mhurhangee/patent-ind-claim-en huggingface dataset:
A clutch control device comprising: a clutch apparatus configured to connect and disconnect power transmission between a prime mover and an output target ; a clutch actuator configured to output a driving force to actuate the clutch apparatus ; and a control unit configured to drive the clutch actuator , wherein the control unit includes a clutch capacity control determination unit (40c1), a clutch capacity correction unit (40c3) and a motor control unit , wherein, during an automatic mode (M1) which is a mode that calculates a clutch capacity appropriate for a traveling state of a vehicle under automatic departure/gear shifting control and that controls the clutch apparatus , the clutch capacity control determination unit (40c1) starts clutch capacity control of fluctuating a clutch capacity (Ca) within a range from complete fastening to complete separation when it is detected that the vehicle is in a prescribed traveling state accompanied by a vehicle body behavior (M) of a predetermined threshold (d01) or more, and wherein the clutch capacity (Ca) is controlled according to a road surface situation, in such a way that the clutch apparatus torque fluctuates, being increased or decreased, when traveling on a rough road according to the rough road surface, and wherein the clutch capacity control during the prescribed traveling state is performed by the motor control unit which controls a motor current of the clutch actuator based on a correction clutch capacity (Ca1) calculated by the clutch capacity correction unit (40c3). a clutch apparatus configured to connect and disconnect power transmission between a prime mover and an output target ; a clutch actuator configured to output a driving force to actuate the clutch apparatus ; and a control unit configured to drive the clutch actuator , wherein the control unit includes a clutch capacity control determination unit (40c1), a clutch capacity correction unit (40c3) and a motor control unit , wherein, during an automatic mode (M1) which is a mode that calculates a clutch capacity appropriate for a traveling state of a vehicle under automatic departure/gear shifting control and that controls the clutch apparatus , the clutch capacity control determination unit (40c1) starts clutch capacity control of fluctuating a clutch capacity (Ca) within a range from complete fastening to complete separation when it is detected that the vehicle is in a prescribed traveling state accompanied by a vehicle body behavior (M) of a predetermined threshold (d01) or more, and wherein the clutch capacity (Ca) is controlled according to a road surface situation, in such a way that the clutch apparatus torque fluctuates, being increased or decreased, when traveling on a rough road according to the rough road surface, and wherein the clutch capacity control during the prescribed traveling state is performed by the motor control unit which controls a motor current of the clutch actuator based on a correction clutch capacity (Ca1) calculated by the clutch capacity correction unit (40c3).
An aerosol-generating system , comprising: a reservoir holding an aerosol-generating substrate in condensed form; a housing comprising an air inlet , an air outlet , an airflow passage extending therebetween, and a chamber ; a liquid-permeable heating element extending generally parallel to the airflow passage , one side of the heating element being in fluidic communication with the reservoir and an opposite side of the heating element being in fluidic communication with the chamber , the heating element configured to heat the aerosol-generating substrate in condensed form to generate a vapour within the chamber ; and a gas-permeable element extending generally parallel to the airflow passage , one side of the gas-permeable element being in fluidic communication with the chamber and an opposite side of the gas-permeable element being in fluidic communication with the airflow passage , wherein the gas-permeable element is configured to allow transport of the vapour into the airflow passage and is configured to inhibit transport of the condensed form of the aerosol-generating substrate into the airflow passage , wherein the vapour at least partially condenses into an aerosol within the airflow passage . a reservoir holding an aerosol-generating substrate in condensed form; a housing comprising an air inlet , an air outlet , an airflow passage extending therebetween, and a chamber ; a liquid-permeable heating element extending generally parallel to the airflow passage , one side of the heating element being in fluidic communication with the reservoir and an opposite side of the heating element being in fluidic communication with the chamber , the heating element configured to heat the aerosol-generating substrate in condensed form to generate a vapour within the chamber ; and a gas-permeable element extending generally parallel to the airflow passage , one side of the gas-permeable element being in fluidic communication with the chamber and an opposite side of the gas-permeable element being in fluidic communication with the airflow passage , wherein the gas-permeable element is configured to allow transport of the vapour into the airflow passage and is configured to inhibit transport of the condensed form of the aerosol-generating substrate into the airflow passage , wherein the vapour at least partially condenses into an aerosol within the airflow passage .
