mhurhangee/patent-ind-claim-en huggingface dataset:
Electromechanical actuator for a shading device , the electromechanical actuator comprising at least: - a casing , - a torque support , the torque support being arranged at a first end of the casing , - an electrical power supply cable , the electrical power supply cable being configured to be connected to an electrical power supply network , the electrical power supply cable comprising either at least one shielding or at least one earth electrical conductor , - an electric motor , the electric motor being mounted within the casing , the electric motor being supplied with electrical energy via the electrical power supply cable , and - an electrostatic discharge device , the electrostatic discharge device comprising at least one electrical linking element , the electrical linking element being configured to be in electrical contact with a winding tube of a motorized driving device of the shading device , the electrical linking element being configured to electrically connect the shielding of the electrical power supply cable or the earth electrical conductor of the electrical power supply cable to the winding tube , characterized in that the torque support partly accommodates the electrical linking element , in that the electrical linking element is fixed relative to the torque support , and in that the electrical linking element partly exceeds outside the torque support . - a casing , - a torque support , the torque support being arranged at a first end of the casing , - an electrical power supply cable , the electrical power supply cable being configured to be connected to an electrical power supply network , the electrical power supply cable comprising either at least one shielding or at least one earth electrical conductor , - an electric motor , the electric motor being mounted within the casing , the electric motor being supplied with electrical energy via the electrical power supply cable , and - an electrostatic discharge device , the electrostatic discharge device comprising at least one electrical linking element , the electrical linking element being configured to be in electrical contact with a winding tube of a motorized driving device of the shading device , the electrical linking element being configured to electrically connect the shielding of the electrical power supply cable or the earth electrical conductor of the electrical power supply cable to the winding tube , in that the torque support partly accommodates the electrical linking element , in that the electrical linking element is fixed relative to the torque support , and in that the electrical linking element partly exceeds outside the torque support .
An overhead transport vehicle including a body unit capable of traveling along a track , and a lifting unit including a gripping part configured to grip an article and configured to ascend and descend with respect to the body unit by a suspending member , the overhead transport vehicle comprising: a body control unit provided in the body unit and configured to control respective units in the overhead transport vehicle ; a vibration detection unit provided in the lifting unit and configured to detect a vibration generated in the lifting unit ; and a vibration monitoring unit provided in the lifting unit and configured to determine whether a result of the vibration detected by the vibration detection unit is within a predetermined permissible range (R, R1, R2, R3) and also output a result of the determination to the body control unit . a body control unit provided in the body unit and configured to control respective units in the overhead transport vehicle ; a vibration detection unit provided in the lifting unit and configured to detect a vibration generated in the lifting unit ; and a vibration monitoring unit provided in the lifting unit and configured to determine whether a result of the vibration detected by the vibration detection unit is within a predetermined permissible range (R, R1, R2, R3) and also output a result of the determination to the body control unit .
A transportation system comprising: a plurality of hubs, each of the hubs corresponding to an area and comprising a plurality of connection slots or one or more landing pads, each of the connection slots and the landing pads being configured to accommodate a transportation unit; and characterised by a server configured to determine a number or type of transportations units to be allocated to each of the hubs based on movement data related to population movement between the areas and to allocate each of the transportation units to a respective hub, wherein the movement data comprise route data related to a population movement route or quantity data related to a number of floating population, wherein based on the route data, which are data related to a route along which population moves between the areas by period, the server is configured to allocate a larger number of transportation units to a hub located on a route on which population movement is more frequent, and wherein based on the quantity data, which are data related to a number of population moving between the areas by period, the server is configured to allocate a larger number of transportation units to a hub located in an area having higher population movement. a plurality of hubs, each of the hubs corresponding to an area and comprising a plurality of connection slots or one or more landing pads, each of the connection slots and the landing pads being configured to accommodate a transportation unit; and characterised by a server configured to determine a number or type of transportations units to be allocated to each of the hubs based on movement data related to population movement between the areas and to allocate each of the transportation units to a respective hub, wherein the movement data comprise route data related to a population movement route or quantity data related to a number of floating population, wherein based on the route data, which are data related to a route along which population moves between the areas by period, the server is configured to allocate a larger number of transportation units to a hub located on a route on which population movement is more frequent, and wherein based on the quantity data, which are data related to a number of population moving between the areas by period, the server is configured to allocate a larger number of transportation units to a hub located in an area having higher population movement.
