mhurhangee/ep-ind-claims huggingface dataset:
A glucagon-like peptide 2 (GLP-2) analogue for use in a method for the treatment of short bowel syndrome in a human subject receiving a parenteral support regimen, wherein the treatment comprises adjusting a volume of parenteral support each week by: (i) administering to the subject a GLP-2 analogue for a time sufficient to grow and/or improve the function of the small intestine of the subject; (ii) following step (i), reducing a volume of the parenteral support regimen in response to improved function of the small intestine; and (iii) optionally repeating steps (i) and (ii) in response to the subject demonstrating improved function over time as a result of further growth of the small intestine; wherein in the above method, step (ii) comprises the steps of: (a) determining the current weekly volume of PS required by the subject at that point in the treatment; (b) measuring a current urine volume produced by the subject and comparing the current urine volume to a baseline urine volume determined at the start of the GLP-2 therapy to determine an absolute increase in urine production per day; and (c) reducing the volume of the PS where the subject demonstrates improved function of the small intestine as indicated by an absolute increase in urine production per day; wherein the new reduced weekly calculated PS volume for the subject equals the current weekly PS volume minus 7 times the absolute increase in daily urine volume from baseline; wherein the method comprises administering the calculated PS volume to the subject; and wherein the method comprises an initial step of determining the baseline urine volume and/or determining the daily urine volume of the subject. (i) administering to the subject a GLP-2 analogue for a time sufficient to grow and/or improve the function of the small intestine of the subject; (ii) following step (i), reducing a volume of the parenteral support regimen in response to improved function of the small intestine; and (iii) optionally repeating steps (i) and (ii) in response to the subject demonstrating improved function over time as a result of further growth of the small intestine; (a) determining the current weekly volume of PS required by the subject at that point in the treatment; (b) measuring a current urine volume produced by the subject and comparing the current urine volume to a baseline urine volume determined at the start of the GLP-2 therapy to determine an absolute increase in urine production per day; and (c) reducing the volume of the PS where the subject demonstrates improved function of the small intestine as indicated by an absolute increase in urine production per day; wherein the new reduced weekly calculated PS volume for the subject equals the current weekly PS volume minus 7 times the absolute increase in daily urine volume from baseline; wherein the method comprises administering the calculated PS volume to the subject; and wherein the method comprises an initial step of determining the baseline urine volume and/or determining the daily urine volume of the subject.
A system for modulating an output current level of a bidirectional power converter connected to a grid to ensure an adequate level of power is provided to or from a motor drive, the system comprising: the bidirectional power converter interfacing the motor drive and the power grid, the motor drive connected to a direct current side of the power converter, the grid connected to an alternating current side of the power converter, a current controller arranged to receive a reference current input indicative of a current flowing through the power converter and arranged to output an adjusted grid current value, wherein the current controller is configured to monitor a reference signal provided by a voltage controller of the direct current link of the motor drive and a grid side current; a parameter calculation module that is configured to calculate a plurality of gain values based at least in part on a phase margin of the current controller, a cross-over frequency of the current controller, and a current of an alternating current side of the power converter, wherein the current controller generates the adjusted grid current value by applying one or more of the gain values to the error between the grid side current and the reference current value; a perturbation module that is configured to provide a sinusoidal signal, at a single frequency which is a cross-over frequency of the current controller, wherein the adjusted grid current value output by the current controller is modulated with the sinusoidal signal to provide a duty cycle to regulate the power converter. the bidirectional power converter interfacing the motor drive and the power grid, the motor drive connected to a direct current side of the power converter, the grid connected to an alternating current side of the power converter, a current controller arranged to receive a reference current input indicative of a current flowing through the power converter and arranged to output an adjusted grid current value, wherein the current controller is configured to monitor a reference signal provided by a voltage controller of the direct current link of the motor drive and a grid side current; a parameter calculation module that is configured to calculate a plurality of gain values based at least in part on a phase margin of the current controller, a cross-over frequency of the current controller, and a current of an alternating current side of the power converter, wherein the current controller generates the adjusted grid current value by applying one or more of the gain values to the error between the grid side current and the reference current value; a perturbation module that is configured to provide a sinusoidal signal, at a single frequency which is a cross-over frequency of the current controller, wherein the adjusted grid current value output by the current controller is modulated with the sinusoidal signal to provide a duty cycle to regulate the power converter.
