mhurhangee/ep-ind-claims huggingface dataset:
An information processing device comprising: a text data analysis unit configured to analyze text data corresponding to dialogue using a natural language, and extract an event included in the text data and a process to be executed in accordance with the event; and a record control unit configured to record a correspondence relation between the event and the process on a recording medium as a program, characterized in that the record control unit records a correspondence relation between a sixth event and a sixth process on a recording medium as a sixth program in a case where it is detected that the sixth process is performed at predetermined or higher frequency after occurrence of the sixth event. a text data analysis unit configured to analyze text data corresponding to dialogue using a natural language, and extract an event included in the text data and a process to be executed in accordance with the event; and a record control unit configured to record a correspondence relation between the event and the process on a recording medium as a program, characterized in that the record control unit records a correspondence relation between a sixth event and a sixth process on a recording medium as a sixth program in a case where it is detected that the sixth process is performed at predetermined or higher frequency after occurrence of the sixth event.
A compensation circuit for a switching regulator comprising: a ramp generator for generating a repetitive ramp signal (Vramp); a peak detector having an input coupled to the repetitive ramp signal line and an output; an amplifier having a first input coupled to the output of the peak detector, a complementary input coupled to the ramp signal line, and an output; and an output circuit coupled to the output of the amplifier and configured to supply to the switching regulator a compensation signal (Vcomp) composed by an offset signal and a compensation slope (Sx) with a duration such that it starts in a starting point (Ts) and ends at the end of the ramp signal cycle (t1, t2, t3), wherein the ratio between duration and ramp signal cycle is independent of ramp signal frequency. a ramp generator for generating a repetitive ramp signal (Vramp); a peak detector having an input coupled to the repetitive ramp signal line and an output; an amplifier having a first input coupled to the output of the peak detector, a complementary input coupled to the ramp signal line, and an output; and an output circuit coupled to the output of the amplifier and configured to supply to the switching regulator a compensation signal (Vcomp) composed by an offset signal and a compensation slope (Sx) with a duration such that it starts in a starting point (Ts) and ends at the end of the ramp signal cycle (t1, t2, t3), wherein the ratio between duration and ramp signal cycle is independent of ramp signal frequency.
A charging system for electrically charging a motor vehicle, in particular a passenger car, wherein the charging system comprises a robot comprising a control means (1.1), a force detection means and a plug (4.1) which is attached to the robot and which is set up to establish a releasable plug-in connection with a mating plug (4.2) of the motor vehicle for charging an electric power storage unit of the motor vehicle, wherein the control means is set up to communicate with the force detection means and to connect the plug guided by the robot to the mating plug on the basis of a force determined by the force detection means, characterised in that the force which has been determined is a force acting on the plug, and in that the force detection means is set up to determine a force also when the plug-in connection is being released.
A layered warehouse assembly, comprising: - a first warehouse and a second warehouse, for storing goods; - a first loading platform associated with the first warehouse, for loading trucks with goods stored in the warehouse (11, 13); and - a second loading platform associated with the second warehouse, wherein the first warehouse and the first loading platform are arranged at a first height level to form a first layer of the layered warehouse assembly, and wherein the second warehouse is arranged at a second height level, higher than the first height level, to form a second layer of the layered warehouse assembly, wherein the second warehouse is at least partially arranged right above the first loading platform, and wherein the second loading platform is arranged right above the first warehouse, characterized in that the first warehouse and the second warehouse abut each other when projected in the same horizontal plane. - a first warehouse and a second warehouse, for storing goods; - a first loading platform associated with the first warehouse, for loading trucks with goods stored in the warehouse (11, 13); and - a second loading platform associated with the second warehouse, wherein the first warehouse and the first loading platform are arranged at a first height level to form a first layer of the layered warehouse assembly, and wherein the second warehouse is arranged at a second height level, higher than the first height level, to form a second layer of the layered warehouse assembly, wherein the second warehouse is at least partially arranged right above the first loading platform, and wherein the second loading platform is arranged right above the first warehouse, characterized in that the first warehouse and the second warehouse abut each other when projected in the same horizontal plane. wherein the first warehouse and the first loading platform are arranged at a first height level to form a first layer of the layered warehouse assembly, and wherein the second warehouse is arranged at a second height level, higher than the first height level, to form a second layer of the layered warehouse assembly, wherein the second warehouse is at least partially arranged right above the first loading platform, and wherein the second loading platform is arranged right above the first warehouse, characterized in that the first warehouse and the second warehouse abut each other when projected in the same horizontal plane.