A combine comprising: a traveling device that supports a traveling machine body ; a reaper unit that reaps standing grain culms; a threshing device that threshes the reaped grain culms; a grain tank that retains the grain threshed by the threshing device ; a weight measurement unit that performs weight measurement on the grain retained in the grain tank; a measurement instruction unit that outputs a weight measurement signal; a control unit that instructs the weight measurement unit to perform the weight measurement based on the weight measurement signal; the combine being characterized in that it further comprises: a working state determination unit that performs working state determination for determining whether the combine is in a working state or a non-working state, based on states of the traveling device , the reaper unit , and the threshing device ; and in that the control unit instructs the working state determination unit to perform the working state determination when the weight measurement signal is output from the measurement instruction unit , and if it is determined that the combine is in the working state, the control unit does not instruct the weight measurement unit to perform the weight measurement. a traveling device that supports a traveling machine body ; a reaper unit that reaps standing grain culms; a threshing device that threshes the reaped grain culms; a grain tank that retains the grain threshed by the threshing device ; a weight measurement unit that performs weight measurement on the grain retained in the grain tank; a measurement instruction unit that outputs a weight measurement signal; a control unit that instructs the weight measurement unit to perform the weight measurement based on the weight measurement signal; the combine being characterized in that it further comprises: a working state determination unit that performs working state determination for determining whether the combine is in a working state or a non-working state, based on states of the traveling device , the reaper unit , and the threshing device ; and in that the control unit instructs the working state determination unit to perform the working state determination when the weight measurement signal is output from the measurement instruction unit , and if it is determined that the combine is in the working state, the control unit does not instruct the weight measurement unit to perform the weight measurement. a working state determination unit that performs working state determination for determining whether the combine is in a working state or a non-working state, based on states of the traveling device , the reaper unit , and the threshing device ; and in that the control unit instructs the working state determination unit to perform the working state determination when the weight measurement signal is output from the measurement instruction unit , and if it is determined that the combine is in the working state, the control unit does not instruct the weight measurement unit to perform the weight measurement.
An elevator installation having a car and a support means , wherein the car is at least partly supported by the support means and wherein the support means comprises a plurality of electrically conductive tensile carriers arranged parallel to one another, which are essentially enclosed by a casing , and wherein the support means has a first side and a second side and wherein the support means is fastened to support means fastening devices , and wherein the support means fastening devices each comprise a housing and a clamping element , and wherein the housing and clamping element have clamping surfaces between which the support means is clamped in place, characterized in that an electrically insulating material is arranged between both sides of the support means and the clamping surfaces arranged thereon, electrically separating the support means from the housing and the clamping element .
Transformer device of a charging station for electrically charging vehicles with at least two charging points , having an input connection for electrical connection to an electrical power source, also having a primary winding and at least one secondary winding for each charging point , wherein the secondary windings are DC isolated from one another and each have at least two winding sections which are connected electrically in parallel and/or in series, wherein adjacent winding sections of the secondary windings overlap one another at least partially in an axial direction (AR), characterized in that the secondary windings are formed so as to be free of overlap with one another in a radial direction, wherein the sequence of the overlap of adjacent secondary windings in a radial direction (RR) changes in an axial direction (AR).
A sensor applicator assembly for a continuous glucose monitoring system, the sensor applicator assembly being assembled as a single unitary product in which a sensor module periodically measuring a blood glucose level is preinstalled in an applicator , such that the sensor module is ejected by an operation of the applicator to be attached to a human body, wherein a separate protective cap is detachably coupled to the applicator to block the sensor module , preinstalled in the applicator , from being exposed externally, and adhesive tape and a release paper are attached to a body contact surface of the sensor module to enable the sensor module to be attached to the human body, the release paper of the adhesive tape being detached and removed from the adhesive tape together with the protective cap while the protective cap is being detached from the applicator , characterized in that the protective cap includes: an outer cover coupled to one end portion of the applicator while surrounding an outer circumferential surface of the applicator ; an extension extending from one end of the outer cover in a direction of an inner center of the applicator ; and an inner support extending upward from one end of the extension to support the body contact surface of the sensor module inserted into the applicator. wherein a separate protective cap is detachably coupled to the applicator to block the sensor module , preinstalled in the applicator , from being exposed externally, and adhesive tape and a release paper are attached to a body contact surface of the sensor module to enable the sensor module to be attached to the human body, the release paper of the adhesive tape being detached and removed from the adhesive tape together with the protective cap while the protective cap is being detached from the applicator , an outer cover coupled to one end portion of the applicator while surrounding an outer circumferential surface of the applicator ; an extension extending from one end of the outer cover in a direction of an inner center of the applicator ; and an inner support extending upward from one end of the extension to support the body contact surface of the sensor module inserted into the applicator.