A method comprising: determining, by a target device in a Storage Area Network, SAN, that a principal member port of a target driven peer zone on the target device is likely to fail based on diagnostic information related to the principal member port, wherein the target driven peer zone is configured in the SAN via the target device, and wherein the diagnostic information based on which the target device determines that the principal member port is likely to fail comprises one or more of temperature, supply voltage, bias current, a transmitter power and a receiver power of principle member port transceivers; in response to determining, identifying, by the target device, an alternate principal member port on the target device; and providing, by the target device, an indication to replace the principal member port with the alternate principal member port. determining, by a target device in a Storage Area Network, SAN, that a principal member port of a target driven peer zone on the target device is likely to fail based on diagnostic information related to the principal member port, wherein the target driven peer zone is configured in the SAN via the target device, and wherein the diagnostic information based on which the target device determines that the principal member port is likely to fail comprises one or more of temperature, supply voltage, bias current, a transmitter power and a receiver power of principle member port transceivers; in response to determining, identifying, by the target device, an alternate principal member port on the target device; and providing, by the target device, an indication to replace the principal member port with the alternate principal member port.
A method, comprising: - obtaining a time sequence of measurement frames of a radar measurement of a scene, each measurement frame of the time sequence of measurement frames comprising data samples along at least a fast-time dimension and a slow-time dimension, a slow time of the slow-time dimension being incremented with respect to adjacent radar chirps of the radar measurement, a fast time of the fast-time dimension being incremented with respect to adjacent data samples, - for each channel of at least one channel: determining covariances of the data samples for multiple fast times along the fast-time dimension and using respective distributions of the data samples along the slow-time dimension, and - determining a range map of the scene based on the covariances and using a spectrum analysis, - detecting one or more objects (83, 351, 352, 353) of the scene based on the range map. - obtaining a time sequence of measurement frames of a radar measurement of a scene, each measurement frame of the time sequence of measurement frames comprising data samples along at least a fast-time dimension and a slow-time dimension, a slow time of the slow-time dimension being incremented with respect to adjacent radar chirps of the radar measurement, a fast time of the fast-time dimension being incremented with respect to adjacent data samples, - for each channel of at least one channel: determining covariances of the data samples for multiple fast times along the fast-time dimension and using respective distributions of the data samples along the slow-time dimension, and - determining a range map of the scene based on the covariances and using a spectrum analysis, - detecting one or more objects (83, 351, 352, 353) of the scene based on the range map.
A lavatory (100, 200) comprising: a plurality of walls (12A, 12B) including a first wall having a doorway, the plurality of walls defining a lavatory enclosure having a first volume; an expandable door including: a main panel having dimensions that conform to the doorway; and a main hinge connecting the main panel to the first wall; and a latch, wherein the main panel is configured to, in a deployed state, increase in at least one dimension to form a privacy barrier around an expansion zone located outside of the lavatory enclosure, the expansion zone having a second volume contiguous with the first volume, and the latch is configured to lock the expandable door in place in the deployed state. a plurality of walls (12A, 12B) including a first wall having a doorway, the plurality of walls defining a lavatory enclosure having a first volume; an expandable door including: a main panel having dimensions that conform to the doorway; and a main hinge connecting the main panel to the first wall; and a main panel having dimensions that conform to the doorway; and a main hinge connecting the main panel to the first wall; and a latch, wherein the main panel is configured to, in a deployed state, increase in at least one dimension to form a privacy barrier around an expansion zone located outside of the lavatory enclosure, the expansion zone having a second volume contiguous with the first volume, and the latch is configured to lock the expandable door in place in the deployed state.
