mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for detecting an erroneous operation of a task scheduler of a battery management system, the apparatus comprising: a first scheduler module configured to control a first task to be executed for every first period; a second scheduler module configured to control a second task to be executed for every second period; a task counting unit configured to increase a first counting value for the first scheduler module in accordance with the first period whenever the first task is executed, and increase a second counting value for the second scheduler module in accordance with the second period whenever the second task is executed; and an erroneous operation detecting unit configured to detect, based on both the first counting value and the second counting value, erroneous operations of the first scheduler module and the second scheduler module, characterized in that the task counting unit is adapted to increase the first counting value by the first period whenever the first task is executed, and to increase the second counting value by the second period whenever the second task is executed. a first scheduler module configured to control a first task to be executed for every first period; a second scheduler module configured to control a second task to be executed for every second period; a task counting unit configured to increase a first counting value for the first scheduler module in accordance with the first period whenever the first task is executed, and increase a second counting value for the second scheduler module in accordance with the second period whenever the second task is executed; and an erroneous operation detecting unit configured to detect, based on both the first counting value and the second counting value, erroneous operations of the first scheduler module and the second scheduler module,
Belt dryer for drying a dust-laden material by means of hot air in at least three sections (34, 36) which are successively traversed by the material and are largely separated in terms of air flow, in which there are provided a fresh air supplying device for supplying fresh air as supply air to the last section traversed by the material and an exhaust air recirculation device for recirculation of exhaust air along with the dust contained therein from the last section traversed by the material as supply air to the next-to-last section traversed by the material, there being further arranged upstream of the last and next-to-last section (36; 34) at least one further section (30, 32), characterised in that in each case a further fresh air supplying device for supplying fresh air as supply air to the associated at least one further section (30, 32) is provided and the further section (30, 32) is not supplied with exhaust air from another section.
A computer-implemented method for drawing a polyline in a three-dimensional scene comprising the steps of: a) drawing a segment of said polyline in said three-dimensional scene, said segment having a starting point and an endpoint; b) displaying, in the three-dimensional scene, a graphical tool, including a representation of three orthogonal planes (PLA, PLB, PLC), one plane of said planes being orthogonal to the segment; c) selecting one plane of of said planes; d) displaying, in the three-dimensional scene, an enlarged representation (PLA') of the selected plane, provided with a grid; e) drawing another segment of the polyline on said enlarged representation of the selected plane, said another segment having a starting point coinciding with the endpoint of the segment drawn in step a) and lying in the plane selected in step c); said steps a), c) and e) being carried out according to input commands provided by a user. a) drawing a segment of said polyline in said three-dimensional scene, said segment having a starting point and an endpoint; b) displaying, in the three-dimensional scene, a graphical tool, including a representation of three orthogonal planes (PLA, PLB, PLC), one plane of said planes being orthogonal to the segment; c) selecting one plane of of said planes; d) displaying, in the three-dimensional scene, an enlarged representation (PLA') of the selected plane, provided with a grid; e) drawing another segment of the polyline on said enlarged representation of the selected plane, said another segment having a starting point coinciding with the endpoint of the segment drawn in step a) and lying in the plane selected in step c); said steps a), c) and e) being carried out according to input commands provided by a user.
A drive assembly for adjusting the pitch of a wind turbine blade, the drive assembly comprising: a stator comprising a cylindrical body; a drive member positioned at least partially within the cylindrical body and movable along an axis thereof; characterised by: a mounting pin extending through an aperture in a wall of the cylindrical body for pivotally mounting the stator to a wind turbine structure, wherein the mounting pin extends through two diametrically opposed apertures in the wall of the cylindrical body. a stator comprising a cylindrical body; a drive member positioned at least partially within the cylindrical body and movable along an axis thereof; characterised by: a mounting pin extending through an aperture in a wall of the cylindrical body for pivotally mounting the stator to a wind turbine structure, wherein the mounting pin extends through two diametrically opposed apertures in the wall of the cylindrical body.