A computer-implemented method for configuring an ultra-high density heterogeneous network comprising roadside unit type base stations, regular base stations and user terminals, the road side units type base stations having faster user terminal to user terminal or to network infrastructure application than regular base stations, characterized in that the method comprises the steps of: - obtaining (S500) radio measurements reports from user terminals through regular base stations, - identifying, using the measurement reports, regular base stations and road side units type base stations, - building (S501) a graph of the ultra-high density heterogeneous network from the identified regular base stations and road side units type base station, a node of the graph corresponding to an identified regular base station or a road side unit type base station, links of the graph linking the regular base stations and road side units type base station, - determining (S502) a centrality value for each node of the graph, the centrality value for a node being the inverse of the sum of the distance between the node and all the other nodes in the graph, - determining a global network centrality value, - checking (S503) if a network topology reconfiguration has to be performed, wherein the network topology reconfiguration has to be performed according to the determined centrality values for each node of the graph and the determined global centrality value, - performing (S504) the network topology reconfiguration by deleting connections between road side unit type base stations and regular base station and by adding connections between road side unit type base stations if the network topology reconfiguration has to be performed. - obtaining (S500) radio measurements reports from user terminals through regular base stations, - identifying, using the measurement reports, regular base stations and road side units type base stations, - building (S501) a graph of the ultra-high density heterogeneous network from the identified regular base stations and road side units type base station, a node of the graph corresponding to an identified regular base station or a road side unit type base station, links of the graph linking the regular base stations and road side units type base station, - determining (S502) a centrality value for each node of the graph, the centrality value for a node being the inverse of the sum of the distance between the node and all the other nodes in the graph, - determining a global network centrality value, - checking (S503) if a network topology reconfiguration has to be performed, wherein the network topology reconfiguration has to be performed according to the determined centrality values for each node of the graph and the determined global centrality value, - performing (S504) the network topology reconfiguration by deleting connections between road side unit type base stations and regular base station and by adding connections between road side unit type base stations if the network topology reconfiguration has to be performed.
A locker unit comprising: a cabinet body ; at least one internal mounting bracket provided at each lateral side of the cabinet body ; at least one horizontal panel mountable to each mounting bracket at a vertical height so as to define two or more vertically stacked lockers , each panel comprising a side flange provided at each lateral edge of the panel ; and a door associated with each locker , wherein each side flange has one or more apertures which are alignable with an aperture provided at the mounting bracket for receiving a retaining member , and wherein each panel includes an obstructing member located near to each aperture of the side flange , and characterised in that : the obstructing member comprises a plate which is spaced apart and extends parallel to the side flange . a cabinet body ; at least one internal mounting bracket provided at each lateral side of the cabinet body ; at least one horizontal panel mountable to each mounting bracket at a vertical height so as to define two or more vertically stacked lockers , each panel comprising a side flange provided at each lateral edge of the panel ; and a door associated with each locker , wherein each side flange has one or more apertures which are alignable with an aperture provided at the mounting bracket for receiving a retaining member , and wherein each panel includes an obstructing member located near to each aperture of the side flange , and characterised in that : the obstructing member comprises a plate which is spaced apart and extends parallel to the side flange .
