell selection-associated system information, by the UE, the candidate cell in case that the UE identifies that the candidate cell is an accessible CSG cell and a CSG Identification, ID, in the cell selection-associated system information is included in a CSG list stored in the UE.
A method of configuring uplink power control at a user equipment, UE, comprising: receiving, at the UE, uplink power control information from a base station, wherein the uplink power control information includes a first set of power control parameters for a long uplink burst and a second set of power control parameters for a short uplink burst, and wherein the first set of power control parameters are different from the second set of power control parameters; configuring, by the UE, uplink power control for the long uplink burst based at least on the first set of power control parameters and the short uplink burst based at least on the second set of power control parameters; sending, by the UE, at least one of a long uplink burst and a short uplink burst based on the corresponding uplink power control; and sending, by the UE, at least one uplink power-headroom report for the long uplink burst and the short uplink burst. receiving, at the UE, uplink power control information from a base station, wherein the uplink power control information includes a first set of power control parameters for a long uplink burst and a second set of power control parameters for a short uplink burst, and wherein the first set of power control parameters are different from the second set of power control parameters; configuring, by the UE, uplink power control for the long uplink burst based at least on the first set of power control parameters and the short uplink burst based at least on the second set of power control parameters; sending, by the UE, at least one of a long uplink burst and a short uplink burst based on the corresponding uplink power control; and sending, by the UE, at least one uplink power-headroom report for the long uplink burst and the short uplink burst.
Control valve device for an electric parking mechanism of a vehicle, particularly a utility vehicle, such that the control valve device comprises a first working port, a second working port, a third working port, a housing, a housing chamber, a cylinder space, a switching piston guided to move in the cylinder space of the housing, and a spring by means of which the switching piston is spring-loaded, characterised in that the housing chamber is connected to the third working port and, further, the control valve device comprises a two-part pressure space to the first part-space of which the first working port and to the second part-space of which the second working port are respectively connected, so that in a first switching condition of the control valve device the first part-space of the two-part pressure space is disconnected from the second part-space and from the housing chamber, in particular in a fluid-tight manner, whereas in a second switching condition the first part-space of the two-part pressure space is connected to the second part-space and to the housing chamber.
A method for the identification of unknown microbes in a sample, wherein a mass spectrometric determination down to the taxonomic level of the genus or species is supplemented by a detailed determination of at least one lower taxonomic level or variety by means of infrared spectrometry, where a genus- or species-restricted library of reference IR spectra is used for the detailed determination of the lower taxonomic level or variety.
Inductive rotational speed sensor which comprises the following features: - a coil body having a coil and connecting lines which in terms of the coil windings at least partially extend axially or radially; - a casing which is of a plastics material and at least partially encloses the coil body; and - fixing means (150, 160) for facilitating a configuration of the casing, wherein the fixing means (150, 160) comprise the following: an anti-twist safeguard which projects from the coil body in the radial direction and is configured so as to prevent the coil body rotating relative to a tool used for configuring the casing while the latter is being configured, wherein the anti-twist safeguard partially protrudes from the casing, or extends at least up to an external surface of the casing, characterized in that the casing has external ribs which are configured on an external surface and are suitable for clamping a sleeve of an external protective sleeve, wherein the anti-twist safeguard is part of a portion of a rib. - a coil body having a coil and connecting lines which in terms of the coil windings at least partially extend axially or radially; - a casing which is of a plastics material and at least partially encloses the coil body; and - fixing means (150, 160) for facilitating a configuration of the casing, wherein the fixing means (150, 160) comprise the following: an anti-twist safeguard which projects from the coil body in the radial direction and is configured so as to prevent the coil body rotating relative to a tool used for configuring the casing while the latter is being configured, wherein the anti-twist safeguard partially protrudes from the casing, or extends at least up to an external surface of the casing, characterized in that the casing has external ribs which are configured on an external surface and are suitable for clamping a sleeve of an external protective sleeve, wherein the anti-twist safeguard is part of a portion of a rib. an anti-twist safeguard which projects from the coil body in the radial direction and is configured so as to prevent the coil body rotating relative to a tool used for configuring the casing while the latter is being configured, wherein the anti-twist safeguard partially protrudes from the casing, or extends at least up to an external surface of the casing, characterized in that the casing has external ribs which are configured on an external surface and are suitable for clamping a sleeve of an external protective sleeve, wherein the anti-twist safeguard is part of a portion of a rib.