A photoacoustic measurement probe, comprising: a light emitting unit that emits measurement light toward a subject (M); an optical fiber that guides the measurement light to the light emitting unit; an acoustic wave detector that detects an acoustic wave emitted from a part of the subject that has absorbed the measurement light and that includes a plurality of electroacoustic conversion elements arranged in at least a first direction; an amplifier that amplifies an output of the acoustic wave detector; a housing which is a tubular member including a side plate and in which the light emitting unit , the optical fiber , the acoustic wave detector , and the amplifier are housed; a first heat conductive member that is in contact with a first part of the side plate and the amplifier to transfer heat generated by the amplifier to the side plate; and a second heat conductive member that is in contact with a second part of the side plate, different from the first part, and the acoustic wave detector to transfer heat generated by the acoustic wave detector to the side plate. a light emitting unit that emits measurement light toward a subject (M); an optical fiber that guides the measurement light to the light emitting unit; an acoustic wave detector that detects an acoustic wave emitted from a part of the subject that has absorbed the measurement light and that includes a plurality of electroacoustic conversion elements arranged in at least a first direction; an amplifier that amplifies an output of the acoustic wave detector; a housing which is a tubular member including a side plate and in which the light emitting unit , the optical fiber , the acoustic wave detector , and the amplifier are housed; a first heat conductive member that is in contact with a first part of the side plate and the amplifier to transfer heat generated by the amplifier to the side plate; and a second heat conductive member that is in contact with a second part of the side plate, different from the first part, and the acoustic wave detector to transfer heat generated by the acoustic wave detector to the side plate.
A method comprising: receiving, at data processing hardware , a request for access to a resource , the request comprising a request authenticator ; comparing, by the data processing hardware , the request authenticator against an old security credential associated with the resource and a new security credential associated with the resource ; determining, by the data processing hardware , whether the request authenticator satisfies the old security credential ; and when the request authenticator satisfies the old security credential , granting or denying, by the data processing hardware , access to the resource based on a customizable denial rate associated with the old security credential ; determining, by the data processing hardware , that a number of received requests having corresponding request authenticators satisfying the old security credential satisfies a threshold number; and implementing a remedial action, wherein the remedial action comprises granting access to the resource when the request authenticator satisfies the old security credential and not enforcing the customizable denial rate associated with the old security credential . receiving, at data processing hardware , a request for access to a resource , the request comprising a request authenticator ; comparing, by the data processing hardware , the request authenticator against an old security credential associated with the resource and a new security credential associated with the resource ; determining, by the data processing hardware , whether the request authenticator satisfies the old security credential ; and when the request authenticator satisfies the old security credential , granting or denying, by the data processing hardware , access to the resource based on a customizable denial rate associated with the old security credential ; determining, by the data processing hardware , that a number of received requests having corresponding request authenticators satisfying the old security credential satisfies a threshold number; and implementing a remedial action, wherein the remedial action comprises granting access to the resource when the request authenticator satisfies the old security credential and not enforcing the customizable denial rate associated with the old security credential .
Method for monitoring a vehicle controller, wherein the curve of the values of a diagnosis parameter of a vehicle is plotted, wherein the curve of the values is extrapolated, and wherein the extrapolated values are used as a basis for predicting a fault, wherein it is determined when a fault is likely to occur, wherein it is signalled when the extrapolated values exceed a threshold value; characterized in that the method is carried out at least partly outside the vehicle in a central unit , and in that the diagnosis parameters used are correction values of a correction function which correct differences between actual values and setpoint values of a controller.