An implantable device, in particular for wall repair, characterized in that it comprises: - a reinforcing textile implant having first and second surfaces; - a bioadhesive coating to coat said first surface at least in part, said coating comprising at least one ionic, cross-linked bioadhesive polymer able to bond the textile implant on its first surface coated at least in part with said bioadhesive coating onto a wall to be reinforced, said at least one bioadhesive polymer being selected from among the following polymers: an acrylic acid polymer, a methacrylic acid polymer, an itaconic acid polymer, a maleic acid polymer or a maleic anhydride polymer having an adhesive function that can be activated in an aqueous medium, in that said coating is able to adhere to body tissues, and in that said at least one polymer is dehydrated and capable of forming a gel in an aqueous medium. - a reinforcing textile implant having first and second surfaces; - a bioadhesive coating to coat said first surface at least in part, said coating comprising at least one ionic, cross-linked bioadhesive polymer able to bond the textile implant on its first surface coated at least in part with said bioadhesive coating onto a wall to be reinforced, said at least one bioadhesive polymer being selected from among the following polymers: an acrylic acid polymer, a methacrylic acid polymer, an itaconic acid polymer, a maleic acid polymer or a maleic anhydride polymer having an adhesive function that can be activated in an aqueous medium, in that said coating is able to adhere to body tissues, and in that said at least one polymer is dehydrated and capable of forming a gel in an aqueous medium.
A method of streaming data from a user equipment, UE, to an ingestion point in a network, wherein the method is performed by the UE and comprises: establishing an uplink network assistance, UNA, session with a network assistance device of the network separate from the ingestion point , the UNA session occurring in a separate communication path and/or data link than a communication path and/or data link used for streaming data; and while streaming of the data and for one or more segments of the data or an UNA period of the data, wherein the UNA period is a period of time or a predetermined number of segment lengths, receiving from the network assistance device an indication of a recommended highest bit rate estimate with which the data may be streamed under current network conditions. establishing an uplink network assistance, UNA, session with a network assistance device of the network separate from the ingestion point , the UNA session occurring in a separate communication path and/or data link than a communication path and/or data link used for streaming data; and while streaming of the data and for one or more segments of the data or an UNA period of the data, wherein the UNA period is a period of time or a predetermined number of segment lengths, receiving from the network assistance device an indication of a recommended highest bit rate estimate with which the data may be streamed under current network conditions.
A method of forming a three-dimensional object, comprising: traversing a solidifiable paste dispenser along a first (x) axis while dispensing a solidifiable paste from the solidifiable paste dispenser ; moving a build platform along a build (z) axis to contact an exposed surface of an object adhered to the build platform with the solidifiable paste ; and supplying solidification energy to a portion of the solidifiable paste in a pattern corresponding to the three-dimensional object, thereby solidifying the portion of the solidifiable paste , wherein the step of dispensing solidifiable paste from the dispenser comprises dispensing paste in a linear pattern along a second (y) axis while traversing the solidifiable paste dispenser along the first (x) axis. traversing a solidifiable paste dispenser along a first (x) axis while dispensing a solidifiable paste from the solidifiable paste dispenser ; moving a build platform along a build (z) axis to contact an exposed surface of an object adhered to the build platform with the solidifiable paste ; and supplying solidification energy to a portion of the solidifiable paste in a pattern corresponding to the three-dimensional object, thereby solidifying the portion of the solidifiable paste , wherein the step of dispensing solidifiable paste from the dispenser comprises dispensing paste in a linear pattern along a second (y) axis while traversing the solidifiable paste dispenser along the first (x) axis.
A vehicle localization method comprising: estimating an initial position of a vehicle based on data sensed by a position sensor; determining a driving lane of the vehicle based on a front-view image captured from the vehicle by determining a lane number of the driving lane of the vehicle from the front-view image using a neural network-based driving lane identification model; correcting the initial position of the vehicle based on the driving lane, by correcting the initial position of the vehicle to a position on a map corresponding to the determined lane number and determining a position of the vehicle in the driving lane based on geometry information of a lane boundary in the front-view image. estimating an initial position of a vehicle based on data sensed by a position sensor; determining a driving lane of the vehicle based on a front-view image captured from the vehicle by determining a lane number of the driving lane of the vehicle from the front-view image using a neural network-based driving lane identification model; correcting the initial position of the vehicle based on the driving lane, by correcting the initial position of the vehicle to a position on a map corresponding to the determined lane number and determining a position of the vehicle in the driving lane based on geometry information of a lane boundary in the front-view image.