Device for operating LEDs, comprising a driver module and an LED module controlled by the driver module with at least two LEDs (LED1, LED2), wherein the LEDs are so positioned that a second LED receives at least part of the light emitted by a first LED, - wherein the driver module contains a switching regulator, - wherein the switching regulator is designed to supply a series connection to the at least two LEDs (LED1, LED2), - wherein the switching regulator is also so designed that it controls a first LED at least in one operating mode, so that it is traversed by a current and thereby emits light, and - wherein the device comprises a detection circuit, by means of which an operating parameter of the LED module may be detected through a measurement in the operating mode, and - wherein the device is further characterized in that - a controllable switch is arranged parallel to the second LED, wherein the controllable switch is designed to bridge the second LED in the operating mode upon closing, wherein the second LED, which receives at least a part of the light of the first LED, is used in a reverse operation as a photodiode, - the current through the second LED in the operating mode is detected as the operating parameter by means of the detection circuit, and - a decoupling member is arranged in series with the second LED, wherein the second LED may be separated from the switching regulator during the bridging period. - wherein the driver module contains a switching regulator, - wherein the switching regulator is designed to supply a series connection to the at least two LEDs (LED1, LED2), - wherein the switching regulator is also so designed that it controls a first LED at least in one operating mode, so that it is traversed by a current and thereby emits light, and - wherein the device comprises a detection circuit, by means of which an operating parameter of the LED module may be detected through a measurement in the operating mode, and - wherein the device is further characterized in that - a controllable switch is arranged parallel to the second LED, wherein the controllable switch is designed to bridge the second LED in the operating mode upon closing, wherein the second LED, which receives at least a part of the light of the first LED, is used in a reverse operation as a photodiode, - the current through the second LED in the operating mode is detected as the operating parameter by means of the detection circuit, and - a decoupling member is arranged in series with the second LED, wherein the second LED may be separated from the switching regulator during the bridging period.
A steaming device comprising a steam generator having a heated surface, a pump configured to direct water against the heated surface to generate steam, an orientation detector to detect orientation of the heated surface and a control unit, characterised in that the control unit is configured to operate the pump at a lower flow rate when the heated surface is detected to be in a second orientation than when the heated surface is detected to be in a first orientation, and wherein the first orientation is when the heated surface lies in a horizontal plane, and the second orientation is when the heated surface lies in a plane that is at an inclined angle relative to the horizontal plane, such that the control unit is configured to decrease the flow rate of the pump as the heated surface moves from being parallel to a horizontal plane to being inclined to the horizontal plane, thereby to produce steam irrespective of orientation.
An auxiliary apparatus for a lighthouse positioning system, the lighthouse positioning system comprising a first positioning base station and a second positioning base station, the first positioning base station comprising a first signal transmitter for transmitting a synchronous light signal and a second signal transmitter for transmitting a light signal, the second positioning base station comprising a first signal transmitter for transmitting a synchronous light signal and a second signal transmitter for transmitting a light signal, and characterised by the auxiliary apparatus comprising: a processor, being configured to calculate a first signal time sequence (10a, 10c) of the first signal transmitters (131, 151) according to a plurality of sets of first sensed signals (12a,...12b), calculate a second signal time sequence (10b, 10d) of the second signal transmitters (133, 155) according to a plurality of sets of second sensed signals, (14a,...14b) and determine a third signal time sequence according to the first signal time sequence (10a, 10c) and the second signal time sequence (10b, 10d), wherein each set of first sensed signals (12a,...12b) is sensed synchronous light signals from one of the first signal transmitters (131 or 151), each set of second sensed signals (14a,...14b) is sensed light signals from one of the second signal transmitters (133, 155), and the third signal time sequence is not overlapped with the first signal time sequence (10a, 10c) and the second signal time sequence (10b, 10d); and a signal transmitter of a depth measuring apparatus, the signal transmitter being electrically connected with the processor and configured to transmit a plurality of light signals according to the third signal time sequence. a processor, being configured to calculate a first signal time sequence (10a, 10c) of the first signal transmitters (131, 151) according to a plurality of sets of first sensed signals (12a,...12b), calculate a second signal time sequence (10b, 10d) of the second signal transmitters (133, 155) according to a plurality of sets of second sensed signals, (14a,...14b) and determine a third signal time sequence according to the first signal time sequence (10a, 10c) and the second signal time sequence (10b, 10d), wherein each set of first sensed signals (12a,...12b) is sensed synchronous light signals from one of the first signal transmitters (131 or 151), each set of second sensed signals (14a,...14b) is sensed light signals from one of the second signal transmitters (133, 155), and the third signal time sequence is not overlapped with the first signal time sequence (10a, 10c) and the second signal time sequence (10b, 10d); and a signal transmitter of a depth measuring apparatus, the signal transmitter being electrically connected with the processor and configured to transmit a plurality of light signals according to the third signal time sequence.
