mhurhangee/patent-ind-claim-en huggingface dataset:
A method of improving accuracy of analyte level measurement of an in vivo positioned analyte sensor, the method comprising: collecting signal data from an in vivo positioned analyte sensor over a period of time, wherein the signal data is indicative of analyte levels; analyzing the collected signal data and identifying signal data points that occur most frequently within the collected data; correlating said identified signal data points to a normal physiological level for the analyte, the identified signal data points being taken from the signal data collected from the in vivo positioned analyte sensor; and deriving analyte levels from the collected signal data using the identified signal data points as a reference point for the normal physiological level of the analyte for a user of the in vivo positioned analyte sensor. collecting signal data from an in vivo positioned analyte sensor over a period of time, wherein the signal data is indicative of analyte levels; analyzing the collected signal data and identifying signal data points that occur most frequently within the collected data; correlating said identified signal data points to a normal physiological level for the analyte, the identified signal data points being taken from the signal data collected from the in vivo positioned analyte sensor; and deriving analyte levels from the collected signal data using the identified signal data points as a reference point for the normal physiological level of the analyte for a user of the in vivo positioned analyte sensor.
A method for data transmission, comprising: transmitting , by a first transmission node, data on n orthogonal frequency-division multiplexing, OFDM symbols, wherein the data comprises more than 1 bit, the data is encoded and then mapped onto the n OFDM symbols, and n is an integer greater than 1, wherein a first OFDM symbol of the n OFDM symbols is provided with a first cyclic prefix, CP, OFDM symbols other than the first OFDM symbol of the n OFDM symbols are provided with no CP or respective second CPs of two or more types, and a length of the first CP is greater than or equal to a length of each second CP of the second CPs; wherein the first transmission node determines a transmission manner according to configuration information and a predefined rule in a current system, wherein the predefined rule comprises selection of the transmission manner by the first transmission node according to a size of transmission data or a size of a buffer scheduling request, BSR, and, retransmission corresponding to the transmission data; wherein the transmission manner is non-scheduled transmission. transmitting , by a first transmission node, data on n orthogonal frequency-division multiplexing, OFDM symbols, wherein the data comprises more than 1 bit, the data is encoded and then mapped onto the n OFDM symbols, and n is an integer greater than 1, wherein a first OFDM symbol of the n OFDM symbols is provided with a first cyclic prefix, CP, OFDM symbols other than the first OFDM symbol of the n OFDM symbols are provided with no CP or respective second CPs of two or more types, and a length of the first CP is greater than or equal to a length of each second CP of the second CPs; wherein the first transmission node determines a transmission manner according to configuration information and a predefined rule in a current system, wherein the predefined rule comprises selection of the transmission manner by the first transmission node according to a size of transmission data or a size of a buffer scheduling request, BSR, and, retransmission corresponding to the transmission data; wherein the transmission manner is non-scheduled transmission.
A sheet folding device , comprising: folding rails which are disposed along a transfer direction (D) in which a corrugated board (S) is being transferred on both sides in the transfer direction; guide plates which are disposed on downstream sides of the folding rails along the transfer direction (D) on both sides in the transfer direction (D); a gauge roller group is disposed outside both the folding rails and the guide plates in a width direction orthogonal to the transfer direction (D), the gauge roller group including a plurality of gauge rollers arranged along the transfer direction (D); a folding rail adjustment device configured to adjust positions of the folding rails in the width direction; and a gauge roller adjustment device configured to adjust a position of at least the gauge roller of the gauge roller group , which is disposed to face the folding rail , in the width direction, wherein the folding rails , the guide plates , and the gauge roller group are configured to bend and fold both end portions of the corrugated board (S) in the width direction while the corrugated board (S) is transferred, characterized in that the gauge roller adjustment device rotates the arrangement of some of the gauge rollers on an upstream side of the transfer direction (D) about one of the some of the gauge rollers on a downstream side of the transfer direction (D) with respect to the folding rail , the one of the some of the gauge rollers serving as a supporting point (105a; 105b). folding rails which are disposed along a transfer direction (D) in which a corrugated board (S) is being transferred on both sides in the transfer direction; guide plates which are disposed on downstream sides of the folding rails along the transfer direction (D) on both sides in the transfer direction (D); a gauge roller group is disposed outside both the folding rails and the guide plates in a width direction orthogonal to the transfer direction (D), the gauge roller group including a plurality of gauge rollers arranged along the transfer direction (D); a folding rail adjustment device configured to adjust positions of the folding rails in the width direction; and a gauge roller adjustment device configured to adjust a position of at least the gauge roller of the gauge roller group , which is disposed to face the folding rail , in the width direction, wherein the folding rails , the guide plates , and the gauge roller group are configured to bend and fold both end portions of the corrugated board (S) in the width direction while the corrugated board (S) is transferred, characterized in that the gauge roller adjustment device rotates the arrangement of some of the gauge rollers on an upstream side of the transfer direction (D) about one of the some of the gauge rollers on a downstream side of the transfer direction (D) with respect to the folding rail , the one of the some of the gauge rollers serving as a supporting point (105a; 105b).