A rail vehicle car having a display device for seats of the rail vehicle car, wherein - the display device comprises a plurality of displays (31, 32, 41, 42) including first displays (31, 32) and second displays (41, 42), - the first displays (31, 32) being readable in the inner space of the rail vehicle and the second displays (41, 42) being readable from the outside and each displaying at least one seat characteristic, and - at least a first display (31, 32) and a second display (41, 42) being arranged within at least one window frame of the rail vehicle car, - the first display (31, 32) and the second display (41, 42) being integrated in a window and arranged at a top edge or a bottom edge of the window frame, and wherein - an unobstructed view through the window remains obtained for passengers. - the display device comprises a plurality of displays (31, 32, 41, 42) including first displays (31, 32) and second displays (41, 42), - the first displays (31, 32) being readable in the inner space of the rail vehicle and the second displays (41, 42) being readable from the outside and each displaying at least one seat characteristic, and - at least a first display (31, 32) and a second display (41, 42) being arranged within at least one window frame of the rail vehicle car, - the first display (31, 32) and the second display (41, 42) being integrated in a window and arranged at a top edge or a bottom edge of the window frame, and wherein - an unobstructed view through the window remains obtained for passengers.
A method for performing, by a user equipment, UE, device-to-device, D2D, transmission in a wireless communication system, the method comprising: determining a timing reference of a first carrier on which the D2D transmission is performed; determining timing advance, TA, information for the D2D transmission to be applied to the first carrier based on the determined timing reference; and performing the D2D transmission on the first carrier based on the timing reference and the TA information, wherein the first carrier and a second carrier are configured at the UE, and the first carrier is aggregated with the second carrier, wherein the timing reference of the first carrier is the second carrier which is different from the first carrier, wherein the first carrier is a carrier based on a frequency division duplex, FDD, and the second carrier is a carrier based on a time division duplex, TDD, and wherein the timing reference of the TA information for the first carrier is determined based on the second carrier, and values of the TA information itself are determined based on the first carrier. determining a timing reference of a first carrier on which the D2D transmission is performed; determining timing advance, TA, information for the D2D transmission to be applied to the first carrier based on the determined timing reference; and performing the D2D transmission on the first carrier based on the timing reference and the TA information, wherein the first carrier and a second carrier are configured at the UE, and the first carrier is aggregated with the second carrier, wherein the timing reference of the first carrier is the second carrier which is different from the first carrier, wherein the first carrier is a carrier based on a frequency division duplex, FDD, and the second carrier is a carrier based on a time division duplex, TDD, and wherein the timing reference of the TA information for the first carrier is determined based on the second carrier, and values of the TA information itself are determined based on the first carrier.
Filter unit for an extractor hood, comprising an ionisation unit with at least one ionisation element and at least one counter electrode (221, 222) and a separator unit with at least one collecting electrode and at least one counter electrode, wherein the separator unit is arranged downstream of the ionisation unit in the flow direction, wherein the ionisation unit and the separator unit are accommodated in a shared housing, characterised in that the collecting electrodes and the counter electrodes represent fins of a comb profile (210, 211), which are connected to one another in each case by way of a comb base, which is designed as a plate, the comb profile of the collecting electrode and the comb profile of the counter electrodes represent an integral component in each case and the comb profiles (210, 211) interlock with one another so that the fins of the comb profile of the collecting electrodes and the fins of the comb profile of the counter electrodes are arranged in an alternating manner, and that the air passes through the separator unit in a main flow direction, which runs parallel to the bases of the oppositely arranged comb bases and along the fins of the comb profiles (210, 211).
A computer-implemented method of determining user interface usage, the method comprising: collecting via a collector, from at least one user interface (202, 300) including at least one data entry field, data indicating at least one event that occurs as a result of an action performed by a user on a data entry field and data associated with the user interface (202, 300) at the time of the at least one action; extracting via the extractor, from the data indicating at least one event and the data associated with the user interface (202, 300), data indicating an entity associated with the at least one event; applying a regular time interval to the data indicating at least one event, the data associated with the user interface, and the data indicating an entity and determining the entity as owner of the event; assigning each time interval to the entity owning the greatest number of events in that time interval; determining a duration of an activity by multiplying the number of intervals that contain a given entity and action by the duration of the time interval; and determining multitasking by identifying time intervals that alternate between different entity and action winners and by determining a time interval winner based on the most common entity in the time interval. collecting via a collector, from at least one user interface (202, 300) including at least one data entry field, data indicating at least one event that occurs as a result of an action performed by a user on a data entry field and data associated with the user interface (202, 300) at the time of the at least one action; extracting via the extractor, from the data indicating at least one event and the data associated with the user interface (202, 300), data indicating an entity associated with the at least one event; applying a regular time interval to the data indicating at least one event, the data associated with the user interface, and the data indicating an entity and determining the entity as owner of the event; assigning each time interval to the entity owning the greatest number of events in that time interval; determining a duration of an activity by multiplying the number of intervals that contain a given entity and action by the duration of the time interval; and determining multitasking by identifying time intervals that alternate between different entity and action winners and by determining a time interval winner based on the most common entity in the time interval.
