mhurhangee/ep-ind-claims huggingface dataset:
A method of adapting reference signals by a radio network node of a wireless network, comprising: establishing a first wireless connection with a first user equipment, wherein the first wireless connection is associated with one or more reference signals and each of the one or more reference signals is associated with one or more antenna ports, wherein the one or more reference signals are one or more Channel State Information Reference Signals, CSI-RS; determining interference patterns in the wireless network based on CSI-RS measurement reports; based on the determined interference patterns, determining a mapping of the one or more antenna ports associated with the one or more reference signals to at least two antenna port reference signal resources, APRSRs, for the first user equipment, wherein each of the at least two APRSRs comprises a pair of consecutive time-frequency resource elements of a radio subframe of the first wireless connection; and transmitting the one or more reference signals to the first user equipment according to the mapping of the one or more antenna ports to the at least two APRSR. establishing a first wireless connection with a first user equipment, wherein the first wireless connection is associated with one or more reference signals and each of the one or more reference signals is associated with one or more antenna ports, wherein the one or more reference signals are one or more Channel State Information Reference Signals, CSI-RS; determining interference patterns in the wireless network based on CSI-RS measurement reports; based on the determined interference patterns, determining a mapping of the one or more antenna ports associated with the one or more reference signals to at least two antenna port reference signal resources, APRSRs, for the first user equipment, wherein each of the at least two APRSRs comprises a pair of consecutive time-frequency resource elements of a radio subframe of the first wireless connection; and transmitting the one or more reference signals to the first user equipment according to the mapping of the one or more antenna ports to the at least two APRSR.
An induction heating device, comprising: an indicator (1, 500, 500-1) that is driven by being associated with a working coil provided in an induction heating device, comprising: a magnetic flux sensing coil configured to sense a magnetic flux generated when driving the working coil and to convert the sensed magnetic flux into a current; a rectifying portion configured to rectify the current converted in the magnetic flux sensing coil; and a light emitting module configured to emit a light by receiving the rectified current from the rectifying portion, wherein a magnitude of the current converted in the magnetic flux sensing coil is varied according to a magnitude of the magnetic flux generated in the working coil, and a brightness of the light emitting module is determined automatically according to the magnitude of the current converted in the magnetic flux sensing coil; characterized by a working coil portion comprising first and second working coils (WC1, WC2); the magnetic flux sensing coil being disposed on the first and second working coils (WC1, WC2) and configured to sense a magnetic flux that is generated when driving at least one of the first and second working coils (WC1, WC2) to convert the sensed magnetic flux into a current. an indicator (1, 500, 500-1) that is driven by being associated with a working coil provided in an induction heating device, comprising: a magnetic flux sensing coil configured to sense a magnetic flux generated when driving the working coil and to convert the sensed magnetic flux into a current; a rectifying portion configured to rectify the current converted in the magnetic flux sensing coil; and a light emitting module configured to emit a light by receiving the rectified current from the rectifying portion, wherein a magnitude of the current converted in the magnetic flux sensing coil is varied according to a magnitude of the magnetic flux generated in the working coil, and a brightness of the light emitting module is determined automatically according to the magnitude of the current converted in the magnetic flux sensing coil; characterized by a magnetic flux sensing coil configured to sense a magnetic flux generated when driving the working coil and to convert the sensed magnetic flux into a current; a rectifying portion configured to rectify the current converted in the magnetic flux sensing coil; and a light emitting module configured to emit a light by receiving the rectified current from the rectifying portion, wherein a magnitude of the current converted in the magnetic flux sensing coil is varied according to a magnitude of the magnetic flux generated in the working coil, and a brightness of the light emitting module is determined automatically according to the magnitude of the current converted in the magnetic flux sensing coil; a working coil portion comprising first and second working coils (WC1, WC2); the magnetic flux sensing coil being disposed on the first and second working coils (WC1, WC2) and configured to sense a magnetic flux that is generated when driving at least one of the first and second working coils (WC1, WC2) to convert the sensed magnetic flux into a current.
An airway sampling device for taking a sample from a subject's airway, the device comprising a handle to be gripped by a user when taking the sample and a sampling head carried by the handle, the sampling head comprising a cavity with an opening for entry by the sample and a sample collection membrane located within the cavity for receiving the sample, wherein the sampling head is provided with a wrap-around hood which encloses the sample collection membrane on all sides, other than at the opening to the cavity within the hood, to enable the sampling head to push past the tonsils of the subject, to deflect the uvula of the subject, and potentially to also contact the back of the subject's throat, without any fluid contamination of the sample collection membrane.