An image processing apparatus, comprising: a scanner that acquires an image ; and a processor that: changes areas of a plurality of first and second dot patterns in accordance with gradation values in the image using first and second dither matrices, respectively, the first dither matrix including first thresholds and the second dither matrix including second thresholds, and generates a binary image based on the plurality of dot patterns, characterized in that the first and second thresholds are such that, when the plurality of first thresholds included in the first dither matrix and the plurality of second thresholds included in the second dither matrix are respectively lined up in order from the highlight side to the shadow side: the change in the first thresholds is less than the change in the second thresholds on a highlight side of an intermediate gradation, and the change in the first thresholds is greater than the change in the second thresholds on a shadow side of the intermediate gradation. a scanner that acquires an image ; and a processor that: changes areas of a plurality of first and second dot patterns in accordance with gradation values in the image using first and second dither matrices, respectively, the first dither matrix including first thresholds and the second dither matrix including second thresholds, and generates a binary image based on the plurality of dot patterns, characterized in that the first and second thresholds are such that, when the plurality of first thresholds included in the first dither matrix and the plurality of second thresholds included in the second dither matrix are respectively lined up in order from the highlight side to the shadow side: the change in the first thresholds is less than the change in the second thresholds on a highlight side of an intermediate gradation, and the change in the first thresholds is greater than the change in the second thresholds on a shadow side of the intermediate gradation. changes areas of a plurality of first and second dot patterns in accordance with gradation values in the image using first and second dither matrices, respectively, the first dither matrix including first thresholds and the second dither matrix including second thresholds, and generates a binary image based on the plurality of dot patterns, the change in the first thresholds is less than the change in the second thresholds on a highlight side of an intermediate gradation, and the change in the first thresholds is greater than the change in the second thresholds on a shadow side of the intermediate gradation.
A method for receiving a data channel by a user equipment, UE, in a wireless communication system, the method comprising: receiving (S1510), from a base station, BS , configuration information which includes information for a multiplexing scheme based on single DCI related to Multiple-Transmission and Reception Points, TRPs, receiving (S1520), from the BS , downlink control information, DCI, wherein the DCI includes i) a transmission configuration indication, TCI, field and ii) an antenna port field; and receiving (S1530), from the BS , the data channel based on the DCI, wherein multiple TCI states are indicated based on the TCI field, a demodulation reference signal, DM-RS, port is indicated based on the antenna port field, wherein the data channel is received based on the multiplexing scheme related to the DCI, wherein the multiplexing scheme is based on at least one of i) a Time Division Multiplexing, TDM, scheme, ii) a Frequency Division Multiplexing, FDM, scheme, or iii) a Spatial Division Multiplexing, SDM, scheme, wherein the multiplexing scheme is determined based on the number of code division multiplexing, CDM, groups including a DM-RS port in which the data channel is received, wherein, based on the number of CDM groups being two or more, the multiplexing scheme is determined as the SDM scheme, wherein, based on the number of CDM groups being one, the multiplexing scheme is determined as a scheme other than the SDM scheme, wherein, based on the configuration information, the scheme other than the SDM scheme is determined as the TDM scheme or the FDM scheme. receiving (S1510), from a base station, BS , configuration information which includes information for a multiplexing scheme based on single DCI related to Multiple-Transmission and Reception Points, TRPs, receiving (S1520), from the BS , downlink control information, DCI, wherein the DCI includes i) a transmission configuration indication, TCI, field and ii) an antenna port field; and receiving (S1530), from the BS , the data channel based on the DCI, wherein multiple TCI states are indicated based on the TCI field, a demodulation reference signal, DM-RS, port is indicated based on the antenna port field, wherein the data channel is received based on the multiplexing scheme related to the DCI, wherein the multiplexing scheme is based on at least one of i) a Time Division Multiplexing, TDM, scheme, ii) a Frequency Division Multiplexing, FDM, scheme, or iii) a Spatial Division Multiplexing, SDM, scheme, wherein the multiplexing scheme is determined based on the number of code division multiplexing, CDM, groups including a DM-RS port in which the data channel is received, wherein, based on the number of CDM groups being two or more, the multiplexing scheme is determined as the SDM scheme, wherein, based on the number of CDM groups being one, the multiplexing scheme is determined as a scheme other than the SDM scheme, wherein, based on the configuration information, the scheme other than the SDM scheme is determined as the TDM scheme or the FDM scheme.
