mhurhangee/patent-ind-claim-en huggingface dataset:
Inverter having a switching stage with at least one switching leg (SLn), wherein the at least one switching leg (SLn) comprises at least two serially connected semiconductor switches (Snm) and an AC pole (ACPn) between the serially connected semiconductor switches (Snm), wherein the AC pole (ACPn) is serially connected to a choke (L), and wherein a current detection device is provided for detecting a leg current (i Ln ) in the choke (L), wherein the current detection device comprises a voltage measurement unit configured to measure the voltage (u Ln ) at the choke (L), and further comprises an integrator configured to integrate the measured voltage (u Ln ) at the choke (L) over time (t), wherein the time integral (∫u Ln ) of the voltage (u Ln ) at the choke (L) represents the leg current (i Ln ) in the choke (L), and further comprises a processing unit for processing the time integral (∫u Ln ) provided by the integrator , wherein the inverter further comprises an inverter controller configured to use the processed time integral (∫u Ln ) for controlling the inverter , characterised in that two integrator capacitors (C I ) in series are arranged in the integrator , wherein across each of the integrator capacitors (C I ) a reset switch (Si) is provided, for alternately resetting the corresponding integrator capacitor (C I ).
A detector for detecting a buried conductor , the detector comprising: a plurality of antennas (13, T, B) for detecting an electromagnetic field ; a plurality of windings , each wound around a respective antenna (T, B), each winding being connected to a current source for providing a predefined current in the winding to generate an electromagnetic field at the respective antenna (T, B), thereby inducing a test current in the respective antenna (T, B); a memory for storing calibration data of the antennas (T, B), characterised by : the calibration data comprising a separate record for each antenna of the test current induced in that antenna when the predefined current was applied to the winding wound around that antenna when the antennas were calibrated with respect to each other; and a processor configured to compare the test currents in the antennas (T, B) with the calibration data to determine if the test currents are within predetermined limits of the calibration data. a plurality of antennas (13, T, B) for detecting an electromagnetic field ; a plurality of windings , each wound around a respective antenna (T, B), each winding being connected to a current source for providing a predefined current in the winding to generate an electromagnetic field at the respective antenna (T, B), thereby inducing a test current in the respective antenna (T, B); a memory for storing calibration data of the antennas (T, B), characterised by : the calibration data comprising a separate record for each antenna of the test current induced in that antenna when the predefined current was applied to the winding wound around that antenna when the antennas were calibrated with respect to each other; and a processor configured to compare the test currents in the antennas (T, B) with the calibration data to determine if the test currents are within predetermined limits of the calibration data. the calibration data comprising a separate record for each antenna of the test current induced in that antenna when the predefined current was applied to the winding wound around that antenna when the antennas were calibrated with respect to each other; and a processor configured to compare the test currents in the antennas (T, B) with the calibration data to determine if the test currents are within predetermined limits of the calibration data.
A filtration vessel , comprising: an outer housing defining a filtration chamber , the housing having an inlet port and an outlet port ; a partition plate in the housing dividing the filtration chamber into an inlet chamber communicating with the inlet port and an outlet chamber communicating with the outlet port , the partition plate having a first face facing to the inlet chamber ; a hole defined in the partition plate ; a perforated sleeve mounted in the hole in the partition plate , the sleeve having a solid ring portion lining the hole to provide a radial seal surface, the sleeve comprising a flange attached to the first face of the partition plate ; a filter element removably installed into the sleeve , the filter element having a seal sealing radially against the radial seal surface; characterized in that the seal is a chevron seal which has an annular base portion wedged into a groove on an open end cap of the filter element positively engaging all three sides of the groove, and an annular sealing flange , the annular sealing flange extending at a canted angle (α) from the annular base portion defining a pocket therebetween, the pocket being arranged such that it opens towards the inlet chamber , a diameter of an inner peripheral surface of the solid ring portion being smaller than the outer diameter of the chevron seal and larger than a diameter of the outer peripheral surface of the end cap of the filter element so that the chevron seal is in a radially compressed state when received within the perforated sleeve . an outer housing defining a filtration chamber , the housing having an inlet port and an outlet port ; a partition plate in the housing dividing the filtration chamber into an inlet chamber communicating with the inlet port and an outlet chamber communicating with the outlet port , the partition plate having a first face facing to the inlet chamber ; a hole defined in the partition plate ; a perforated sleeve mounted in the hole in the partition plate , the sleeve having a solid ring portion lining the hole to provide a radial seal surface, the sleeve comprising a flange attached to the first face of the partition plate ; a filter element removably installed into the sleeve , the filter element having a seal sealing radially against the radial seal surface; characterized in that the seal is a chevron seal which has an annular base portion wedged into a groove on an open end cap of the filter element positively engaging all three sides of the groove, and an annular sealing flange , the annular sealing flange extending at a canted angle (α) from the annular base portion defining a pocket therebetween, the pocket being arranged such that it opens towards the inlet chamber , a diameter of an inner peripheral surface of the solid ring portion being smaller than the outer diameter of the chevron seal and larger than a diameter of the outer peripheral surface of the end cap of the filter element so that the chevron seal is in a radially compressed state when received within the perforated sleeve .
