mhurhangee/patent-ind-claim-en huggingface dataset:
A roller brush device, comprising: a roller brush ; and a mounting assembly connected with the roller brush , the roller brush being rotatable relative to the mounting assembly, the mounting assembly being capable of driving the roller brush to move, a side of the mounting assembly being provided with an avoidance notch , and the roller brush being exposed at the avoidance notch , wherein the mounting assembly comprises a mounting rack and a shielding plate , an interior of the mounting rack is hollow, the shielding plate is sealably arranged in the interior of the mounting rack to separate a space in the mounting rack into a first space and a second space isolated from each other, and the first space is formed into at least a part of the accommodating cavity , characterized in that the roller brush device further comprises a lifting portion connected with the mounting rack , and at least a part of the lifting portion being exposed at a top side of the mounting rack . a roller brush ; and a mounting assembly connected with the roller brush , the roller brush being rotatable relative to the mounting assembly, the mounting assembly being capable of driving the roller brush to move, a side of the mounting assembly being provided with an avoidance notch , and the roller brush being exposed at the avoidance notch , wherein the mounting assembly comprises a mounting rack and a shielding plate , an interior of the mounting rack is hollow, the shielding plate is sealably arranged in the interior of the mounting rack to separate a space in the mounting rack into a first space and a second space isolated from each other, and the first space is formed into at least a part of the accommodating cavity , characterized in that the roller brush device further comprises a lifting portion connected with the mounting rack , and at least a part of the lifting portion being exposed at a top side of the mounting rack .
An electric motor, comprising: a shaft extending along an axial direction; a stator including an inner peripheral surface which faces said shaft with an air gap (A1) therebetween in said radial direction; a rotor provided farther away from said shaft than said stator in a radial direction of said shaft; a stator fixing part fixed to said shaft and also fixed to said stator; and a rotor fixing part facing said stator fixing part and said stator also with said air gap (A1) therebetween in said axial direction, arranged rotatably relative to said shaft, and also fixed to said rotor, wherein a rotor hole which passes through said rotor fixing part to be communicated with said air gap is formed in said rotor fixing part, and a stator hole formed in said stator fixing part, said stator hole being located between the shaft and the inner peripheral surface of the stator and passing said stator fixing part to be communicated with said rotor hole with said air gap (A1) therebetween, wherein the electric motor further comprises a protruding part provided between said stator and said rotor fixing part and protruding from one of said stator and said rotor fixing part toward other one of said stator and said rotor fixing part, and said rotor hole is located nearer said shaft in relation to said protruding part. a shaft extending along an axial direction; a stator including an inner peripheral surface which faces said shaft with an air gap (A1) therebetween in said radial direction; a rotor provided farther away from said shaft than said stator in a radial direction of said shaft; a stator fixing part fixed to said shaft and also fixed to said stator; and a rotor fixing part facing said stator fixing part and said stator also with said air gap (A1) therebetween in said axial direction, arranged rotatably relative to said shaft, and also fixed to said rotor, wherein a rotor hole which passes through said rotor fixing part to be communicated with said air gap is formed in said rotor fixing part, and a stator hole formed in said stator fixing part, said stator hole being located between the shaft and the inner peripheral surface of the stator and passing said stator fixing part to be communicated with said rotor hole with said air gap (A1) therebetween, wherein the electric motor further comprises a protruding part provided between said stator and said rotor fixing part and protruding from one of said stator and said rotor fixing part toward other one of said stator and said rotor fixing part, and said rotor hole is located nearer said shaft in relation to said protruding part.
An information display method comprising: inputting (S22), by an input, a work information for identifying a maintenance work to be conducted in a plant; identifying (S22), by an identifier, a plurality of field devices associated with the work information input by the input using master data in which the work information and device identification information for identifying the plurality of field devices are associated with each other; and displaying (S23), by a display, a set of device-state-related information generated by the plurality of field devices identified by the identifier. inputting (S22), by an input, a work information for identifying a maintenance work to be conducted in a plant; identifying (S22), by an identifier, a plurality of field devices associated with the work information input by the input using master data in which the work information and device identification information for identifying the plurality of field devices are associated with each other; and displaying (S23), by a display, a set of device-state-related information generated by the plurality of field devices identified by the identifier.