The use of a PGE 2 EP 4 agonist comprising: contacting human CD34+ hematopoietic stem or progenitor cells in vitro with a therapeutically effective amount of a PGE 2 EP 4 agonist, or a pharmaceutically acceptable salt thereof, that preferentially interacts with a PGE 2 EP 4 receptor on said cells wherein the PGE 2 EP 4 agonist is selected from the group consisting of: 16-(3-Methoxymethyl)phenyl-ω-tetranor-5-thiaPGE; 5-{3-[ -2-{ -3-hydroxy-4-[3-(trifluoromethyl)phenyl]butyl}-5-oxopyrrolidin-1-yl]propyl]thiophene-2-carboxylate; ( -7-{(1R,4S,5R)-5-[ -5-(3-chloro-benzo[b]thiophene-2-yl)-3-hydroxy-pent-1-enyl]-4-hydroxy-3,3-dimethyl-2-oxo-cyclopentyl}-hept-5-enoic acid); and 5-[(1E,3R)-4,4-difluoro-3-hydroxy-4-phenyl-1-buten-1-yl]-1-[6-(2H-tetrazol-5R-yl)hexyl]-2-pyrrolidinone; or a pharmaceutically acceptable salt thereof; wherein the contacted human CD34+ hematopoietic stem or progenitor cells have increased homing or engraftment when transplanted into a patient compared to non-contacted human hematopoietic stem or progenitor cells, and wherein the therapeutically effective amount of said PGE 2 EP 4 agonist or a pharmaceutically acceptable salt thereof is between about 0.001 μM to about 10 μM.
A lactic acid bacterium, which is a strain of Pediococcus acidilactici R037 (accession number NITE BP-900) or a variant of the strain R037 having at least one of an antiallergic function, a neutral fat-lowering function, and an anti-autoimmune disease function.
A compressor motor control apparatus, comprising: a motor comprising a rotor being configured to rotate according to a motor torque that is controlled by a pulse width modulation control; a switching unit provided at the motor, the switching unit being configured to switch a wiring mode inside the motor so that the motor is driven from a first wiring mode to a second wiring mode; and a controller configured to generate a speed command frequency for controlling a rotation speed of the rotor, and control the switching unit so that the wiring mode of the motor is switched according to a comparison of the speed command frequency with a switching boundary frequency according to the wiring mode of the motor, characterized in that when the PWM control is stopped in response to the switching of the wiring mode, the controller is configured to determine a rotation state of the rotor that rotates inertially, and when the PWM control is restarted, the controller is configured to set the determined rotation state of the rotor as an initial value of the rotor and to control a rotation speed of the motor of which the wiring mode is switched based on the set initial value of the rotor, wherein when the PWM control is restarted, the controller is configured to reflect a phase difference between the first and second wiring modes and to compensate a position of the rotor; and wherein the position of the rotor to be compensated is +30 degrees or -30 degrees. a motor comprising a rotor being configured to rotate according to a motor torque that is controlled by a pulse width modulation control; a switching unit provided at the motor, the switching unit being configured to switch a wiring mode inside the motor so that the motor is driven from a first wiring mode to a second wiring mode; and a controller configured to generate a speed command frequency for controlling a rotation speed of the rotor, and control the switching unit so that the wiring mode of the motor is switched according to a comparison of the speed command frequency with a switching boundary frequency according to the wiring mode of the motor, characterized in that when the PWM control is stopped in response to the switching of the wiring mode, the controller is configured to determine a rotation state of the rotor that rotates inertially, and when the PWM control is restarted, the controller is configured to set the determined rotation state of the rotor as an initial value of the rotor and to control a rotation speed of the motor of which the wiring mode is switched based on the set initial value of the rotor, wherein when the PWM control is restarted, the controller is configured to reflect a phase difference between the first and second wiring modes and to compensate a position of the rotor; and wherein the position of the rotor to be compensated is +30 degrees or -30 degrees.