A fan disk for a turbojet engine wherein a gas flow circulates in a circulation direction, said fan disk having a radial section in the shape of a pin comprising: - a first branch , designed to be fixed to a drive shaft of the turbojet engine , - a second branch , extending facing the first branch and designed to support a plurality of fan blades , and - a curved junction wall extending between the first branch and the second branch , the fan disk carrying a plurality of fan blades and being characterised in that the second branch comprises a recess extending in one inner face at its junction with the junction wall and in that the fan blades are made of a composite material. - a first branch , designed to be fixed to a drive shaft of the turbojet engine , - a second branch , extending facing the first branch and designed to support a plurality of fan blades , and - a curved junction wall extending between the first branch and the second branch ,
An Intelligent Transportation System, ITS, service station, comprising: a receiver configured to receive, via radio communication from each of a set (T) of ITS stations (S Uj ), a status message (M U ) which includes the geographical position (P j ) of said ITS station (S Uj ); a controller connected to the receiver and configured to determine, on the basis of the received geographical positions (P j ), whether a subset (T Sk ) of ITS stations (S Uj ) in said set (T) meets a predetermined criterion of mutual proximity; and a transmitter connected to the controller ; characterized by the transmitter being configured to transmit, when said subset (T Sk ) comprises two or more ITS stations (S Uj ), a service message (M S ) indicative of the subset (T Sk ) via radio communication to the ITS stations (S Uj ) of said subset (T Sk ). a receiver configured to receive, via radio communication from each of a set (T) of ITS stations (S Uj ), a status message (M U ) which includes the geographical position (P j ) of said ITS station (S Uj ); a controller connected to the receiver and configured to determine, on the basis of the received geographical positions (P j ), whether a subset (T Sk ) of ITS stations (S Uj ) in said set (T) meets a predetermined criterion of mutual proximity; and a transmitter connected to the controller ; characterized by the transmitter being configured to transmit, when said subset (T Sk ) comprises two or more ITS stations (S Uj ), a service message (M S ) indicative of the subset (T Sk ) via radio communication to the ITS stations (S Uj ) of said subset (T Sk ).
A device comprising: an OLED; and a curved outcoupling component comprising a material having an index of refraction n, the component having a curved outer surface with an outer radius R and a curved inner surface with an inner radius r with which the OLED is optically coupled, wherein all emissive elements of the OLED are within an inner radius r of the center of curvature of the outer surface of the outcoupling component, wherein R - r > (n - 1)r, where R - r is the minimum thickness of the outcoupling component and wherein the curved outer surface and the curved inner surface are arranged concentrically, and wherein the OLED is disposed on the curved inner surface of the outcoupling component. an OLED; and a curved outcoupling component comprising a material having an index of refraction n, the component having a curved outer surface with an outer radius R and a curved inner surface with an inner radius r with which the OLED is optically coupled, wherein all emissive elements of the OLED are within an inner radius r of the center of curvature of the outer surface of the outcoupling component, wherein R - r > (n - 1)r, where R - r is the minimum thickness of the outcoupling component and wherein the curved outer surface and the curved inner surface are arranged concentrically, and wherein the OLED is disposed on the curved inner surface of the outcoupling component.
An airbag apparatus for a vehicle, the airbag apparatus comprising: an airbag cushion which is inflated and deployed in a forward direction (F) from both sides of a passenger upon vehicle collision to protect both sides of the passenger; and an inflater configured to generate gas by an impact detection signal and to supply the gas to the airbag cushion , wherein the airbag cushion comprises a first airbag configured to protect both sides or one side from passenger's shoulder to passenger's lower body part; and a second airbag configured to protect passenger's head and both sides of passenger's shoulder wherein, when the second airbag is deployed, a center of the second airbag is disposed on a rear side of a headrest , both ends of the second airbag are inflated and deployed in a forward direction (F) and in upward and downward directions (U, D) from both sides of the passenger's head, wherein the both ends of the deployed second airbag overlap an upper end of the first airbag , characterized in that the both ends of the second airbag are disposed further inside than the upper end of the first airbag and are supported by the first airbag to prevent or restrain lateral movement of the passenger's head upon lateral collision of the vehicle. an airbag cushion which is inflated and deployed in a forward direction (F) from both sides of a passenger upon vehicle collision to protect both sides of the passenger; and an inflater configured to generate gas by an impact detection signal and to supply the gas to the airbag cushion , wherein the airbag cushion comprises a first airbag configured to protect both sides or one side from passenger's shoulder to passenger's lower body part; and a second airbag configured to protect passenger's head and both sides of passenger's shoulder wherein, when the second airbag is deployed, a center of the second airbag is disposed on a rear side of a headrest , both ends of the second airbag are inflated and deployed in a forward direction (F) and in upward and downward directions (U, D) from both sides of the passenger's head, wherein the both ends of the deployed second airbag overlap an upper end of the first airbag , characterized in that the both ends of the second airbag are disposed further inside than the upper end of the first airbag and are supported by the first airbag to prevent or restrain lateral movement of the passenger's head upon lateral collision of the vehicle.
