mhurhangee/patent-ind-claim-en huggingface dataset:
A measurement method performed by a user equipment, UE, accessing a serving base station serving a serving cell, the method comprising: • receiving first restrictive measurement resources from a first base station serving a first neighboring cell and receiving second restrictive measurement resources from a second base station serving a second neighboring cell (step 101), the first and the second base stations are deployed in the coverage area of the serving base station, and • performing, based on the first and second restrictive measurement resources, a radio resource management, RRM, measurement on a neighboring cell among the two neighboring cells, whose measurement resource needs to be limited, and/or performing radio link monitoring, RLM, on the serving cell of the UE based on the first and second restrictive measurement resources (step 102). • receiving first restrictive measurement resources from a first base station serving a first neighboring cell and receiving second restrictive measurement resources from a second base station serving a second neighboring cell (step 101), the first and the second base stations are deployed in the coverage area of the serving base station, and • performing, based on the first and second restrictive measurement resources, a radio resource management, RRM, measurement on a neighboring cell among the two neighboring cells, whose measurement resource needs to be limited, and/or performing radio link monitoring, RLM, on the serving cell of the UE based on the first and second restrictive measurement resources (step 102).
An electronic apparatus comprising: a memory configured to store information regarding an artificial intelligence model including a plurality of layers; and a processor configured to perform interpolation processing on an input image and to process the interpolated image using the artificial intelligence model to obtain an output image , wherein the processor is configured to be operated in a first mode or a second mode based on an update of parameters used in at least one of the plurality of layers being required, the first mode is a mode in which the output image is obtained based on an image processed using the artificial intelligence model in which the parameters are updated and based on the interpolated image , and the second mode is a mode in which the output image is obtained based on the interpolated image without using the artificial intelligence model . a memory configured to store information regarding an artificial intelligence model including a plurality of layers; and a processor configured to perform interpolation processing on an input image and to process the interpolated image using the artificial intelligence model to obtain an output image , wherein the processor is configured to be operated in a first mode or a second mode based on an update of parameters used in at least one of the plurality of layers being required, the first mode is a mode in which the output image is obtained based on an image processed using the artificial intelligence model in which the parameters are updated and based on the interpolated image , and the second mode is a mode in which the output image is obtained based on the interpolated image without using the artificial intelligence model .
An ionic liquid catalyst, formable from a regeneration process from a used acidic catalyst, the used acid catalyst, before regeneration, having been deactivated by conjunct polymers, the regeneration process involving removing the conjunct polymers so as to increase the activity of the catalyst, wherein the ionic liquid catalyst is a regenerated chloroaluminate ionic liquid catalyst and wherein the conjunct polymers are removed by hydrogenation.
At least one compound selected from the group consisting of Methyl-4,6-diamino-2-[1-(2-fluorobenzyl)-1H-pyrazolo [3,4-b]pyridine-3 -yl] -5 -pyrimidinyl(methyl)carbamate , Methyl- {4,6-diamino-2-[5-fluoro-1-(2-fluorobenzyl)-1H-pyrazolo[3,4-b]pyridine-3-yl]pyrimidine-5-yl}carbamate , and 3-(4-Amino-5-cyclopropylpyrimidine-2-yl)-1-(2-fluorobenzyl)-1 H -pyrazolo[3,4- b ]pyridine for use in the acceleration of wound healing in patients with Digital Ulcers concomitant to fibrotic diseases, such as systemic sclerosis and scleroderma.