A drawing apparatus comprising: a first control unit that receives a plurality of image data (II, I2) including a subject from a plurality of cameras (51, 52), and outputs drawing data obtained by applying coordinate conversion, performed by referring to Look Up Table - LUT-data, to the image data; a memory 202 that stores each of the plurality of image data as a frame image; and a second control unit that derives determination distances (d) from optical centers of each of the plurality of image data with regard to a position of the subject, selects one of the plurality of image data as selection image data on the basis of the determination distances and by referring to camera characteristics including lens distortion data of the plurality of cameras, wherein when there is an area where the image-quality is high even though the determination distance (d) is long, the determination distance (d) corresponding to the area is multiplied by a constant which is less than "1", and rewrites the LUT data so that the selection image data are selected for drawing; wherein an optical center of the plurality of image data corresponds to a position of an image center in each of the frame images, and with regard to the subject, the determination distance (d) is a distance from the position of the image center to the position of the subject in each of the frame images. a first control unit that receives a plurality of image data (II, I2) including a subject from a plurality of cameras (51, 52), and outputs drawing data obtained by applying coordinate conversion, performed by referring to Look Up Table - LUT-data, to the image data; a memory 202 that stores each of the plurality of image data as a frame image; and a second control unit that derives determination distances (d) from optical centers of each of the plurality of image data with regard to a position of the subject, selects one of the plurality of image data as selection image data on the basis of the determination distances and by referring to camera characteristics including lens distortion data of the plurality of cameras, wherein when there is an area where the image-quality is high even though the determination distance (d) is long, the determination distance (d) corresponding to the area is multiplied by a constant which is less than "1", and rewrites the LUT data so that the selection image data are selected for drawing; wherein an optical center of the plurality of image data corresponds to a position of an image center in each of the frame images, and with regard to the subject, the determination distance (d) is a distance from the position of the image center to the position of the subject in each of the frame images.
A current sensor for measuring a current flowing through a conductor, the current sensor comprising: a magnetism-collecting core having a ring shape of a ring surrounding a conductor, the ring having a gap at a part of the ring shape; and two sensor chips (32a, 32b) housing respective magnetoelectric transducers (52a, 52b), and the two sensor chips being disposed in the gap, the two sensor chips (32a, 32b) being disposed such that a magnetic induction direction of each of the two sensor chips (32a,32b) is the same as a normal direction of end faces (351, 352) of the magnetism-collecting core, the end faces (351, 352) facing the gap, and characterised in the two sensor chips (32a, 32b) being disposed in a point symmetric manner to a center of the gap, as viewed from the normal direction, wherein each of the magnetoelectric transducers is positioned at a position equidistant from the center of the gap. a magnetism-collecting core having a ring shape of a ring surrounding a conductor, the ring having a gap at a part of the ring shape; and two sensor chips (32a, 32b) housing respective magnetoelectric transducers (52a, 52b), and the two sensor chips being disposed in the gap, the two sensor chips (32a, 32b) being disposed such that a magnetic induction direction of each of the two sensor chips (32a,32b) is the same as a normal direction of end faces (351, 352) of the magnetism-collecting core, the end faces (351, 352) facing the gap, and characterised in the two sensor chips (32a, 32b) being disposed in a point symmetric manner to a center of the gap, as viewed from the normal direction,
An item dispensing device for dispensing items from a stack of nested items, each item is defined by a cup-shaped body having an annular outwardly extending rim at its own free edge; the item dispensing device comprises a tower magazine, which has a first substantially vertical axis and is designed to contain a stack of nested items, and a denesting unit arranged at a lower end of the tower magazine and operable to detach items from the bottom of the stack; the denesting unit comprises a plurality of denesting rollers (19', 19") rotatably mounted about respective substantially vertical second axes and distributed about the first axis to define a channel therebetween adapted to be engaged by the last items of the stack; characterised in that each denesting roller (19', 19") comprises a lower shelf, a first upper shelf above the bottom shelf, and a second upper shelf above the first upper shelf; in that some of the denesting rollers comprise at least a respective first separator carried by the first upper shelf, and other denesting rollers (19") comprise at least a respective a second separator carried by the second upper shelf; and in that the denesting rollers (19', 19") are mounted to rotate about the respective second axes between a rest position, in which the stack rests on the lower shelves, and an single release position, in which the first separators engage the stack to detach the last item from the bottom of the stack; and to rotate between the rest position and a multiple release position, in which the second separators engage the stack to detach at least the last two nested items from the bottom of the stack.