A method for producing a nanoparticle comprising the steps of preparing an ingredient liquid for production of a nanopaiticle wherein an ingredient material is mixed with a solvent, disposing a reaction tube in which said ingredient liquid flows, filling said ingredient liquid and/or the same solvent as said ingredient liquid inside of said reaction tube, controlling a temperature of said solvent of said reaction tube at a synthesis temperature of said nanoparticle, supplying said ingredient liquid to an inflow end of said reaction tube, forming a spiral flow streaming from said inflow end to an outflow end that goes around along a circumferential direction of an inner surface of an outer wall in said reaction tube while said ingredient liquid supplied is mixed with the solvent of said reaction tube or while said ingredient liquid is stirred, forming said nanoparticle from said ingredient material in said spiral flow, and emitting a generation liquid including said nanoparticle from said outflow end od said reaction tube, wherein said reaction tube is divided into one or more partitions along a streaming direction of said ingredient liquid, in an inlet side of said partition there is formed an annular opening portion which is opened in a circumferential direction along said inner surface of said outer wall, said spiral flow passes through said annular opening portion, so that an annular spiral flow streams through one or more partitions, and said nanoparticle is formed in said annular spiral flow, and wherein said partitions are formed by one or more separators disposed at an interval between each other, one or more gas omission holes are opened in said separator, so that a generation gas occurring in said partition passes upward through said gas omission hole.
An image capturing device configured to capture an image of a target , the image capturing device comprising: a probe including an optical component , the probe being configured to receive light from the target ; and a housing to be held by a user during utilization of the image capturing device , the housing including electronic components each configured to process the light received from the probe and an electronic substrate on which the electronic components are mounted, wherein the housing includes a first air sending unit configured to supply air to the optical component provided in the probe , and a controller configured to control driving of the first air sending unit , and the electronic substrate has a first substrate surface and a second substrate surface opposite to the first substrate surface , and a specific electronic component that generates a larger amount of heat than an amount of heat generated by other electronic components in the electronic components is mounted on the first substrate surface , and when a user holds the housing during utilization of the image capturing device , the first air sending unit is near the specific electronic component and characterized in that the first air sending unit is provided at a side of the second substrate surface . a probe including an optical component , the probe being configured to receive light from the target ; and a housing to be held by a user during utilization of the image capturing device , the housing including electronic components each configured to process the light received from the probe and an electronic substrate on which the electronic components are mounted, wherein the housing includes a first air sending unit configured to supply air to the optical component provided in the probe , and a controller configured to control driving of the first air sending unit , and the electronic substrate has a first substrate surface and a second substrate surface opposite to the first substrate surface , and a specific electronic component that generates a larger amount of heat than an amount of heat generated by other electronic components in the electronic components is mounted on the first substrate surface , and when a user holds the housing during utilization of the image capturing device , the first air sending unit is near the specific electronic component and characterized in that the first air sending unit is provided at a side of the second substrate surface .
