mhurhangee/patent-ind-claim-en huggingface dataset:
A brushless motor for controlling a wiper device , the brushless motor comprising a motor unit and a gear unit ; wherein the motor unit has: a rotating shaft ; a magnet provided to the rotating shaft, the magnet having N-poles and S-poles alternatively arranged along a circumferential direction of the rotating shaft; a stator disposed outside the magnet; coils wound around teeth of the stator; and a motor case part formed into a cylinder shape; and the gear unit has: a speed reduction mechanism (DS2) for reducing the speed of rotation of the rotating shaft and outputting the speed-reduced rotation; and a gear case part provided on one end side of the motor case part; the speed reduction mechanism (DS2) having: a worm provided to one end portion of the rotating shaft, and a speed reduction gear meshed with the worm, the speed reduction gear having an output shaft at a rotational center thereof; characterized in that the brushless motor further comprises a controller unit having: a board case part mounted on the other end side of the motor case part; a control board disposed inside the board case part and mounted on a bottom portion of the board case part; a sensor magnet fixed to the other end portion of the rotating shaft; and a rotation sensor provided to a portion of the control board facing the sensor magnet and detecting a rotational state of the rotating shaft; wherein the control board is electrically connected to coil end portions provided to one end side of the coils, and each coil generates an electromagnetic force for rotating the rotating shaft by supply of drive current from the control board a rotating shaft ; a magnet provided to the rotating shaft, the magnet having N-poles and S-poles alternatively arranged along a circumferential direction of the rotating shaft; a stator disposed outside the magnet; coils wound around teeth of the stator; and a motor case part formed into a cylinder shape; and a speed reduction mechanism (DS2) for reducing the speed of rotation of the rotating shaft and outputting the speed-reduced rotation; and a gear case part provided on one end side of the motor case part; a worm provided to one end portion of the rotating shaft, and a speed reduction gear meshed with the worm, the speed reduction gear having an output shaft at a rotational center thereof; characterized in that a board case part mounted on the other end side of the motor case part; a control board disposed inside the board case part and mounted on a bottom portion of the board case part; a sensor magnet fixed to the other end portion of the rotating shaft; and a rotation sensor provided to a portion of the control board facing the sensor magnet and detecting a rotational state of the rotating shaft; wherein the control board is electrically connected to coil end portions provided to one end side of the coils, and each coil generates an electromagnetic force for rotating the rotating shaft by supply of drive current from the control board
A stent , the stent comprising: an elongated tubular member having a longitudinal axis, the elongated tubular member comprising at least one knitted filament forming a plurality of twisted knit stitches with rungs extending circumferentially between radially adjacent twisted knit stitches , wherein each twisted knit stitch is interconnected with a longitudinally adjacent twisted knit stitch forming a series of linked stitches , the elongated tubular member configured to move between a radially collapsed configuration and a radially expanded configuration; wherein in the collapsed configuration the series of linked stitches form longitudinal columns and in the expanded configuration the series of linked stitches extend helically around the elongated tubular member . an elongated tubular member having a longitudinal axis, the elongated tubular member comprising at least one knitted filament forming a plurality of twisted knit stitches with rungs extending circumferentially between radially adjacent twisted knit stitches , wherein each twisted knit stitch is interconnected with a longitudinally adjacent twisted knit stitch forming a series of linked stitches , the elongated tubular member configured to move between a radially collapsed configuration and a radially expanded configuration; wherein in the collapsed configuration the series of linked stitches form longitudinal columns and in the expanded configuration the series of linked stitches extend helically around the elongated tubular member .
A method of manufacturing a roller bearing in which a plurality of rollers are interposed between an inner ring raceway and an outer ring raceway , and a crowning is formed on at least one of the inner ring raceway , the outer ring raceway , and a roller rolling contact surface , wherein: a drop amount of the crowning at an end of an effective length of a roller is determined based on a nominal dimension and a design load of the roller using Expression , below: [Expression 2] z m = 0.0051 x + 0.2721 ⋅ d + L + 0.0415 x − 0.3443 where, z m [μm] indicates the drop amount of the crowning at the end of the effective length of the roller , x[%] indicates a percentage of the design load to a basic dynamic load rating, d[mm] indicates a diameter of the roller , and L[mm] indicates the effective length; the drop amount at the end of the effective length of the roller is applied to a table indicating a plurality of drop amounts corresponding to a plurality of positions in a bus-line direction in dimensionless amounts, and a plurality of drop amounts at a plurality of positions in the bus-line direction are determined, wherein the table includes values in Table 2, below: [Table 2] Bus-line Direction Position (Dimensionless Amount) Drop Amount (Dimensionless Amount) 0-0.50 0 0.55 0.002 0.60 0.015 0.65 0.043 0. 70 0.086 0.75 0.147 0.80 0.229 0.85 0.340 0.90 0.489 0. 95 0.696 1.00 1.000 and from the determined plurality of drop amounts, a profile line of the crowning formed on at least one of the inner ring raceway , the outer ring raceway , and the roller rolling contact surface is determined.