A method of detecting a bioresorbable scaffold in a blood vessel comprising: storing, in an electronic memory storage device, intravascular image data from a pullback of an intravascular probe through the blood vessel and a bioabsorbable scaffold disposed in the blood vessel, the bioresorbable scaffold having one or more non-metal struts; generating a plurality of image frames from the stored intravascular image data, the stored intravascular image data comprising a plurality of scan lines, generating a mask for one or more image frames of the plurality of image frames; inverting the mask to generate an inverted mask, wherein the inverted mask comprises bright pixel regions separated by dark pixel regions; detecting a group of bright pixel regions; and identifying the group of bright pixel regions as defining a candidate inner region of a non-metal strut of the bioresorbable scaffold, wherein groupings of the bright pixel regions define a plurality of insular regions separated by a plurality of the dark pixel regions. storing, in an electronic memory storage device, intravascular image data from a pullback of an intravascular probe through the blood vessel and a bioabsorbable scaffold disposed in the blood vessel, the bioresorbable scaffold having one or more non-metal struts; generating a plurality of image frames from the stored intravascular image data, the stored intravascular image data comprising a plurality of scan lines, generating a mask for one or more image frames of the plurality of image frames; inverting the mask to generate an inverted mask, wherein the inverted mask comprises bright pixel regions separated by dark pixel regions; detecting a group of bright pixel regions; and identifying the group of bright pixel regions as defining a candidate inner region of a non-metal strut of the bioresorbable scaffold, wherein groupings of the bright pixel regions define a plurality of insular regions separated by a plurality of the dark pixel regions.
A method of determining capacitance of a biosensor chamber having two electrodes (64a, 66a) disposed in the chamber and coupled to a microcontroller, the method comprising: initiating an electrochemical reaction of a sample upon deposition of the sample in the biosensor chamber; applying an oscillating signal of a predetermined frequency to the chamber; ascertaining a first sampling-time interval for measurement of an output signal based on a predetermined sampling rate per cycle of the output signal at the predetermined frequency; sampling the output signal from the chamber at a second sampling-time interval different than the first sampling-time interval such that a magnitude of each sampled output signal is measured at each succession of the second sampling-time interval instead of at the first time interval; determining a phase angle between an output signal and the oscillating input signal from the chamber based on the sampled output signal of the sampling step; and calculating a capacitance of the chamber from the phase angle. initiating an electrochemical reaction of a sample upon deposition of the sample in the biosensor chamber; applying an oscillating signal of a predetermined frequency to the chamber; ascertaining a first sampling-time interval for measurement of an output signal based on a predetermined sampling rate per cycle of the output signal at the predetermined frequency; sampling the output signal from the chamber at a second sampling-time interval different than the first sampling-time interval such that a magnitude of each sampled output signal is measured at each succession of the second sampling-time interval instead of at the first time interval; determining a phase angle between an output signal and the oscillating input signal from the chamber based on the sampled output signal of the sampling step; and calculating a capacitance of the chamber from the phase angle.
A multivalent immunoglobulin or part thereof binding specifically to at least two cell surface molecules of a single cell with at least one modification in at least one structural loop region of said immunoglobulin determining binding to an epitope of said cell surface molecules, wherein the modified structural loop region is within a constant domain of said immunoglobulin and the modification is a deletion, a substitution, an insertion or a combination thereof, and wherein the unmodified immunoglobulin does not significantly bind to said epitope.
A discharge valve structure configured to be used in a compressor comprising a cylinder block having formed therein cylinder bores, pistons which move reciprocally linearly in the cylinder bores, and a cylinder head having formed therein a space (18, 19) in which to temporarily store a working fluid; the discharge valve structure comprising: a valve plate which, configured to be provided between the cylinder block and the cylinder head, has formed therein ports which provide communication between the cylinder bores and the space; and reed valves which open and close the ports in the valve plate; wherein an annular valve seat with which each of the reed valves comes into abutment is provided on the periphery of the open end of each of the ports in the valve plate, the radial width of the valve seat is formed to be larger on the side corresponding to a leading end portion of the reed valve than on the side corresponding to a base end portion of the reed valve, and the outer edge of the leading end portion of the reed valve is positioned inside the outer edge of the valve seat in a state where the port is closed by the reed valve; characterized in that the discharge reed valve is formed so that a moment of inertia of area of a base end side is higher than a moment of inertia of area of a leading end side, wherein the reed valve is formed so that the width thereof increases gradually as it goes from the leading end portion to the base end portion. a valve plate which, configured to be provided between the cylinder block and the cylinder head, has formed therein ports which provide communication between the cylinder bores and the space; and reed valves which open and close the ports in the valve plate; wherein an annular valve seat with which each of the reed valves comes into abutment is provided on the periphery of the open end of each of the ports in the valve plate, the radial width of the valve seat is formed to be larger on the side corresponding to a leading end portion of the reed valve than on the side corresponding to a base end portion of the reed valve, and the outer edge of the leading end portion of the reed valve is positioned inside the outer edge of the valve seat in a state where the port is closed by the reed valve; characterized in that the discharge reed valve is formed so that a moment of inertia of area of a base end side is higher than a moment of inertia of area of a leading end side, wherein the reed valve is formed so that the width thereof increases gradually as it goes from the leading end portion to the base end portion.