A method for estimating a position of a rotor in a synchronous electric machine , wherein the method comprises the steps of: - inputting an initial rotor angle, in a known reference frame, into a power converter controlling the electric machine , - injecting a first voltage waveform ( u d , u q ) into the power converter , wherein the first voltage waveform has a first fundamental frequency and comprises a component along a first axis of the reference frame and a component along a second axis being orthogonal to the first axis, and wherein the first voltage waveform is such that it effects the torque from the machine to vary between at least one positive torque value and at least one negative torque value and that the mean output torque is zero, - injecting a second voltage waveform ( u d h ) into the power converter , wherein the second voltage waveform ( u d h ) has a second fundamental frequency and comprises a component which is offset with an offset angle (δθ) with respect to the first axis in the reference frame, - determining a resulting second axis current (i q h ) in the power converter at the second fundamental frequency, - adjusting, for each torque value, the offset angle (δθ) so that the resulting second axis current (i q h ) at the second fundamental frequency becomes zero, characterised by storing a respective plurality of offset angle (δθ) values, and - estimating the position of the rotor based on the plurality of offset angle (δθ) values. - inputting an initial rotor angle, in a known reference frame, into a power converter controlling the electric machine , - injecting a first voltage waveform ( u d , u q ) into the power converter , wherein the first voltage waveform has a first fundamental frequency and comprises a component along a first axis of the reference frame and a component along a second axis being orthogonal to the first axis, and wherein the first voltage waveform is such that it effects the torque from the machine to vary between at least one positive torque value and at least one negative torque value and that the mean output torque is zero, - injecting a second voltage waveform ( u d h ) into the power converter , wherein the second voltage waveform ( u d h ) has a second fundamental frequency and comprises a component which is offset with an offset angle (δθ) with respect to the first axis in the reference frame, - determining a resulting second axis current (i q h ) in the power converter at the second fundamental frequency, - adjusting, for each torque value, the offset angle (δθ) so that the resulting second axis current (i q h ) at the second fundamental frequency becomes zero, characterised by storing a respective plurality of offset angle (δθ) values, and - estimating the position of the rotor based on the plurality of offset angle (δθ) values.
Method for determining an internal resistance of a sensor element for detecting a proportion of a gas component from a gas mixture in a measuring gas chamber, the sensor element having at least one cell , the cell comprising at least a first electrode , at least a second electrode and at least a solid electrolyte connecting the first electrode and the second electrode , an electrical voltage being present between the first electrode and the second electrode , comprising the steps: a) applying a current pulse to the sensor element , the current pulse effecting an occurrence of a charge displacement in the sensor element , the occurrence of the charge displacement causing an increase in the electrical voltage between the first electrode and the second electrode ; b) ascertaining a value for the increase in the electrical voltage between the first electrode and the second electrode ; the step b) being carried out at least twice at different times during the occurrence of the charge displacement and, from this, in each case a value for the increase in the electrical voltage being ascertained at the different times, and step c), characterized in that the latter is carried out as follows: c) determining the internal resistance of the sensor element from the values for the increase in the electrical voltage ascertained at the different times during the occurrence of the charge displacement; and wherein, from the values for the increase in the electrical voltage ascertained at the different times during the occurrence of the charge displacement, a polarization-induced proportion of the increase in the electrical voltage is ascertained, wherein the internal resistance of the sensor element is determined by subtracting the polarization-induced proportion of the increase in the electrical voltage from the ascertained values for the increase in the electrical voltage . a) applying a current pulse to the sensor element , the current pulse effecting an occurrence of a charge displacement in the sensor element , the occurrence of the charge displacement causing an increase in the electrical voltage between the first electrode and the second electrode ; b) ascertaining a value for the increase in the electrical voltage between the first electrode and the second electrode ;
A schedule management method of an electronic device (100;201), the method comprising: storing a schedule associated with an event to be performed within a set time period, wherein the event comprises an event category selected from among a number of event categories; displaying an alarm screen including a user interface, UI, regarding a progress of the schedule and a UI regarding an adjustment of the schedule; performing , if the UI regarding the progress of the schedule is selected, an associated work according to the progress of the schedule; and performing , if the UI regarding the adjustment of the schedule is selected, the associated work according to the adjustment of the schedule based on the event category, and transmitting, if the schedule is adjusted, information regarding the adjusted schedule to another device corresponding to a participant related to the adjusted schedule. storing a schedule associated with an event to be performed within a set time period, wherein the event comprises an event category selected from among a number of event categories; displaying an alarm screen including a user interface, UI, regarding a progress of the schedule and a UI regarding an adjustment of the schedule; performing , if the UI regarding the progress of the schedule is selected, an associated work according to the progress of the schedule; and performing , if the UI regarding the adjustment of the schedule is selected, the associated work according to the adjustment of the schedule based on the event category, and transmitting, if the schedule is adjusted, information regarding the adjusted schedule to another device corresponding to a participant related to the adjusted schedule.