A method for detecting a fault in a differential sensor arrangement , the method comprising: modulating at least one physical parameter of the differential sensor arrangement by a configuration value , wherein the at least one physical parameter of the differential sensor arrangement is modulated during operation of the differential sensor arrangement ; comparing an output of the differential sensor arrangement with a reference output related to the modulated at least one physical parameter, wherein the output is a modulated output using a modulation of a first physical parameter of the differential sensor arrangement with a first configuration value and the reference output is a modulated output using a modulation of the first physical parameter of the differential sensor arrangement with a second configuration value or wherein the output is a modulated output using a modulation of a first physical parameter of the differential sensor arrangement and the reference output is a modulated output using a modulation of a second physical parameter of the differential sensor arrangement ; and detecting a fault based on the comparison, wherein the fault is detected when the output deviates from the reference output . modulating at least one physical parameter of the differential sensor arrangement by a configuration value , wherein the at least one physical parameter of the differential sensor arrangement is modulated during operation of the differential sensor arrangement ; comparing an output of the differential sensor arrangement with a reference output related to the modulated at least one physical parameter, wherein the output is a modulated output using a modulation of a first physical parameter of the differential sensor arrangement with a first configuration value and the reference output is a modulated output using a modulation of the first physical parameter of the differential sensor arrangement with a second configuration value or wherein the output is a modulated output using a modulation of a first physical parameter of the differential sensor arrangement and the reference output is a modulated output using a modulation of a second physical parameter of the differential sensor arrangement ; and wherein the output is a modulated output using a modulation of a first physical parameter of the differential sensor arrangement with a first configuration value and the reference output is a modulated output using a modulation of the first physical parameter of the differential sensor arrangement with a second configuration value or wherein the output is a modulated output using a modulation of a first physical parameter of the differential sensor arrangement and the reference output is a modulated output using a modulation of a second physical parameter of the differential sensor arrangement ; and detecting a fault based on the comparison, wherein the fault is detected when the output deviates from the reference output .
A hard caramel containing isomaltulose in an amount of 50 to 100 wt.%, based on the total dry substance of the hard caramel, wherein the hard caramel has a core and a closed microcrystalline surface layer with a thickness of at most 1 mm and wherein the hard caramel may comprise at least one excipient or additive.
A foldable electronic device, comprising: a shaft cover and a device body ; a first swing arm connecting the shaft cover and the device body and configured to be rotatable around a first axis (C1) that is inside the shaft cover , so that the device body is folded or unfolded around the first axis (C1); a second swing arm distributed in parallel to the first swing arm in a direction of the first axis (C1) and coupled to a damping component that is inside the shaft cover ; and a pin connecting the first swing arm and the second swing arm at an end close to the device body , so that the second swing arm follows the first swing arm to rotate around a second axis (C2) that is inside the shaft cover when the first swing arm rotates, and transmits a damping force produced by the damping component to the first swing arm through the pin , wherein the first axis (C1) is parallel to the second axis (C2); wherein the first swing arm further comprises an annular groove protruding toward the second swing arm ; the second swing arm further comprises a boss protruding toward the first swing arm ; and the boss is embedded into the annular groove in an axial direction of the pin , so that the boss and the annular groove bear part of the damping force when the second swing arm follows the first swing arm to rotate. a shaft cover and a device body ; a first swing arm connecting the shaft cover and the device body and configured to be rotatable around a first axis (C1) that is inside the shaft cover , so that the device body is folded or unfolded around the first axis (C1); a second swing arm distributed in parallel to the first swing arm in a direction of the first axis (C1) and coupled to a damping component that is inside the shaft cover ; and a pin connecting the first swing arm and the second swing arm at an end close to the device body , so that the second swing arm follows the first swing arm to rotate around a second axis (C2) that is inside the shaft cover when the first swing arm rotates, and transmits a damping force produced by the damping component to the first swing arm through the pin , wherein the first axis (C1) is parallel to the second axis (C2); wherein the first swing arm further comprises an annular groove protruding toward the second swing arm ; the second swing arm further comprises a boss protruding toward the first swing arm ; and the boss is embedded into the annular groove in an axial direction of the pin , so that the boss and the annular groove bear part of the damping force when the second swing arm follows the first swing arm to rotate.