An apparatus comprising: a sensor device to mount to a barrier pivotable between an open position and a closed position, the barrier pivotably mounted on a moveable platform, the sensor device comprising a rotation sensor to measure rotation about an axis and an accelerometer to measure acceleration data; at least one processor configured to: learn a convergence value of the acceleration data for a current orientation of the moveable platform with respect to a horizontal plane, wherein the convergence value is different for different orientations of the moveable platform; determine an open/close status (204, 408) of the barrier based on rotation data from the rotation sensor and convergence of the acceleration data based on the convergence value for the current orientation of the moveable platform. a sensor device to mount to a barrier pivotable between an open position and a closed position, the barrier pivotably mounted on a moveable platform, the sensor device comprising a rotation sensor to measure rotation about an axis and an accelerometer to measure acceleration data; at least one processor configured to: learn a convergence value of the acceleration data for a current orientation of the moveable platform with respect to a horizontal plane, wherein the convergence value is different for different orientations of the moveable platform; determine an open/close status (204, 408) of the barrier based on rotation data from the rotation sensor and convergence of the acceleration data based on the convergence value for the current orientation of the moveable platform. learn a convergence value of the acceleration data for a current orientation of the moveable platform with respect to a horizontal plane, wherein the convergence value is different for different orientations of the moveable platform; determine an open/close status (204, 408) of the barrier based on rotation data from the rotation sensor and convergence of the acceleration data based on the convergence value for the current orientation of the moveable platform.
Vacuum cleaner nozzle with a suction mouth which is at least partially surrounded by a seal which can be positioned on a surface to be cleaned, wherein the seal is at least partially formed by at least one resilient sealing lip (9, 10) which at least in sections has a lower rigidity in a direction oriented towards the suction mouth than in a direction oriented away from the suction mouth, wherein the sealing lip (9, 10) is supported at least in sections on the outside by at least one resilient element (7, 8) fastened to a nozzle body of the vacuum cleaner nozzle, characterised in that the at least one resilient element is a folded-over part of the sealing lip (9, 10) which supports the sealing lip (9, 10) over a part of its vertical extension and is formed by a fold on an upper edge of the sealing lip (9, 10).
Wheel drive unit, in particular hub drive unit, for a wheel (2, 3) of an electrically driven vehicle, having an electrical machine for driving the wheel (2, 3), which electrical machine has a stator and a rotor which is rotatably mounted on the stator and can be connected to the wheel (2, 3) of the vehicle, and having an electronic control device for actuating the electrical machine, wherein the wheel drive unit has a parking brake with an electromechanical actuator by means of which, in a parking mode of the wheel drive unit, the rotor of the electrical machine is secured mechanically with respect to the stator, characterized in that the control device is designed to actuate the actuator and has an interface for communicating with a vehicle control unit and is configured to receive, via the interface, both drive control instructions relating to the driving of the wheel (2, 3) and brake control instructions on the basis of which the wheel drive unit can be switched to the parking mode.
An endless intermediate transfer belt comprising a substrate layer, and a surface layer to be disposed on the substrate layer, wherein the surface layer is configured by a polymerized cured product of a radical polymerizable composition comprising a radical polymerizable monomer having a radical polymerizable functional group, an oxime ester-based photopolymerization initiator having a carbazole structure, and a metal oxide particle subjected to surface treatment, the radical polymerizable functional group corresponds to one or both of an acryloyl group and a methacryloyl group, and the metal oxide particle subjected to surface treatment comprises a metal oxide particle, and a substance for support, to be supported on a surface of the metal oxide particle.