An assembly comprising a ureteral stent and a pusher assembly for positioning the ureteral stent in a kidney , ureteral passageway and bladder of a patient, the pusher assembly including: an inner stent pusher including a body having a first end , a second end , a lumen extending therebetween, and a handle member coupled to the first end of the body; and an outer stent pusher including a body having a first end , a second end , and a lumen extending therebetween, and a handle member coupled to the first end of the body, wherein the body of the inner stent pusher has an axial length greater than an axial length of the body of the outer stent pusher , and wherein the body of the inner stent pusher has an outer diameter that is less than an inner diameter of the body of the outer stent pusher to allow the inner stent pusher to move through the lumen of the outer stent pusher during placement of the ureteral stent, characterized in the ureteral stent including: a bladder portion configured to be positioned in the bladder ; a kidney portion configured to be positioned in the kidney and the ureteral passageway ; and one or more tethers connecting the bladder portion and the kidney portion ; wherein the inner stent pusher is configured to move through the bladder portion of the ureteral stent during placement to allow the second end of the inner stent pusher to abut an end of the kidney portion of the ureteral stent to advance the kidney portion into the kidney while the bladder portion is in the bladder ; wherein the second end of the outer stent pusher is configured to abut an end of the bladder portion while another end of the bladder portion abuts the end of the kidney portion during placement to advance the bladder portion and kidney portion . an inner stent pusher including a body having a first end , a second end , a lumen extending therebetween, and a handle member coupled to the first end of the body; and an outer stent pusher including a body having a first end , a second end , and a lumen extending therebetween, and a handle member coupled to the first end of the body, wherein the body of the inner stent pusher has an axial length greater than an axial length of the body of the outer stent pusher , and a bladder portion configured to be positioned in the bladder ; a kidney portion configured to be positioned in the kidney and the ureteral passageway ; and one or more tethers connecting the bladder portion and the kidney portion ;
A capsule composite formulation comprising, in a separated state, an independent tadalafil part comprising tadalafil or a pharmaceutically acceptable salt thereof; and an independent tamsulosin part comprising tamsulosin or a pharmaceutically acceptable salt thereof, wherein the independent tadalafil part comprises, on a surface thereof, a film coating layer comprising polyvinyl alcohol (PVA) or a PVA-containing copolymer as a coating base material, wherein the PVA or the PVA-containing copolymer is comprised in an amount of 1% by weight to 6% by weight with respect to the total weight of the independent tadalafil part excluding the coating layer, and wherein the independent tadalafil part is a tablet of compressed granules, and the granules comprise 10% by weight to 60% by weight of granules having an average granule size of 250 μm to 500 μm and 30% by weight or more of granules having an average granule size of 150 μm or less. wherein the PVA or the PVA-containing copolymer is comprised in an amount of 1% by weight to 6% by weight with respect to the total weight of the independent tadalafil part excluding the coating layer, and wherein the independent tadalafil part is a tablet of compressed granules, and the granules comprise 10% by weight to 60% by weight of granules having an average granule size of 250 μm to 500 μm and 30% by weight or more of granules having an average granule size of 150 μm or less.
A method for managing access to data, comprising: - receiving more than one data access request; - capturing data relating to at least one current context signal during each data access request; - comparing for each data request, as a current authorization step, the data relating to each captured current context signal to predetermined reference data relating to at least one corresponding context signal according to at least one corresponding predetermined authorization policy, thus obtaining a current authorization result; and - determining a data access decision for each data access request, the data access decision being based upon the current authorization result and on at least one predetermined dynamic data access policy, wherein at least one of the at least one predetermined dynamic data access policy changes when at least one of the at least one captured current context signal has changed with respect to a corresponding captured previous context signal or a corresponding reference context signal, wherein the decision outputs whether the data access is authorized or not. - receiving more than one data access request; - capturing data relating to at least one current context signal during each data access request; - comparing for each data request, as a current authorization step, the data relating to each captured current context signal to predetermined reference data relating to at least one corresponding context signal according to at least one corresponding predetermined authorization policy, thus obtaining a current authorization result; and - determining a data access decision for each data access request, the data access decision being based upon the current authorization result and on at least one predetermined dynamic data access policy, wherein at least one of the at least one predetermined dynamic data access policy changes when at least one of the at least one captured current context signal has changed with respect to a corresponding captured previous context signal or a corresponding reference context signal, wherein the decision outputs whether the data access is authorized or not.