A method of transmitting an uplink signal, the method performed by a user equipment, UE, in a wireless communication system, the method comprising: transmitting (S1701) a physical random access channel, PRACH; monitoring (S1703) downlink control information, DCI, in response to the PRACH during a window having a length exceeding 10 ms; receiving (S1705) a physical downlink shared channel, PDSCH, within the window, based on the DCI being detected based on a radio network temporary identifier, RNTI; receiving an indication for dual connectivity or a handover command; and based on the UE being incapable of checking whether the lower two bits for a first system frame number, SFN, included in the DCI are identical to the lower two bits for a second SFN in which the PRACH is transmitted, transmitting (S1707) the uplink signal based on the PDSCH regardless of whether the lower two bits for the first SFN are identical to the lower two bits for the second SFN, wherein based on the UE being capable of checking whether the lower two bits for the first SFN are identical to the lower two bits for the second SFN, the uplink signal is transmitted (S1707) based on the UE confirming that the lower two bits for the first SFN are identical to the lower two bits for the second SFN. transmitting (S1701) a physical random access channel, PRACH; monitoring (S1703) downlink control information, DCI, in response to the PRACH during a window having a length exceeding 10 ms; receiving (S1705) a physical downlink shared channel, PDSCH, within the window, based on the DCI being detected based on a radio network temporary identifier, RNTI; receiving an indication for dual connectivity or a handover command; and based on the UE being incapable of checking whether the lower two bits for a first system frame number, SFN, included in the DCI are identical to the lower two bits for a second SFN in which the PRACH is transmitted, transmitting (S1707) the uplink signal based on the PDSCH regardless of whether the lower two bits for the first SFN are identical to the lower two bits for the second SFN, wherein based on the UE being capable of checking whether the lower two bits for the first SFN are identical to the lower two bits for the second SFN, the uplink signal is transmitted (S1707) based on the UE confirming that the lower two bits for the first SFN are identical to the lower two bits for the second SFN.
A hockey-stick blade , comprising: a toe region ; a heel region spaced longitudinally from the toe region; a striking region positioned between the toe region and the heel region; and a hosel extending generally upwardly from the heel region to form an elbow region with the heel region; characterised by a crown running longitudinally along an upper surface of the elbow region, the crown protruding laterally from the sides of the blade in a forward direction and a rearward direction relative to the longitudinal direction of the blade, wherein the crown has a greater lateral width in the forward direction and in the rearward direction at a mid-region of the crown than at two end regions of the crown. a toe region ; a heel region spaced longitudinally from the toe region; a striking region positioned between the toe region and the heel region; and a hosel extending generally upwardly from the heel region to form an elbow region with the heel region; characterised by a crown running longitudinally along an upper surface of the elbow region, the crown protruding laterally from the sides of the blade in a forward direction and a rearward direction relative to the longitudinal direction of the blade, wherein the crown has a greater lateral width in the forward direction and in the rearward direction at a mid-region of the crown than at two end regions of the crown.
A radiation curable coating composition (I) consisting essentially of: - from 20 to 95 wt% of one or more (meth)acrylated compounds (a), - from 5 to 80 wt% of one or more metal salts of a C10 to C22 fatty acid (b), and - from 0 to 10 wt% of one or more of compounds (c) different from (an) and (b), wherein the wt% of compounds (a) to (c) add up to 100%. - from 20 to 95 wt% of one or more (meth)acrylated compounds (a), - from 5 to 80 wt% of one or more metal salts of a C10 to C22 fatty acid (b), and - from 0 to 10 wt% of one or more of compounds (c) different from (an) and (b),
A system for aspirating thrombi using a varying suction pattern, the system comprising: a flexible catheter ; an automated negative suction device configured to facilitate thrombus aspiration by generating at least a first negative suction pattern, wherein the first negative suction pattern comprises a plurality of different intensity levels, wherein the first negative suction pattern may be selectable using an external control panel , and wherein the first negative suction pattern comprises a first intensity level for a first duration and a second intensity level for a second duration, and wherein suction of the first intensity level is different than suction of the second intensity level. a flexible catheter ; an automated negative suction device configured to facilitate thrombus aspiration by generating at least a first negative suction pattern, wherein the first negative suction pattern comprises a plurality of different intensity levels, wherein the first negative suction pattern may be selectable using an external control panel , and wherein the first negative suction pattern comprises a first intensity level for a first duration and a second intensity level for a second duration, and wherein suction of the first intensity level is different than suction of the second intensity level.