A rear drive assembly for use in a personal mobility vehicle, the personal mobility vehicle comprising: a body having a support member, a front wheel supported by the body, and a rear wheel supported by the body, the rear drive assembly comprising: a first housing having a receiving area; a bearing configured to be received at least partly in the rear wheel ; a motor and a plurality of gears, a bearing gear , the bearing gear being configured to be received within a one-way bearing connector and within the receiving area of the first housing, the bearing gear comprising a plurality of flanges extending radially outward from an outer surface of the bearing gear , the flanges being received within corresponding recesses on an inside surface of the one-way bearing connector and corresponding recesses on an inside surface of the receiving area of the first housing; wherein the rear drive assembly is supported by the body and arranged to transfer rotational force to the rear wheel ; and wherein the rear drive assembly is configured to transfer rotational force in a first direction to the rear wheel and is configured to allow the rear wheel to rotate freely in a second direction. a first housing having a receiving area; a bearing configured to be received at least partly in the rear wheel ; a motor and a plurality of gears, a bearing gear , the bearing gear being configured to be received within a one-way bearing connector and within the receiving area of the first housing, the bearing gear comprising a plurality of flanges extending radially outward from an outer surface of the bearing gear , the flanges being received within corresponding recesses on an inside surface of the one-way bearing connector and corresponding recesses on an inside surface of the receiving area of the first housing; wherein the rear drive assembly is supported by the body and arranged to transfer rotational force to the rear wheel ; and wherein the rear drive assembly is configured to transfer rotational force in a first direction to the rear wheel and is configured to allow the rear wheel to rotate freely in a second direction.
A computer-implemented method of identifying one or more focal source locations of electrophysiological activity for a heart using intracardiac electrograms of the heart, the method comprising: receiving a first electrical signal set obtained from a first location of the heart, wherein the first electrical signal set comprises a unipolar electrogram and a bipolar electrogram ; determining that the first electrical signal set is periodic; identifying a periodicity cycle length of the first electrical signal set if the first electrical signal set is periodic; characterized in that the method further comprises: identifying a plurality of peaks in the bipolar electrogram of the first electrical signal set that are associated with the identified periodicity cycle length; for a given peak in the identified plurality of peaks, analyzing a peak morphology by: identifying a unipolar electrogram portion in the unipolar electrogram corresponding to the given peak ; and analyzing the identified unipolar electrogram portion to identify the peak morphology of the given peak ; and identifying the first location in the heart as a first focal source location of the one or more focal source locations when the identified periodicity cycle length and the identified plurality of peaks have focal source characteristics, wherein the focal source characteristics comprise at least a threshold percentage of peak morphologies in the first electrical signal set being associated with the identified plurality of peaks having a QS morphology. receiving a first electrical signal set obtained from a first location of the heart, wherein the first electrical signal set comprises a unipolar electrogram and a bipolar electrogram ; determining that the first electrical signal set is periodic; identifying a periodicity cycle length of the first electrical signal set if the first electrical signal set is periodic; identifying a plurality of peaks in the bipolar electrogram of the first electrical signal set that are associated with the identified periodicity cycle length; for a given peak in the identified plurality of peaks, analyzing a peak morphology by: identifying a unipolar electrogram portion in the unipolar electrogram corresponding to the given peak ; and analyzing the identified unipolar electrogram portion to identify the peak morphology of the given peak ; and identifying a unipolar electrogram portion in the unipolar electrogram corresponding to the given peak ; and analyzing the identified unipolar electrogram portion to identify the peak morphology of the given peak ; and identifying the first location in the heart as a first focal source location of the one or more focal source locations when the identified periodicity cycle length and the identified plurality of peaks have focal source characteristics, wherein the focal source characteristics comprise at least a threshold percentage of peak morphologies in the first electrical signal set being associated with the identified plurality of peaks having a QS morphology.
A partial dental arch, including dentine and incisal materials and a boundary surface therebetween, having a primary position teeth region and other teeth regions which are arranged more distally, wherein a corrugation of the boundary surface decreases in the occlusal-gingival direction, characterized by - a corrugation of the boundary surface, the amplitude of which, as viewed in the distal direction, decreases in at least a sub-region of the mesial-distal extension, and - in that the dentine material has a lingual/palatal and a vestibular dentine ridge, and - in that the corrugation of the vestibular dentine ridge is significantly larger, in particular at least 10 times larger than the corrugation of the other dentine ridge. - a corrugation of the boundary surface, the amplitude of which, as viewed in the distal direction, decreases in at least a sub-region of the mesial-distal extension, and - in that the dentine material has a lingual/palatal and a vestibular dentine ridge, and - in that the corrugation of the vestibular dentine ridge is significantly larger, in particular at least 10 times larger than the corrugation of the other dentine ridge.