An apparatus comprising: a hermetically sealed component; a sub-mount mounted on a spacer; a laser disposed within the hermetically sealed component and mounted on the sub-mount; a thermo-electrical cooler connected to the spacer and disposed within the hermetically sealed component and configured to dissipate heat generated by the laser; a gap between the sub-mount and the thermo-electrical cooler; and a window forming part of the hermetically sealed component and configured to permit transmission of a light beam between the laser and an optical input situated outside the hermetically sealed component, wherein the sub-mount is made of silicon and the spacer is made of ceramic or other material intended to dissipate heat from the sub-mounted laser. a hermetically sealed component; a sub-mount mounted on a spacer; a laser disposed within the hermetically sealed component and mounted on the sub-mount; a thermo-electrical cooler connected to the spacer and disposed within the hermetically sealed component and configured to dissipate heat generated by the laser; a gap between the sub-mount and the thermo-electrical cooler; and a window forming part of the hermetically sealed component and configured to permit transmission of a light beam between the laser and an optical input situated outside the hermetically sealed component, wherein the sub-mount is made of silicon and the spacer is made of ceramic or other material intended to dissipate heat from the sub-mounted laser.
A toothbrush, comprising: a handle configured for user manipulation; and a head having a first capsule retaining a first agent and a second capsule retaining a second agent, the first and second agents being different, wherein the head includes a plurality of cleaning elements characterized in that the cleaning elements have an alignment and placement between and surrounding each of the first and second capsules (121,131) that prevents intermixing of the first and second agents in a storage mode, and that facilitates intermixing of the first and second agents so as to produce and apply a third agent to a surface during use of the toothbrush. a handle configured for user manipulation; and a head having a first capsule retaining a first agent and a second capsule retaining a second agent, the first and second agents being different, wherein the head includes a plurality of cleaning elements characterized in that the cleaning elements have an alignment and placement between and surrounding each of the first and second capsules (121,131) that prevents intermixing of the first and second agents in a storage mode, and that facilitates intermixing of the first and second agents so as to produce and apply a third agent to a surface during use of the toothbrush.
A method of diagnosing faults in a monitored system, the monitored system being monitored by sensors, comprising: constructing an empirical model for a targeted component of the monitored system, wherein the empirical model is trained with an historical data source that contains example observations of the sensors; generating substantially real-time estimates based on instrumented data corresponding to the targeted component; comparing and differencing the substantially real-time estimates with instrumented readings from the sensors to provide residual values; and analyzing the residual values to detect the faults and determine a location of the faults in the monitored system; characterized by the following steps: the empirical model implements an adaptation algorithm to learn new normal variation patterns in operation of the monitored system, the adaptation algorithm comprising eliminating data from time periods just prior to known faults. constructing an empirical model for a targeted component of the monitored system, wherein the empirical model is trained with an historical data source that contains example observations of the sensors; generating substantially real-time estimates based on instrumented data corresponding to the targeted component; comparing and differencing the substantially real-time estimates with instrumented readings from the sensors to provide residual values; and analyzing the residual values to detect the faults and determine a location of the faults in the monitored system; characterized by the following steps: the empirical model implements an adaptation algorithm to learn new normal variation patterns in operation of the monitored system, the adaptation algorithm comprising eliminating data from time periods just prior to known faults.
An endoscopic stitching device, comprising: a tool assembly including: a pair of juxtaposed jaws (130, 132) pivotally associated with one another, each jaw defining a needle receiving recess (130a, 132a) formed in a tissue contacting surface thereof; a selectively rotatably camming hub defining a central lumen therethrough and a helical groove formed in an outer surface thereof; a pair of axially translatable needle engaging blades (150, 152) slidably supported, one each, in a respective jaw, each blade having an advanced position wherein a distal end of the blade engages a suture needle when the suture needle is in the respective jaw to thereby secure the suture needle to the jaw, and a retracted position wherein the distal end of the blade is out of engagement with the suture needle wherein a proximal end of each blade is configured for slidable engagement in the helical groove of the camming hub to thereby permit the suture needle to be removed from the jaw; and a suture needle operatively associated with the tool assembly. a tool assembly including: a pair of juxtaposed jaws (130, 132) pivotally associated with one another, each jaw defining a needle receiving recess (130a, 132a) formed in a tissue contacting surface thereof; a selectively rotatably camming hub defining a central lumen therethrough and a helical groove formed in an outer surface thereof; a pair of axially translatable needle engaging blades (150, 152) slidably supported, one each, in a respective jaw, each blade having an advanced position wherein a distal end of the blade engages a suture needle when the suture needle is in the respective jaw to thereby secure the suture needle to the jaw, and a retracted position wherein the distal end of the blade is out of engagement with the suture needle wherein a proximal end of each blade is configured for slidable engagement in the helical groove of the camming hub to thereby permit the suture needle to be removed from the jaw; and a suture needle operatively associated with the tool assembly. a pair of juxtaposed jaws (130, 132) pivotally associated with one another, each jaw defining a needle receiving recess (130a, 132a) formed in a tissue contacting surface thereof; a selectively rotatably camming hub defining a central lumen therethrough and a helical groove formed in an outer surface thereof; a pair of axially translatable needle engaging blades (150, 152) slidably supported, one each, in a respective jaw, each blade having an advanced position wherein a distal end of the blade engages a suture needle when the suture needle is in the respective jaw to thereby secure the suture needle to the jaw, and a retracted position wherein the distal end of the blade is out of engagement with the suture needle wherein a proximal end of each blade is configured for slidable engagement in the helical groove of the camming hub to thereby permit the suture needle to be removed from the jaw; and a suture needle operatively associated with the tool assembly.