A clipping machine for producing sausage-shaped products, like sausages, by filing a flowable filling material along a feeding direction into a tubular or bag-shaped packaging casing and closing said packaging casing by at least one closure means, like a closure clip on one of its front ends facing the feeding direction, wherein the clipping machine comprises a filling tube having a first end, a second end and a central axis, for feeding the filling material in the feeding direction into the tubular or bag-shaped packaging casing stored on the filling tube, the first end of the filing tube is directed in the feeding direction and the second end can pivotally be coupled to a filler device, and wherein the clipping machine comprises a casing brake assembly including brake means accommodated in a housing, for applying tension to the tubular or bag-shaped packaging casing when being filled, gathering means for gathering the filled tubular or bag-shaped packaging casing and for forming a plait-like portion thereto, and a clipping device having a clipping tool assembly for applying and closing at least one closure means to the plait-like portion, wherein the casing brake assembly is reversibly movable in the feeding direction between a release position in which at least the brake means are removed from the filling tube, and a working position in which at least the brake means are positioned on the filling tube in the region of its first end for applying tension to the tubular or bag-shaped packaging casing stored on the filling tube (110 characterized in that the clipping machine further comprises a coverage device for covering at least partially a gap between the first end of the filling tube and the casing brake assembly and in that the coverage device is attached to the housing of the casing brake assembly.
A method for detecting a fault in a gas turbine engine gas supply system, the method comprising: measuring a pressure difference (ΔP) between two gas supplying ducts (A,B) of the gas supply system; comparing the measured pressure difference (ΔP) to a threshold level; and determining a fault based on the measured pressure difference (ΔP) and the comparison, characterized in that: one of the two gas supplying ducts (A,B) is a modulated-type duct provided with a flow controller configured to switch between a high flow condition in which the flow controller does not restrict gas supply through the modulated-type duct and a low flow condition in which the flow controller substantially reduces gas supply through the modulated-type duct; and the other of the two gas supplying ducts (A,B) is an open-type duct configured to remain open for gas supply through the open-type duct, and wherein each of the gas supplying ducts (A, B) is provided with a venturi at a venturi position for restricting flow through the gas supplying duct (A, B); and a differential pressure sensor is arranged to measure the pressure difference (ΔP) between the venturi positions of the two gas supplying ducts (A, B). measuring a pressure difference (ΔP) between two gas supplying ducts (A,B) of the gas supply system; comparing the measured pressure difference (ΔP) to a threshold level; and determining a fault based on the measured pressure difference (ΔP) and the comparison, characterized in that: one of the two gas supplying ducts (A,B) is a modulated-type duct provided with a flow controller configured to switch between a high flow condition in which the flow controller does not restrict gas supply through the modulated-type duct and a low flow condition in which the flow controller substantially reduces gas supply through the modulated-type duct; and the other of the two gas supplying ducts (A,B) is an open-type duct configured to remain open for gas supply through the open-type duct, and wherein each of the gas supplying ducts (A, B) is provided with a venturi at a venturi position for restricting flow through the gas supplying duct (A, B); and a differential pressure sensor is arranged to measure the pressure difference (ΔP) between the venturi positions of the two gas supplying ducts (A, B). one of the two gas supplying ducts (A,B) is a modulated-type duct provided with a flow controller configured to switch between a high flow condition in which the flow controller does not restrict gas supply through the modulated-type duct and a low flow condition in which the flow controller substantially reduces gas supply through the modulated-type duct; and the other of the two gas supplying ducts (A,B) is an open-type duct configured to remain open for gas supply through the open-type duct, and wherein each of the gas supplying ducts (A, B) is provided with a venturi at a venturi position for restricting flow through the gas supplying duct (A, B); and a differential pressure sensor is arranged to measure the pressure difference (ΔP) between the venturi positions of the two gas supplying ducts (A, B).