A battery module , comprising: a battery cell assembly including at least one battery cell ; a base plate configured to support a lower side of the battery cell assembly; and a pressing pulley unit elastically connected to the base plate and configured to cover an upper side of the battery cell assembly, the pressing pulley unit being elastically deformable in a vertical direction of the battery cell assembly according to cell swelling of the battery cell assembly; wherein the pressing pulley unit includes: a pressing plate disposed at an upper side of the battery cell assembly and configured to be movable along the vertical direction; a pair of pulley units connected to the pressing plate and disposed at both sides of the battery cell assembly; and a pair of elastic straps connected to the pair of pulley units and fixed to the base plate. a battery cell assembly including at least one battery cell ; a base plate configured to support a lower side of the battery cell assembly; and a pressing pulley unit elastically connected to the base plate and configured to cover an upper side of the battery cell assembly, the pressing pulley unit being elastically deformable in a vertical direction of the battery cell assembly according to cell swelling of the battery cell assembly; wherein the pressing pulley unit includes: a pressing plate disposed at an upper side of the battery cell assembly and configured to be movable along the vertical direction; a pair of pulley units connected to the pressing plate and disposed at both sides of the battery cell assembly; and a pair of elastic straps connected to the pair of pulley units and fixed to the base plate. a pressing plate disposed at an upper side of the battery cell assembly and configured to be movable along the vertical direction; a pair of pulley units connected to the pressing plate and disposed at both sides of the battery cell assembly; and a pair of elastic straps connected to the pair of pulley units and fixed to the base plate.
A compound represented by the formula (I): wherein A is a cyclic group which is optionally further substituted; R 1 is a hydrogen atom or a hydroxyl group; R 2 and R 3 are each independently a hydrogen atom, a halogen atom, a cyano group, an optionally substituted C 1-6 alkyl group, an optionally substituted C 2-6 alkenyl group, an optionally substituted C 3-6 cycloalkyl group, or an optionally substituted C 1-6 alkoxy group; R 4 is a hydrogen atom or a halogen atom; R 5 is an optionally substituted 5- or 6-membered aromatic heterocyclic group, a halogen atom, a cyano group, an optionally substituted C 1-6 alkyl group, or an optionally substituted C 1-6 alkoxy group; and X is CH or N, or a salt thereof. A is a cyclic group which is optionally further substituted; R 1 is a hydrogen atom or a hydroxyl group; R 2 and R 3 are each independently a hydrogen atom, a halogen atom, a cyano group, an optionally substituted C 1-6 alkyl group, an optionally substituted C 2-6 alkenyl group, an optionally substituted C 3-6 cycloalkyl group, or an optionally substituted C 1-6 alkoxy group; R 4 is a hydrogen atom or a halogen atom; R 5 is an optionally substituted 5- or 6-membered aromatic heterocyclic group, a halogen atom, a cyano group, an optionally substituted C 1-6 alkyl group, or an optionally substituted C 1-6 alkoxy group; and X is CH or N,
Method for operating a cooking appliance comprising a cooking chamber for receiving a food to be cooked, an operating device for setting an operating mode of the cooking appliance , a heating device for heating the cooking chamber , and a control device for controlling at least the heating device in such a way that after setting the operating mode, a heating programme is carried out, wherein after setting an operating mode of the cooking appliance by means of a monitoring device, a loading state of the cooking chamber is determined, wherein determining the loading state comprises at least distinguishing whether or not the food to be cooked is in the cooking chamber , and depending on the determined loading state, a heating programme is selected and carried out from a plurality of stored heating programmes, characterised in that depending on an opening and subsequent closing of a cooking chamber door , the loading state of the cooking chamber is again determined and, if necessary, the heating programme is changed when the loading state is changed. wherein after setting an operating mode of the cooking appliance by means of a monitoring device, a loading state of the cooking chamber is determined, wherein determining the loading state comprises at least distinguishing whether or not the food to be cooked is in the cooking chamber , and depending on the determined loading state, a heating programme is selected and carried out from a plurality of stored heating programmes, characterised in that depending on an opening and subsequent closing of a cooking chamber door , the loading state of the cooking chamber is again determined and, if necessary, the heating programme is changed when the loading state is changed.