A display substrate comprising a base substrate, a display region of the base substrate comprising a sub-pixel array, the sub-pixel array comprising a plurality of first sub-pixel rows and a plurality of second sub-pixel rows, characterized in that , each first sub-pixel row of the plurality of first sub-pixel rows consists of a plurality of first sub-pixels (R), a plurality of second sub-pixels(G), and a plurality of third sub-pixels(B), each second sub-pixel row of the plurality of second sub-pixel rows consists of a plurality of fourth sub-pixels(B) and a plurality of white sub-pixels(W), wherein each first sub-pixel(R) of the plurality of first sub-pixels, each second sub-pixel(G) of the plurality of second sub-pixels, and each third sub-pixel(B) of the plurality of third sub-pixels are configured such that white is capable of being presented by combining a single first sub-pixel(R), a single second sub-pixel(G) , and a single third sub-pixel(B), and each fourth sub-pixel(B) of the plurality of fourth sub-pixels is selected from any one of the first sub-pixel(R), the second sub-pixel(G) , and the third sub-pixel(B), wherein the first sub-pixel row of the plurality of first sub-pixel rows and the second sub-pixel row of the plurality of second sub-pixel rows are arranged alternately in a column direction of the sub-pixel array to form the sub-pixel array. each first sub-pixel row of the plurality of first sub-pixel rows consists of a plurality of first sub-pixels (R), a plurality of second sub-pixels(G), and a plurality of third sub-pixels(B), each second sub-pixel row of the plurality of second sub-pixel rows consists of a plurality of fourth sub-pixels(B) and a plurality of white sub-pixels(W), wherein each first sub-pixel(R) of the plurality of first sub-pixels, each second sub-pixel(G) of the plurality of second sub-pixels, and each third sub-pixel(B) of the plurality of third sub-pixels are configured such that white is capable of being presented by combining a single first sub-pixel(R), a single second sub-pixel(G) , and a single third sub-pixel(B), and each fourth sub-pixel(B) of the plurality of fourth sub-pixels is selected from any one of the first sub-pixel(R), the second sub-pixel(G) , and the third sub-pixel(B), wherein the first sub-pixel row of the plurality of first sub-pixel rows and the second sub-pixel row of the plurality of second sub-pixel rows are arranged alternately in a column direction of the sub-pixel array to form the sub-pixel array.
A vehicle lighting outage detection circuit for a vehicle, comprising: a plurality of parallel branches electrically connected at a common positive reference node , a first one of said parallel branches comprising a first branch resistor and a first branch switching device connected in series, a second one of said parallel branches comprising a second branch resistor and a second branch switching device connected in series; and a voltage monitoring device electrically connected to said positive reference node , said voltage monitoring device configured to detect voltage changes at the positive reference node ; and a first LED having a cathode coupled to a control input of said first branch switching device and a second LED having a cathode coupled to a control input of said second branch switching device ; wherein said first branch switching device is configured to interrupt current flow to said first branch resistor when the first LED has failed, and wherein said second branch switching device is configured to interrupt current flow to said second branch resistor when the second LED has failed. a plurality of parallel branches electrically connected at a common positive reference node , a first one of said parallel branches comprising a first branch resistor and a first branch switching device connected in series, a second one of said parallel branches comprising a second branch resistor and a second branch switching device connected in series; and a voltage monitoring device electrically connected to said positive reference node , said voltage monitoring device configured to detect voltage changes at the positive reference node ; and a first LED having a cathode coupled to a control input of said first branch switching device and a second LED having a cathode coupled to a control input of said second branch switching device ; wherein said first branch switching device is configured to interrupt current flow to said first branch resistor when the first LED has failed, and wherein said second branch switching device is configured to interrupt current flow to said second branch resistor when the second LED has failed.
An electronic device comprising: a substrate including a metal stiffener configured to control package mechanical warpage of the substrate; a plurality of radiation sources (1 10a, 110b) configured to emit electromagnetic interference and/or radio-frequency interference, and a plurality of radiation sensitive devices arranged on the substrate; a ground on the substrate, wherein the ground extends around each of the radiation sources and the radiation sensitive devices, and wherein the ground is configured to be part of the metal stiffener; and a heat spreader arranged to be located over the plurality of radiation sources and the plurality of radiation sensitive devices, wherein the heat spreader includes a plurality of ground coupling mechanisms coupled to the metal stiffener, and thereby be in electrical contact with the ground on the substrate; and wherein the heat spreader, and the plurality of ground coupling mechanisms coupled to the metal stiffener, are arranged to form respective Faraday cages around each of the radiation sources and the radiation sensitive devices. a substrate including a metal stiffener configured to control package mechanical warpage of the substrate; a plurality of radiation sources (1 10a, 110b) configured to emit electromagnetic interference and/or radio-frequency interference, and a plurality of radiation sensitive devices arranged on the substrate; a ground on the substrate, wherein the ground extends around each of the radiation sources and the radiation sensitive devices, and wherein the ground is configured to be part of the metal stiffener; and a heat spreader arranged to be located over the plurality of radiation sources and the plurality of radiation sensitive devices, wherein the heat spreader includes a plurality of ground coupling mechanisms coupled to the metal stiffener, and thereby be in electrical contact with the ground on the substrate; and wherein the heat spreader, and the plurality of ground coupling mechanisms coupled to the metal stiffener, are arranged to form respective Faraday cages around each of the radiation sources and the radiation sensitive devices.