A method for identifying whether a subject suffering from a BRAF-positive cancer, wherein said BRAF-positive cancer is comprised of a cell population derived from a single cell clone, is a non-responder to a BRAF inhibitor, or not, and/or is a responder to an MAPK/ERK inhibitor comprising the steps of: (a) determining the presence or absence of at least one mutation in at least the NRAS gene in a sample of the subject; and (b) identifying the subject as a non-responder to a BRAF inhibitor and a responder to a MAPK/ERK inhibitor if the at least one mutation in the NRAS gene has been determined. (a) determining the presence or absence of at least one mutation in at least the NRAS gene in a sample of the subject; and (b) identifying the subject as a non-responder to a BRAF inhibitor and a responder to a MAPK/ERK inhibitor if the at least one mutation in the NRAS gene has been determined.
An extruder for extrusion of material, the extruder comprising a screw , a barrel , and a controller, the barrel comprising a barrel inlet for receiving an amount of the material and a barrel outlet, , wherein at least a section of the screw is conical and wherein at last a section of the barrel is conical and wherein the screw and the barrel are formed such that the screw can be positioned in the barrel so that the conical section of the screw fits in the conical section of the barrel with in between the barrel and the screw a leakage gap through which the material can pass, wherein the extruder is configured such that, during operation, rotation of the screw advances the material, which is added to the barrel inlet , towards the barrel outlet , wherein the extruder is adapted for displacing the screw in an axial direction of the screw , such that by an axial displacement of the screw with regard to the barrel the size of the leakage gap between the screw and the barrel is modified, wherein the extruder comprises a force sensor for measuring the upward force on the screw, the upward force acting in a direction parallel with the axial direction, characterized in that the extruder is adapted for obtaining operational characteristics and that the controller is adapted for controlling the axial displacement of the screw , during operation of the extruder , as a function of the operational characteristics of which at least one is an upward force on the screw. the barrel comprising a barrel inlet for receiving an amount of the material and a barrel outlet, , wherein at least a section of the screw is conical and wherein at last a section of the barrel is conical and wherein the screw and the barrel are formed such that the screw can be positioned in the barrel so that the conical section of the screw fits in the conical section of the barrel with in between the barrel and the screw a leakage gap through which the material can pass, wherein the extruder is configured such that, during operation, rotation of the screw advances the material, which is added to the barrel inlet , towards the barrel outlet , wherein the extruder is adapted for displacing the screw in an axial direction of the screw , such that by an axial displacement of the screw with regard to the barrel the size of the leakage gap between the screw and the barrel is modified, wherein the extruder comprises a force sensor for measuring the upward force on the screw, the upward force acting in a direction parallel with the axial direction, characterized in that the extruder is adapted for obtaining operational characteristics and that the controller is adapted for controlling the axial displacement of the screw , during operation of the extruder , as a function of the operational characteristics of which at least one is an upward force on the screw.
A nacelle for an engine of the bypass turbojet engine type disposed along a main axis, comprising starting from a front side an annular flow path for receiving fresh air from a fan, then a thrust reverser system provided with at least one cowl movable axially between a direct jet front position, and a reverse jet rear position which tilts pivoting flaps while closing the annular flow path at least partially, and which opens lateral openings of this annular flow path upstream of the pivoting flaps , equipped with reverser cascades returning the cold air flow towards the outside forwards, characterized in that each movable cowl includes a control sector sliding in a transverse plane relative to the main axis, includes a transmission device connecting a fixed portion of the nacelle to this control sector to make it slide towards a reversal position when the movable cowl is recoiled, and includes flap tie-rods connecting this control sector to the pivoting flaps disposed in front of the movable cowl , which tilt these flaps while closing the annular flow path when sliding the control sector towards its reversal position.
Transport container for helium (He), with an inner container for accommodating the helium (He), a coolant container for accommodating a cryogenic fluid (N2), an outer container in which the inner container and the coolant container are accommodated, a thermal shield in which the inner container is accommodated and which is actively coolable with the aid of the cryogenic fluid (N2), wherein the thermal shield has at least one cooling line which is in fluidic connection with the coolant container and in which the cryogenic fluid (N2) can be accommodated for the active cooling of the thermal shield , characterized by at least one return line , with the aid of which the at least one cooling line is in fluidic connection with the coolant container in order to return the cryogenic fluid (N2) to the coolant container .