A target detection device comprising: a transmission means configured to continuously transmit a wave propagating through a medium, wherein the transmitted wave is a modulated continuous wave; a reception means configured to receive a reflected wave that the wave is reflected in the medium; a signal processing device configured to estimate a lower limit distance of a detection distance range for which an intensity level of a scattered wave from the medium in the detection distance range is equal to or smaller than an allowable level, and remove, from a signal of the reflected wave received by the reception means , a signal of a scattered wave from the medium in a masking region from the reception means to the lower limit distance to perform output; and a detection means configured to detect a target in the medium, based on an output from the signal processing device , wherein the transmission means is configured to perform frequency modulation, phase modulation, or amplitude modulation to transmit the wave, and wherein the signal processing device is configured to remove, from a signal of the reflected wave received by the reception means , a signal of a scattered wave from the medium in the masking region based on modulation information of the reflected wave received by the reception means . a transmission means configured to continuously transmit a wave propagating through a medium, wherein the transmitted wave is a modulated continuous wave; a reception means configured to receive a reflected wave that the wave is reflected in the medium; a signal processing device configured to estimate a lower limit distance of a detection distance range for which an intensity level of a scattered wave from the medium in the detection distance range is equal to or smaller than an allowable level, and remove, from a signal of the reflected wave received by the reception means , a signal of a scattered wave from the medium in a masking region from the reception means to the lower limit distance to perform output; and a detection means configured to detect a target in the medium, based on an output from the signal processing device , wherein the transmission means is configured to perform frequency modulation, phase modulation, or amplitude modulation to transmit the wave, and wherein the signal processing device is configured to remove, from a signal of the reflected wave received by the reception means , a signal of a scattered wave from the medium in the masking region based on modulation information of the reflected wave received by the reception means .
Anifrolumab for use in a method of treating lupus nephritis (LN) in a subject in need thereof, the method comprising subcutaneously administering a first dose of 1050 to 1200 mg of anifrolumab to the subject once every 4 weeks (Q4W) at least 3 times before administration of a second dose of anifrolumab, wherein the first dose is higher than the second dose, and wherein the method reduces lupus nephritis (LN) disease activity in the subject.
A system comprising: a) a catheter insertable into a patient for monitoring pressure, the catheter comprising a first balloon at a distal portion of the catheter, the first balloon having a first outer wall expandable from a first condition to a more expanded condition; and a second balloon having a second outer wall, the first balloon being external of the second balloon, the second balloon having a fluid chamber to monitor pressure within the patient, wherein in response to pressure exerted on an outer wall of the expanded first balloon fluid pressure is exerted on an outer wall of the expanded second balloon to deform the second balloon and compress the fluid within the second balloon to provide a pressure measurement; and characterized by b) a smart cable connectable at one end to the catheter and to a pressure monitor at the opposite end, the cable having data storage capability, the cable being configured to store a pressure value of the second balloon, the cable having a printed circuit and a movement adjustment feature configured to adjust pressure values in response to a patient moving from a supine position. a) a catheter insertable into a patient for monitoring pressure, the catheter comprising a first balloon at a distal portion of the catheter, the first balloon having a first outer wall expandable from a first condition to a more expanded condition; and a second balloon having a second outer wall, the first balloon being external of the second balloon, the second balloon having a fluid chamber to monitor pressure within the patient, wherein in response to pressure exerted on an outer wall of the expanded first balloon fluid pressure is exerted on an outer wall of the expanded second balloon to deform the second balloon and compress the fluid within the second balloon to provide a pressure measurement; and characterized by a first balloon at a distal portion of the catheter, the first balloon having a first outer wall expandable from a first condition to a more expanded condition; and a second balloon having a second outer wall, the first balloon being external of the second balloon, the second balloon having a fluid chamber to monitor pressure within the patient, wherein in response to pressure exerted on an outer wall of the expanded first balloon fluid pressure is exerted on an outer wall of the expanded second balloon to deform the second balloon and compress the fluid within the second balloon to provide a pressure measurement; and characterized by b) a smart cable connectable at one end to the catheter and to a pressure monitor at the opposite end, the cable having data storage capability, the cable being configured to store a pressure value of the second balloon, the cable having a printed circuit and a movement adjustment feature configured to adjust pressure values in response to a patient moving from a supine position.