A tire deflector device to be disposed on a bottom portion of a vehicle in front of a front wheel, comprising: the deflector includes a guide surface extending substantially horizontally in a vehicle longitudinal direction, and a vertical wall portion including a surface extending downwardly on a rear portion of the guide surface and extending in a vehicle width direction, wherein an angle defined by a lower portion of a vertical wall portion including at least a lower end of the vertical wall portion and an imaginary orthogonal plane orthogonal to the guide surface lies within a range from 20 degrees to 45 degrees, when it is assumed that the guide surface and the vertical wall portion are a second air guide portion, the deflector includes a first air guide portion located on an inner side in the vehicle width direction, and the second air guide portion adjacent to the first air guide portion on an outer side in the vehicle width direction, the first air guide portion includes a moderately inclined surface inclined downwardly rearwardly, and is located at such a position as not to overlap the front wheel in the vehicle width direction, the second air guide portion is located at such a position as to overlap the front wheel in the vehicle width direction, and at such a position as to overlap at least an innermost portion of the front wheel, and the guide surface is disposed in such a way that a ground height of the guide surface is large as compared with the moderately inclined surface. the deflector includes a guide surface extending substantially horizontally in a vehicle longitudinal direction, and a vertical wall portion including a surface extending downwardly on a rear portion of the guide surface and extending in a vehicle width direction, wherein an angle defined by a lower portion of a vertical wall portion including at least a lower end of the vertical wall portion and an imaginary orthogonal plane orthogonal to the guide surface lies within a range from 20 degrees to 45 degrees, when it is assumed that the guide surface and the vertical wall portion are a second air guide portion, the deflector includes a first air guide portion located on an inner side in the vehicle width direction, and the second air guide portion adjacent to the first air guide portion on an outer side in the vehicle width direction, the first air guide portion includes a moderately inclined surface inclined downwardly rearwardly, and is located at such a position as not to overlap the front wheel in the vehicle width direction, the second air guide portion is located at such a position as to overlap the front wheel in the vehicle width direction, and at such a position as to overlap at least an innermost portion of the front wheel, and the guide surface is disposed in such a way that a ground height of the guide surface is large as compared with the moderately inclined surface.
A system for achieving more consistent joule heating of a material blank to a desired temperature, the material blank having an end portion (34, 36), the system comprising: an electrical terminal (54, 56) configured to deliver an electrical current to the end portion of the material blank in order to joule heat the material blank, wherein the electrical terminal has a thermal heat sink effect; characterized in that the system comprises an active thermal buffer element (58, 60) electrically and thermally interposed between the electrical terminal and the end portion of the material blank, and configured to be joule heated by the electrical current and to compensate for the thermal heat sink effect of the electrical terminal and thereby allow the end portion of the material blank to reach the desired temperature; the active thermal buffer element including - a first contact surface configured to physically abut the end portion of the material blank; and a second contact surface configured to abut the electrical terminal, wherein joule heating of the active thermal buffer element creates a temperature gradient across the active thermal buffer element such that the first contact surface is at least at the desired temperature and the second contact surface is at a lower temperature due to the thermal heat sink effect of the electrical terminal. an electrical terminal (54, 56) configured to deliver an electrical current to the end portion of the material blank in order to joule heat the material blank, wherein the electrical terminal has a thermal heat sink effect; characterized in that the system comprises an active thermal buffer element (58, 60) electrically and thermally interposed between the electrical terminal and the end portion of the material blank, and configured to be joule heated by the electrical current and to compensate for the thermal heat sink effect of the electrical terminal and thereby allow the end portion of the material blank to reach the desired temperature; the active thermal buffer element including - a first contact surface configured to physically abut the end portion of the material blank; and a second contact surface configured to abut the electrical terminal, wherein joule heating of the active thermal buffer element creates a temperature gradient across the active thermal buffer element such that the first contact surface is at least at the desired temperature and the second contact surface is at a lower temperature due to the thermal heat sink effect of the electrical terminal. a first contact surface configured to physically abut the end portion of the material blank; and a second contact surface configured to abut the electrical terminal, wherein joule heating of the active thermal buffer element creates a temperature gradient across the active thermal buffer element such that the first contact surface is at least at the desired temperature and the second contact surface is at a lower temperature due to the thermal heat sink effect of the electrical terminal.