A method for modifying a control rule for a service or application in a Policy and Charging Control, PCC, architecture, the method executed by a control server and comprising the steps of: determining (S-805) a first control rule for a service or application, both hereinafter indistinctly referred to as the service, wherein the first control rule comprises a plurality of parameters to be used for enforcement of the first control rule for the service, and wherein the plurality of parameters include a monitoring key for the service; submitting (S-810) the first control rule to an enforcing device (4, 20); determining (S-215) a further control rule for a further service or application, both hereinafter indistinctly referred to as the further service, wherein the further control rule comprises the monitoring key amongst a plurality of further parameters to be used for enforcement of the further control rule for the further service; submitting (S-220) the further control rule to the enforcing device; upon determining (S-225) that the monitoring key, amongst the plurality of parameters, is no longer applicable for the first control rule but is still applicable for the further control rule, determining (S-820, S-230) a modified control rule that includes a removal indicator indicating the monitoring key to be removed for the first control rule and not for the further control rule previously submitted; and submitting (S-825) the modified control rule to the enforcing device. determining (S-805) a first control rule for a service or application, both hereinafter indistinctly referred to as the service, wherein the first control rule comprises a plurality of parameters to be used for enforcement of the first control rule for the service, and wherein the plurality of parameters include a monitoring key for the service; submitting (S-810) the first control rule to an enforcing device (4, 20); determining (S-215) a further control rule for a further service or application, both hereinafter indistinctly referred to as the further service, wherein the further control rule comprises the monitoring key amongst a plurality of further parameters to be used for enforcement of the further control rule for the further service; submitting (S-220) the further control rule to the enforcing device; upon determining (S-225) that the monitoring key, amongst the plurality of parameters, is no longer applicable for the first control rule but is still applicable for the further control rule, determining (S-820, S-230) a modified control rule that includes a removal indicator indicating the monitoring key to be removed for the first control rule and not for the further control rule previously submitted; and submitting (S-825) the modified control rule to the enforcing device.
A delivery system for transcatheter implantation of a heart valve prosthesis comprising: an outer sheath component defining a lumen therethrough; an elongate tube having at least two wires longitudinally extending from a distal end thereof, the elongate tube and the at least two wires being slidably disposed within the lumen of the outer sheath component; an inner shaft slidably disposed within the elongate tube; and self-expanding first and second frames (102, 104) disposed in series within a distal portion of the outer sheath component and held in a compressed delivery configuration therein, the first frame being distal of the second frame and a proximal end of the second frame being attached to the inner shaft to be slidable therewith, wherein in the compressed delivery configuration the at least two wires longitudinally extend along exterior portions of the first and second frames (102, 104) and are woven through adjacent ends of the first and second frames (102, 104) to releasably couple them to each other. an outer sheath component defining a lumen therethrough; an elongate tube having at least two wires longitudinally extending from a distal end thereof, the elongate tube and the at least two wires being slidably disposed within the lumen of the outer sheath component; an inner shaft slidably disposed within the elongate tube; and self-expanding first and second frames (102, 104) disposed in series within a distal portion of the outer sheath component and held in a compressed delivery configuration therein, the first frame being distal of the second frame and a proximal end of the second frame being attached to the inner shaft to be slidable therewith, wherein in the compressed delivery configuration the at least two wires longitudinally extend along exterior portions of the first and second frames (102, 104) and are woven through adjacent ends of the first and second frames (102, 104) to releasably couple them to each other.
Method for operating a converter, particularly a multilevel converter, which has at least two module arms equipped with sub-modules, - a current - termed first current harmonic in the following - being generated by activating the sub-modules in the module arms in each case, which current has a predetermined fundamental frequency, and - an additional circulating current - termed second current harmonic in the following - flowing within the converter, being generated by activating the sub-modules, which additional circulating current has double the fundamental frequency, an additional circulating current - termed fourth current harmonic in the following - flowing within the converter, being generated by activating the sub-modules, which additional circulating current has four-times the fundamental frequency, characterized in that the second current harmonic is multiplied by a polarity sign of the DC component (Izdc) of a respective arm current (Iz) and injected in the cosine system in phase to the first current harmonic and the fourth current harmonic is multiplied by the inverse polarity sign of the DC component (Izdc) of the respective arm current (Iz) and injected in the cosine system in phase to the first current harmonic, wherein a maximum magnitude value of a natural arm current is reduced by an amplitude value of the fourth current harmonic. - a current - termed first current harmonic in the following - being generated by activating the sub-modules in the module arms in each case, which current has a predetermined fundamental frequency, and - an additional circulating current - termed second current harmonic in the following - flowing within the converter, being generated by activating the sub-modules, which additional circulating current has double the fundamental frequency, an additional circulating current - termed fourth current harmonic in the following - flowing within the converter, being generated by activating the sub-modules, which additional circulating current has four-times the fundamental frequency, characterized in that the second current harmonic is multiplied by a polarity sign of the DC component (Izdc) of a respective arm current (Iz) and injected in the cosine system in phase to the first current harmonic and the fourth current harmonic is multiplied by the inverse polarity sign of the DC component (Izdc) of the respective arm current (Iz) and injected in the cosine system in phase to the first current harmonic, wherein a maximum magnitude value of a natural arm current is reduced by an amplitude value of the fourth current harmonic.