A device for supplying a patient with oxygenated breathable gas having: an apparatus for providing oxygenated breathable gas; a supply line connected to the apparatus, through which the oxygenated breathable gas can be supplied from the apparatus to a patient; and a detector which is suitable to detect an increase in the volume flow of oxygenated breathable gas and/or a drop in pressure of the oxygenated breathable gas; wherein the device is suitable to stop the supply of the oxygenated breathable gas if the volume flow of oxygenated breathable gas increases and/or the pressure of the oxygenated breathable gas drops, and wherein the supply line comprises a patient-proximate section (5a; 5b) having an increased flow resistance vis-à-vis the flow resistance of the remaining part of the supply line, which is configured such that the flow resistance is reduced under the effect of heat; further with a valve which stops the supply of the oxygenated breathable gas if the volume flow of oxygenated breathable gas increases and/or the pressure of the oxygenated breathable gas drops, wherein the valve is suitable to automatically stop the supply of the oxygenated breathable gas if the volume flow of oxygenated breathable gas increases and/or the pressure of the oxygenated breathable gas drops. an apparatus for providing oxygenated breathable gas; a supply line connected to the apparatus, through which the oxygenated breathable gas can be supplied from the apparatus to a patient; and a detector which is suitable to detect an increase in the volume flow of oxygenated breathable gas and/or a drop in pressure of the oxygenated breathable gas; wherein the device is suitable to stop the supply of the oxygenated breathable gas if the volume flow of oxygenated breathable gas increases and/or the pressure of the oxygenated breathable gas drops, and wherein the supply line comprises a patient-proximate section (5a; 5b) having an increased flow resistance vis-à-vis the flow resistance of the remaining part of the supply line, which is configured such that the flow resistance is reduced under the effect of heat; further with a valve which stops the supply of the oxygenated breathable gas if the volume flow of oxygenated breathable gas increases and/or the pressure of the oxygenated breathable gas drops, wherein the valve is suitable to automatically stop the supply of the oxygenated breathable gas if the volume flow of oxygenated breathable gas increases and/or the pressure of the oxygenated breathable gas drops.
A humidifier comprising: a case having an inner space; a fan motor assembly mounted in the inner space of the case to blow air; a disk assembly rotatably mounted in the inner space of the case , the disk assembly comprising a plurality of moisture disks for humidifying suctioned air and a driving disk for rotating the moisture disks ; and a disk handle disposed on the driving disk , the disk handle being graspeable by a user for movement of the disk assembly ; characterized by a water supply part disposed on an upper portion of the case to supply water; a first inner case disposed on one side of the disk assembly to guide a flow of the water supplied through the water supply part ; and a second case disposed inside the first inner case to guide a flow of air passing through the disk assembly . a case having an inner space; a fan motor assembly mounted in the inner space of the case to blow air; a disk assembly rotatably mounted in the inner space of the case , the disk assembly comprising a plurality of moisture disks for humidifying suctioned air and a driving disk for rotating the moisture disks ; and a disk handle disposed on the driving disk , the disk handle being graspeable by a user for movement of the disk assembly ; characterized by a water supply part disposed on an upper portion of the case to supply water; a first inner case disposed on one side of the disk assembly to guide a flow of the water supplied through the water supply part ; and a second case disposed inside the first inner case to guide a flow of air passing through the disk assembly .