A device for conveying objects having: a) at least one continuous drive train which forms a load-bearing strand and a return strand and specifies a conveying direction; b) a guide device (24, 26) for the at least one continuous drive train, which comprises a first deflecting element and at least one second deflecting element over which the at least one continuous drive train revolves, wherein c) the at least one continuous drive train carries along a plurality of supporting members which are arranged and configured such that they can cooperate with supporting structures to which at least one object can be fastened, characterized in that d) the at least one continuous drive train carries along also a plurality of coupling members (60a, 60b) which are arranged and configured such that they can cooperate with standardized holding components of vehicle bodies. a) at least one continuous drive train which forms a load-bearing strand and a return strand and specifies a conveying direction; b) a guide device (24, 26) for the at least one continuous drive train, which comprises a first deflecting element and at least one second deflecting element over which the at least one continuous drive train revolves, wherein c) the at least one continuous drive train carries along a plurality of supporting members which are arranged and configured such that they can cooperate with supporting structures to which at least one object can be fastened, characterized in that d) the at least one continuous drive train carries along also a plurality of coupling members (60a, 60b) which are arranged and configured such that they can cooperate with standardized holding components of vehicle bodies.
A method, at a base station configured to communicate using a set of subframes protected and unprotected by cooperative coordination between base stations, for power control in a long term evolution -LTE- network, comprising: configuring a user equipment -UE- with a plurality of transmit power levels, each transmit power level corresponding to a subframe type, a first of the plurality of transmit power levels used in the protected subframes, and a second of the transmit power levels corresponding to the unprotected subframes; and scheduling the UE to transmit in accordance with the configured transmit power levels. configuring a user equipment -UE- with a plurality of transmit power levels, each transmit power level corresponding to a subframe type, a first of the plurality of transmit power levels used in the protected subframes, and a second of the transmit power levels corresponding to the unprotected subframes; and scheduling the UE to transmit in accordance with the configured transmit power levels.
A pharmaceutical composition in oral dosage form comprising cefepime, or a pharmaceutically acceptable salt thereof, and an additive comprising an acyl carnitine or a salt thereof, wherein said additive is present in an amount sufficient to increase the oral bioavailability of said cefepime, or said pharmaceutically acceptable salt thereof, wherein said oral dosage form comprises a (w/w) ratio of cefepime, or a pharmaceutically acceptable salt thereof, to acyl carnitine of from 1:0.5 to 1:6.
Car body element for the car body of a rail vehicle, having a support structure and at least one cover element, the support structure being printed onto the cover element using a 3D printing process.
A predicting device configured to predict an activity of a target compound based on a structure of the target compound, the predicting device comprising: a generating unit configured to generate a plurality of images of a three-dimensional structural model (10, 20) of the target compound relatively from all directions; and a predicting unit configured to predict the activity of the target compound from the plurality of images generated by the generating unit from said directions, using a learning model, wherein the predicting unit is configured to use said learning model that performs at least machine learning and to receive the plurality of images from said directions as an input, wherein the learning model is configured to use deep learning, said deep learning using a convolutional neural network, and prediction information on the activity of the target compound being output by the learning model, and wherein a learning unit is configured to cause, using said deep learning, the learning model to learn correspondence between captured images of a reference compound and an activity of the reference compound input via an input unit. a generating unit configured to generate a plurality of images of a three-dimensional structural model (10, 20) of the target compound relatively from all directions; and a predicting unit configured to predict the activity of the target compound from the plurality of images generated by the generating unit from said directions, using a learning model, wherein the predicting unit is configured to use said learning model that performs at least machine learning and to receive the plurality of images from said directions as an input, wherein the learning model is configured to use deep learning, said deep learning using a convolutional neural network, and prediction information on the activity of the target compound being output by the learning model, and wherein a learning unit is configured to cause, using said deep learning, the learning model to learn correspondence between captured images of a reference compound and an activity of the reference compound input via an input unit.