A method of treating sludge including solids containing phosphorus, ammonia and magnesium and enhancing the dewaterability of the sludge, comprising: heating the incoming sludge in a dynamic heater or heat exchanger; directing the sludge to a biological fermenter ; biologically treating the sludge in the biological fermenter which is operated under anaerobic conditions; causing the solids to release phosphorus, ammonia and magnesium into a liquid forming a part of the sludge by maintaining: the temperature of the sludge in the fermenter to a temperature within the range of 50°C - 70°C; and controlling the hydraulic retention time of the sludge in the fermenter to 6 to 10 hours; directing the sludge from the fermenter to a solids-liquid separator ; separating the solids from the liquid containing the released phosphorus, ammonia and magnesium; directing the separated solids to a dynamic mixer and heating the separated solids in the dynamic mixer; directing the separated solids from the dynamic mixer to a thermal hydrolysis reactor and thermally hydrolyzing the separated solids; after thermally hydrolyzing the separated solids, directing the separated solids to an anaerobic digester and anaerobically digesting the separated solids to produce anaerobically digested sludge; and directing at least some of the anaerobically digested sludge from the anaerobic digester to the fermenter or to a point upstream of the fermenter. heating the incoming sludge in a dynamic heater or heat exchanger; directing the sludge to a biological fermenter ; biologically treating the sludge in the biological fermenter which is operated under anaerobic conditions; causing the solids to release phosphorus, ammonia and magnesium into a liquid forming a part of the sludge by maintaining: the temperature of the sludge in the fermenter to a temperature within the range of 50°C - 70°C; and controlling the hydraulic retention time of the sludge in the fermenter to 6 to 10 hours; directing the sludge from the fermenter to a solids-liquid separator ; separating the solids from the liquid containing the released phosphorus, ammonia and magnesium; directing the separated solids to a dynamic mixer and heating the separated solids in the dynamic mixer; directing the separated solids from the dynamic mixer to a thermal hydrolysis reactor and thermally hydrolyzing the separated solids; after thermally hydrolyzing the separated solids, directing the separated solids to an anaerobic digester and anaerobically digesting the separated solids to produce anaerobically digested sludge; and directing at least some of the anaerobically digested sludge from the anaerobic digester to the fermenter or to a point upstream of the fermenter.
A mounting device for installing an electrical connection box in a wall, the mounting device comprising at least one claw for fixing the position of the mounting device , the at least one claw including a bracing system ; and a bridge for fitting the at least one claw , the bridge comprising at least one attaching portion for attaching the at least one claw to the bridge , the at least one attaching portion comprising an aperture adapted to engage the bracing system of the at least one claw , wherein the aperture allows pivoting of the bracing system so the at least one claw can fit the bridge while being allowed to tilt with respect to the bridge , and wherein the at least one claw has an elongated shape between a proximal portion and an opposite distal portion comprising anchoring means , characterized in that the bridge further comprises a bridge locking system comprising at least one tooth for alignment and locking of the angular position of at least one claw with respect to the bridge when assembled, the tooth comprising a jut at its tip adapted to engage and lock the position of the claw , the claw further comprises at least one rib extending longitudinally between the distal portion and the proximal portion for increasing the strength of the claw , wherein the claw further comprises a claw locking system comprising a depression on the at least one rib suitable for engaging and fitting the tooth in the bridge , for locking the position of the claw with respect to the bridge , when assembled.
Tetrahydrocannabivarin (THCV) in a pure or isolated form for use in the treatment of obesity wherein the THCV is an appetite suppressant.
A compound comprising iloperidone, 1-[4-[3-[4-(6-Fluoro-1,2-benzisoxazol-3-yl)-1-piperidinyl]propoxy]-3-methoxyphenyl]ethanol (P88), or a pharmaceutically acceptable salt of iloperidone or P88 for use in the treatment of a disorder selected from a group consisting of: schizophrenia, a schizoaffective disorder, depression, bipolar mania/depression, cardiac arrhythmia, Tourette's Syndrome, a psychotic disorder, a delusional disorder, and a schizophreniform disorder, in an individual whose KCNQ1 gene sequence is determined to be associated with an increased risk of QT prolongation, wherein the KCNQ1 gene sequence associated with the increased risk of QT prolongation includes one or more single nucleotide polymorphisms (SNPs) selected from the group consisting of: non-AA at position 2794989 of reference sequence AJ006345.1 (rs163177), AG at position 2704944 of reference sequence AJ006345.1 (rs231916), non-AA at position 2700435 of reference sequence AJ006345.1 (rs2283208), GG at position 2783193 of reference sequence AJ006345.1 (rs3852528), non-GG at position 2484579 of reference sequence AJ006345.1 (rsl 1023096), non-CC at position 2486738 of reference sequence AJ006345.1 (rs2237866), non-AC at position 2680180 of reference sequence AJ006345.1 (rs231841), and non-GG at position 2484900 of reference sequence AJ006345 (rs3819506); and wherein the quantity of the compound to be administered to the individual is less than 24 mg/day and less than would be administered to an individual having a KCNQ1 gene sequence not associated with an increased risk of QT prolongation. non-AA at position 2794989 of reference sequence AJ006345.1 (rs163177), AG at position 2704944 of reference sequence AJ006345.1 (rs231916), non-AA at position 2700435 of reference sequence AJ006345.1 (rs2283208), GG at position 2783193 of reference sequence AJ006345.1 (rs3852528), non-GG at position 2484579 of reference sequence AJ006345.1 (rsl 1023096), non-CC at position 2486738 of reference sequence AJ006345.1 (rs2237866), non-AC at position 2680180 of reference sequence AJ006345.1 (rs231841), and non-GG at position 2484900 of reference sequence AJ006345 (rs3819506); and