A method of image processing comprising: setting k-space comprising a first part and a second part ; wherein the second part is outside of the first part ; filling, in the first part of the k-space, a matrix comprising sampled magnetic resonance imaging data applying a filter on the matrix in the first part to produce a filtered data matrix in the first part; padding the second part of the k-space with padded data; reconstructing an initial image based on the filtered data matrix in the first part of the k-space and the padded data in the second part of the k-space; performing, based on a constraint, a plurality of iterations of an objective function for a target array related to the initial image in image domain, wherein the objective function is based on a total variation of the target array; and reconstructing an image based on the target array, characterized in that the first part is divided into a first region and a second region , and the constraint is given by setting the filtered data in the second region of the first part of the k-space to be invariant. setting k-space comprising a first part and a second part ; wherein the second part is outside of the first part ; filling, in the first part of the k-space, a matrix comprising sampled magnetic resonance imaging data applying a filter on the matrix in the first part to produce a filtered data matrix in the first part; padding the second part of the k-space with padded data; reconstructing an initial image based on the filtered data matrix in the first part of the k-space and the padded data in the second part of the k-space; performing, based on a constraint, a plurality of iterations of an objective function for a target array related to the initial image in image domain, wherein the objective function is based on a total variation of the target array; and reconstructing an image based on the target array, characterized in that the first part is divided into a first region and a second region , and the constraint is given by setting the filtered data in the second region of the first part of the k-space to be invariant.
A laser cataract surgery system , comprising: a sub-nanosecond laser source generating a treatment beam that includes a plurality of laser beam pulses; an optical delivery system coupled to the sub-nanosecond laser source to receive and direct the treatment beam; and, a processor coupled to the sub-nanosecond laser source and the optical delivery system, the processor comprising a tangible non-volatile computer readable medium comprising instructions to: determine a lens cut pattern from a posterior to an anterior of the lens for lens fragmentation; scale a plurality of energies of the treatment beam as a function of a depth of the lens cut pattern to maintain a constant bubble volume formed by the treatment beam throughout the depth of the cut; and output the treatment beam according to the lens cut pattern and the determined energies. a sub-nanosecond laser source generating a treatment beam that includes a plurality of laser beam pulses; an optical delivery system coupled to the sub-nanosecond laser source to receive and direct the treatment beam; and, a processor coupled to the sub-nanosecond laser source and the optical delivery system, the processor comprising a tangible non-volatile computer readable medium comprising instructions to: determine a lens cut pattern from a posterior to an anterior of the lens for lens fragmentation; scale a plurality of energies of the treatment beam as a function of a depth of the lens cut pattern to maintain a constant bubble volume formed by the treatment beam throughout the depth of the cut; and output the treatment beam according to the lens cut pattern and the determined energies.
A fin assembly for a heat exchanger, the fin assembly comprising: a plurality of fins each having a corrugated fin body formed by a plate, the plurality of fins arranged side by side in a width direction of the fin assembly , and a connection part , wherein wave crests or wave troughs , on one side in a height direction (HD) of the fin assembly , of two adjacent ones of the plurality of fins are staggered by a predetermined distance relative to each other in a length direction (LD) of the fin assembly, wherein the wave crests and the wave troughs are connected by a middle inclined to the length direction (LD) of the fin assembly and the two adjacent fins are connected to each other by the connection part integrated with the middles of the two adjacent fins in a position where the middles of two adjacent fins intersect, characterized in that the middle of at least one of the plurality of fins is inclined to the width direction (WO) of the fin assembly towards a first side in the length direction (LD) of the fin assembly and at least another one of the plurality of fins is inclined to the width direction (WD) of the fin assembly towards a second side in the length direction (LD) of the fin assembly , wherein the first side in the length direction (LD) is different to the second side in the length direction (LD). a plurality of fins each having a corrugated fin body formed by a plate, the plurality of fins arranged side by side in a width direction of the fin assembly , and a connection part , wherein wave crests or wave troughs , on one side in a height direction (HD) of the fin assembly , of two adjacent ones of the plurality of fins are staggered by a predetermined distance relative to each other in a length direction (LD) of the fin assembly, wherein the wave crests and the wave troughs are connected by a middle inclined to the length direction (LD) of the fin assembly and the two adjacent fins are connected to each other by the connection part integrated with the middles of the two adjacent fins in a position where the middles of two adjacent fins intersect, characterized in that the middle of at least one of the plurality of fins is inclined to the width direction (WO) of the fin assembly towards a first side in the length direction (LD) of the fin assembly and at least another one of the plurality of fins is inclined to the width direction (WD) of the fin assembly towards a second side in the length direction (LD) of the fin assembly , wherein the first side in the length direction (LD) is different to the second side in the length direction (LD).