A dissolved air flotation device comprising: an influent zone for receiving a volume of influent; a contact zone in communication with the influent zone, wherein nozzles are provided located in a lower extend of the contact zone and configured to generate bubbles for contacting and agglomerating with impurities in the influent to form agglomerated particles; a separation zone in communication with the contact zone, wherein the agglomerated particles being removed within the separation zone to form a clarified effluent; a collection chamber positioned adjacent an upper extent of the separation zone and configured to collect the agglomerated particles; a header within a lower extent of the separation zone for collecting the clarified effluent in the separation zone; and an effluent zone in fluid communication with the header wherein the effluent from the header being delivered into the effluent zone, wherein the header comprises: a series of collection channels having a series of apertures facing a bottom of the separation zone and configured to collect effluent and deliver the effluent into the header, and a series of discharge channels for delivering the effluent from the header to the effluent zone. an influent zone for receiving a volume of influent; a contact zone in communication with the influent zone, wherein nozzles are provided located in a lower extend of the contact zone and configured to generate bubbles for contacting and agglomerating with impurities in the influent to form agglomerated particles; a separation zone in communication with the contact zone, wherein the agglomerated particles being removed within the separation zone to form a clarified effluent; a collection chamber positioned adjacent an upper extent of the separation zone and configured to collect the agglomerated particles; a header within a lower extent of the separation zone for collecting the clarified effluent in the separation zone; and an effluent zone in fluid communication with the header wherein the effluent from the header being delivered into the effluent zone, wherein the header comprises: a series of collection channels having a series of apertures facing a bottom of the separation zone and configured to collect effluent and deliver the effluent into the header, and a series of discharge channels for delivering the effluent from the header to the effluent zone. a series of collection channels having a series of apertures facing a bottom of the separation zone and configured to collect effluent and deliver the effluent into the header, and a series of discharge channels for delivering the effluent from the header to the effluent zone.
A cleaning robot for swimming pools, comprising a charging assembly, a floating assembly, a power assembly and a cleaning assembly, wherein: the charging assembly comprises a charging mount provided with a first charging induction portion and a first magnet set; the floating assembly comprises a floating body, whereby a second charging induction portion and a second magnet set are disposed on a lateral portion of the floating body; the floating assembly is attracted with the first magnet set of the charging assembly through the second magnet set, and the first charging induction portion and the second charging induction portion are used for charging the power assembly after being turned on; the floating assembly is provided with a first travel module used for driving the floating assembly; the cleaning assembly is provided with a second travel module used for driving the cleaning assembly; the floating assembly is connected to the cleaning assembly through a power supply cable; and the power assembly is used for supplying power to the cleaning assembly, the first travel module and the second travel module. the charging assembly comprises a charging mount provided with a first charging induction portion and a first magnet set; the floating assembly comprises a floating body, whereby a second charging induction portion and a second magnet set are disposed on a lateral portion of the floating body; the floating assembly is attracted with the first magnet set of the charging assembly through the second magnet set, and the first charging induction portion and the second charging induction portion are used for charging the power assembly after being turned on; the floating assembly is provided with a first travel module used for driving the floating assembly; the cleaning assembly is provided with a second travel module used for driving the cleaning assembly; the floating assembly is connected to the cleaning assembly through a power supply cable; and the power assembly is used for supplying power to the cleaning assembly, the first travel module and the second travel module.
A measurement system for measuring the position of the longitudinal axis of the rollers of a containment and guide segment, adapted to contain and guide a cast product exiting from a crystallizer in a continuous casting process, the system comprising - a robot having an arm provided at one end thereof with a reflector, said robot being adapted to move the reflector in order to successively put it in contact with a plurality of predetermined points of each roller of the containment and guide segment, - a laser tracker adapted to track said reflector by means of a laser beam and to calculate the position in space of each of said points so as to determine the position of the axis of each roller, - processing means adapted to process and impart movement commands to the robot and, therefore, to the reflector, - at least one tag fixed on the segment and containing pre-stored information on the segment and/or on each roller therein, said information comprising said predetermined points of each roller and any previous measurements carried out at said predetermined points of each roller, - a device for automatically recognizing the containment and guide segment, provided with a reader adapted to read said information on the segment and/or on each roller and to transmit it to the processing means, whereby said processing means impart consequent movement commands to the robot. - a robot having an arm provided at one end thereof with a reflector, said robot being adapted to move the reflector in order to successively put it in contact with a plurality of predetermined points of each roller of the containment and guide segment, - a laser tracker adapted to track said reflector by means of a laser beam and to calculate the position in space of each of said points so as to determine the position of the axis of each roller, - processing means adapted to process and impart movement commands to the robot and, therefore, to the reflector, - at least one tag fixed on the segment and containing pre-stored information on the segment and/or on each roller therein, said information comprising said predetermined points of each roller and any previous measurements carried out at said predetermined points of each roller, - a device for automatically recognizing the containment and guide segment, provided with a reader adapted to read said information on the segment and/or on each roller and to transmit it to the processing means, whereby said processing means impart consequent movement commands to the robot.