A method for transmitting aggregated data to a third party, such that a privacy of the aggregated data is protected, while analytical usefulness of the aggregated data is preserved, comprising: receiving , using a transceiver , aggregated data including time-series data collected over a period of time; partitioning the aggregated data into multiple data segments , wherein each data segment is of a predetermined size; determining, for each segment, a parameter for that data segment; then selecting , from a collection of mappings in a memory based on the determined parameter , and parameters corresponding to the mappings, a mapping for transforming the segment of the aggregated data , wherein the mapping protects the privacy of the aggregated data, while preserving their usefulness; transforming each data segment using the mapping to produce multiple transformed data segments , wherein each data segment is transformed by the mapping independently from other data segments; and transmitting , using the transceiver, the multiple transformed data segments to a third party over a communication channel, wherein steps of the method are performed by a processor operatively connected with the memory and the transceiver. receiving , using a transceiver , aggregated data including time-series data collected over a period of time; partitioning the aggregated data into multiple data segments , wherein each data segment is of a predetermined size; determining, for each segment, a parameter for that data segment; then selecting , from a collection of mappings in a memory based on the determined parameter , and parameters corresponding to the mappings, a mapping for transforming the segment of the aggregated data , wherein the mapping protects the privacy of the aggregated data, while preserving their usefulness; transforming each data segment using the mapping to produce multiple transformed data segments , wherein each data segment is transformed by the mapping independently from other data segments; and transmitting , using the transceiver, the multiple transformed data segments to a third party over a communication channel, wherein steps of the method are performed by a processor operatively connected with the memory and the transceiver.
A manifold for connecting an electric pumping assembly, comprising: - a tubular main body , said tubular main body having at least one hole with an axis of extension (Y) that is perpendicular to the axis of extension (X) of said tubular main body , - two tubular portions arranged at the longitudinal ends of said tubular main body and coaxial therewith, wherein said tubular main body has a wall with a thickness on the order of 1 mm, characterized in that at said at least one hole there is a second seat for accommodating a sealing element, which is provided by drawing the edge of said at least one hole toward the inside of said tubular main body . - a tubular main body , said tubular main body having at least one hole with an axis of extension (Y) that is perpendicular to the axis of extension (X) of said tubular main body , - two tubular portions arranged at the longitudinal ends of said tubular main body and coaxial therewith,
An apparatus for use in connection with an implement (C) for being inserted into a vascular space, comprising: a tubular body having a passage adapted for receiving the implement (C); and a mechanical counter for counting and displaying the amount the implement moves through the passage of the tubular body , the counter being provided on the tubular body , wherein the counter comprises a tracking device connected to the tubular body and interfacing with the implement to track the movement of the implement (C) through the passage , the tracking device comprises one or more rollers projecting into the passage and arranged for engaging the tubular body , and the counter comprises at least one wheel including a plurality of numbers to display a count, said wheel being rotated in response to the tracking device tracking the movement of the implement (C). a tubular body having a passage adapted for receiving the implement (C); and a mechanical counter for counting and displaying the amount the implement moves through the passage of the tubular body , the counter being provided on the tubular body , wherein the counter comprises a tracking device connected to the tubular body and interfacing with the implement to track the movement of the implement (C) through the passage , the tracking device comprises one or more rollers projecting into the passage and arranged for engaging the tubular body , and the counter comprises at least one wheel including a plurality of numbers to display a count, said wheel being rotated in response to the tracking device tracking the movement of the implement (C).
A semiconductor light emitting device comprising: a first semiconductor layer having a first major surface , a second major surface provided on an opposite side to the first major surface , a protrusion selectively provided on the second major surface , and a trench formed from the second major surface to the first major surface ; a second semiconductor layer stacked on the protrusion of the first semiconductor layer and including a light emitting layer ; a first electrode provided on the second major surface of the first semiconductor layer and on a side surface of the trench ; a second electrode provided on a surface of the second semiconductor layer on an opposite side to the first semiconductor layer ; a first interconnection provided on a surface of the first electrode on an opposite side to the second major surface and on an inner side surface of the first electrode in the trench ; and a second interconnection provided on a surface of the second electrode on an opposite side to the second semiconductor layer . a first semiconductor layer having a first major surface , a second major surface provided on an opposite side to the first major surface , a protrusion selectively provided on the second major surface , and a trench formed from the second major surface to the first major surface ; a second semiconductor layer stacked on the protrusion of the first semiconductor layer and including a light emitting layer ; a first electrode provided on the second major surface of the first semiconductor layer and on a side surface of the trench ; a second electrode provided on a surface of the second semiconductor layer on an opposite side to the first semiconductor layer ; a first interconnection provided on a surface of the first electrode on an opposite side to the second major surface and on an inner side surface of the first electrode in the trench ; and a second interconnection provided on a surface of the second electrode on an opposite side to the second semiconductor layer .