A method of producing a large-MSC population of cells, comprising: a) culturing an MSC-containing population of cells in a culture medium for 7-10 days to a confluence of 80% to 90% over each of at least four population doublings to provide a population enriched in large-MSC cells, wherein the four population doublings are measured from initial extraction of the MSC-containing population from a source, wherein the MSC-containing population of cells are seeded at 1000 MSC/cm 2 to 1500 MSC/cm 2 , wherein the MSC-containing population of cells is obtained from bone marrow, and wherein the large-MSC cells have a diameter of 18 μm to 22 μm; and b) biophysically sorting the MSC-containing population of cells produced in step (a) and collecting a large-MSC population of cells from the MSC-containing population, wherein the large-MSC population of cells has enhanced regenerative potential relative to small-MSCs or a mixed MSC population. a) culturing an MSC-containing population of cells in a culture medium for 7-10 days to a confluence of 80% to 90% over each of at least four population doublings to provide a population enriched in large-MSC cells, wherein the four population doublings are measured from initial extraction of the MSC-containing population from a source, wherein the MSC-containing population of cells are seeded at 1000 MSC/cm 2 to 1500 MSC/cm 2 , wherein the MSC-containing population of cells is obtained from bone marrow, and wherein the large-MSC cells have a diameter of 18 μm to 22 μm; and b) biophysically sorting the MSC-containing population of cells produced in step (a) and collecting a large-MSC population of cells from the MSC-containing population, wherein the large-MSC population of cells has enhanced regenerative potential relative to small-MSCs or a mixed MSC population.
Impeller for wind turbines comprising: - a rear ring having a central axis (X); - a front ring having an inner peripheral surface ; the front ring being arranged coaxially with respect to the rear ring ; the front ring being slidably associated with the rear ring and movable along the central axis (X) between a close configuration and a spaced apart configuration with respect to the rear ring ; - a plurality of blades connected to the front ring and defining a variable-pitch propeller , the blades being adjustable between a minimum pitch when the front ring is in the close configuration and a maximum pitch when the front ring is in the spaced apart configuration; - a shaft extending along the central axis (X); the shaft comprising a rear portion connected to the rear ring and a front portion connected to the front ring ; the front portion of the shaft being configured to perform a rotational translation movement with respect to the rear portion to switch the front ring between the close configuration and the spaced apart configuration; the front portion of the shaft having a front cavity extending along the central axis (X); the rear portion of the shaft being at least partially inserted in the front cavity , characterized in that the front portion comprises at least one spiral guide arranged on an inner surface ; the rear portion comprising at least one slider associated with the spiral guide and arranged on an outer surface . - a rear ring having a central axis (X); - a front ring having an inner peripheral surface ; the front ring being arranged coaxially with respect to the rear ring ; the front ring being slidably associated with the rear ring and movable along the central axis (X) between a close configuration and a spaced apart configuration with respect to the rear ring ; - a plurality of blades connected to the front ring and defining a variable-pitch propeller , the blades being adjustable between a minimum pitch when the front ring is in the close configuration and a maximum pitch when the front ring is in the spaced apart configuration; - a shaft extending along the central axis (X); the shaft comprising a rear portion connected to the rear ring and a front portion connected to the front ring ; the front portion of the shaft being configured to perform a rotational translation movement with respect to the rear portion to switch the front ring between the close configuration and the spaced apart configuration; the front portion of the shaft having a front cavity extending along the central axis (X); the rear portion of the shaft being at least partially inserted in the front cavity ,
A lipase variant having lipase activity and having between 80% to less than 100% sequence identity to the parent lipase having SEQ ID NO: 2, wherein the variant comprises one or more substitutions selected from H198D/F/G/I/L/N/S/T/Y, F7K, S224F/I/P, V228P, V230R, and A257F/I/V using SEQ ID NO:2 for position numbering, wherein the variant has reduced odor generation relative to the parent lipase.