A floating construction comprising a water space within the floating construction, which water space has transparent walls and/or walls containing transparent sections (3, 3'), and at least one open opening allowing water surrounding the floating construction to enter into the water space, and the floating construction comprising space (5, 5') next to the water space for spectators observing the activities taking place inside the water space, characterized in that the floating construction comprises a draft control system for changing water surface level inside the water space and the space (5, 5') for spectators is provided without a top surface.
Roller shutter shaft for receiving a roller shutter between two side parts of a roller compartment housing with an inner partial shaft and an outer partial shaft, wherein the inner and outer partial shaft (11, 15) are mounted axially displaceable to each other, characterized in that a flexible pull rope is fastened at the inner partial shaft, which pull rope is guided in an axial direction in a channel formed between the inner partial shaft and the outer partial shaft, and the free end of which is guided through an opening of the outer partial shaft to the outside, whereby upon pulling at the end of the pull rope guided through the opening, the inner partial shaft is shifted axially in a first direction relative to the outer partial shaft.
A door handle in which an electrostatic sensor is provided in a door handle case (11, 12), wherein the door handle case (11, 12) is formed with a first door handle case and a second door handle case; wherein a longitudinal direction of the door handle is an X1-X2 direction; the X1-X2 direction, a Y1-Y2 direction and a Z1-Z2 direction are perpendicular to each other; and an inner surface of the door handle case (11, 12) is the Z2-side surface of the second door handle case; wherein the inner surface of the door handle case (11, 12) is formed with a middle portion that forms a concave curved surface that is concave toward a Z1 side, wherein the electrostatic sensor includes a detection electrode that is formed of a flat conductor plate, or that is formed on a surface of a flat substrate or within a flat substrate, wherein the substrate surface is approximately perpendicular to the Z1-Z2 direction, wherein the detection electrode includes a middle portion in a longitudinal direction of the detection electrode; and peripheral portions (122; 123) proximal to both end portions (120a; 120b) of the detection electrode in the longitudinal direction, and wherein, for a width of the detection electrode in a direction perpendicular to the longitudinal direction, each peripheral portion (122; 123) is wider than the middle portion, and the width of the detection electrode gradually increases toward each end portion (120a; 120b) in the longitudinal direction. wherein the door handle case (11, 12) is formed with a first door handle case and a second door handle case; wherein a longitudinal direction of the door handle is an X1-X2 direction; the X1-X2 direction, a Y1-Y2 direction and a Z1-Z2 direction are perpendicular to each other; and an inner surface of the door handle case (11, 12) is the Z2-side surface of the second door handle case; wherein the inner surface of the door handle case (11, 12) is formed with a middle portion that forms a concave curved surface that is concave toward a Z1 side, wherein the electrostatic sensor includes a detection electrode that is formed of a flat conductor plate, or that is formed on a surface of a flat substrate or within a flat substrate, wherein the substrate surface is approximately perpendicular to the Z1-Z2 direction, wherein the detection electrode includes a middle portion in a longitudinal direction of the detection electrode; and peripheral portions (122; 123) proximal to both end portions (120a; 120b) of the detection electrode in the longitudinal direction, and wherein, for a width of the detection electrode in a direction perpendicular to the longitudinal direction, each peripheral portion (122; 123) is wider than the middle portion, and the width of the detection electrode gradually increases toward each end portion (120a; 120b) in the longitudinal direction.