mhurhangee/ep-ind-claims huggingface dataset:
An unmanned aircraft, comprising: a sensor that performs sensing of an environment of the unmanned aircraft; a detector that detects a moving object based on a result of the sensing performed by the sensor; and an obtainer that obtains area information indicating an area, entry to which by the moving object is undesirable; characterized in that the unmanned aircraft further comprises a flight controller that causes the unmanned aircraft to move to a position between the moving object and the area indicated by the area information, based on a positional relation between the moving object and the area, and fly at the position that is a destination position wherein the destination position is a position at which a route from a position of the moving object to the area has a narrowest width, and the route is determined on the basis of map information. a sensor that performs sensing of an environment of the unmanned aircraft; a detector that detects a moving object based on a result of the sensing performed by the sensor; and an obtainer that obtains area information indicating an area, entry to which by the moving object is undesirable; characterized in that the unmanned aircraft further comprises a flight controller that causes the unmanned aircraft to move to a position between the moving object and the area indicated by the area information, based on a positional relation between the moving object and the area, and fly at the position that is a destination position wherein the destination position is a position at which a route from a position of the moving object to the area has a narrowest width, and the route is determined on the basis of map information.
A nozzle cleaning period management device comprising: a cleaning device that cleans suction nozzles that are used in order to perform vacuum retention of an electronic component; and a flow rate measurement means for measuring a flow rate that flows through the suction nozzles, characterized by a reduction amount calculation means (Step 104) configured for calculating a unit flow rate reduction amount (ΔRd) of the flow rate of the suction nozzle per a number of times of mounting of electronic components (Rd) on the basis of a flow rate difference before and after cleaning, which is measured by the flow rate measurement means; and an estimation means (Step 204) configured for estimating a cleaning period until subsequent cleaning of the the suction nozzles, on the basis of the unit flow rate reduction amount (ΔRd), which is calculated by the reduction amount calculation means (Step 104), and a flow rate after cleaning. a cleaning device that cleans suction nozzles that are used in order to perform vacuum retention of an electronic component; and a flow rate measurement means for measuring a flow rate that flows through the suction nozzles, characterized by a reduction amount calculation means (Step 104) configured for calculating a unit flow rate reduction amount (ΔRd) of the flow rate of the suction nozzle per a number of times of mounting of electronic components (Rd) on the basis of a flow rate difference before and after cleaning, which is measured by the flow rate measurement means; and an estimation means (Step 204) configured for estimating a cleaning period until subsequent cleaning of the the suction nozzles, on the basis of the unit flow rate reduction amount (ΔRd), which is calculated by the reduction amount calculation means (Step 104), and a flow rate after cleaning.
A benzenesulfonamide derivative, represented by the following formula: wherein, R 1 is H, or C 1-3 alkyl; R 2 and R 3 bond together to form D is R 6 is H, halogen, C 1-6 alkyl, C 1-6 alkoxy, nitro, -NH 2, or -SO 2 NH 2. R 1 is H, or C 1-3 alkyl; R 2 and R 3 bond together to form D is R 6 is H, halogen, C 1-6 alkyl, C 1-6 alkoxy, nitro, -NH 2, or -SO 2 NH 2.
Control circuit for a lighting and/or signaling module for a vehicle, said module comprising at least two lighting and/or signaling functions (A, B) each implemented with at least two same light sources passed through by an electric current whose average intensity is different depending on the lighting and/or signaling function, the control circuit comprising: an input for a power source for said light sources; a connection of said light sources in parallel to said power supply input and to a ground so as to form at least two parallel lighting and/or signaling sections (8, 10, 12, 14) for the first and the second functions (A, B), a unit for monitoring the intensity of the current passing through said light sources, said unit being arranged electrically between said light sources and said power supply input or said ground, comprising a first input for a control signal for the first lighting and/or signaling function and a second input for a control signal for the second lighting and/or signaling function; and said sections being connected separately with said unit, characterized in that said unit is configured to detect a current flow fault in each section, and if a fault is detected in one of said sections (8, 10, 12, 14), to keep the remaining section or sections active in the presence of the first function and deactivate all the sections (8, 10, 12, 14) in the presence of the second function. an input for a power source for said light sources; a connection of said light sources in parallel to said power supply input and to a ground so as to form at least two parallel lighting and/or signaling sections (8, 10, 12, 14) for the first and the second functions (A, B), a unit for monitoring the intensity of the current passing through said light sources, said unit being arranged electrically between said light sources and said power supply input or said ground, comprising a first input for a control signal for the first lighting and/or signaling function and a second input for a control signal for the second lighting and/or signaling function; and said sections being connected separately with said unit, characterized in that said unit is configured to detect a current flow fault in each section, and if a fault is detected in one of said sections (8, 10, 12, 14), to keep the remaining section or sections active in the presence of the first function and deactivate all the sections (8, 10, 12, 14) in the presence of the second function.
Head rest assembly for a seat of a vehicle comprising: - two pins (9a, 9b) each one extending substantially along an adjustment direction between a lower end (26a, 26b) and an upper end (25a, 25b), with each one of the two pins having a mounting portion (14a, 14b) that comprises the lower end and intended to be fastened to a seat back of a seat, an adjustment portion (16a, 16b) comprising the upper end, and an intermediate portion (20a, 20b) between the mounting portion and the adjustment portion, - and a support structure adapted to support the head of a user, characterised in that the head rest assembly further comprises an interface made from overmoulded plastic and connecting together the intermediate portions (20a, 20b) of the two pins (9a, 9b). - two pins (9a, 9b) each one extending substantially along an adjustment direction between a lower end (26a, 26b) and an upper end (25a, 25b), with each one of the two pins having a mounting portion (14a, 14b) that comprises the lower end and intended to be fastened to a seat back of a seat, an adjustment portion (16a, 16b) comprising the upper end, and an intermediate portion (20a, 20b) between the mounting portion and the adjustment portion, - and a support structure adapted to support the head of a user, characterised in that the head rest assembly further comprises an interface made from overmoulded plastic and connecting together the intermediate portions (20a, 20b) of the two pins (9a, 9b).
An N-value prediction apparatus, comprising; a hypothetical learning data augmentation unit, based on an actual N-value measured at an actual location according to the Standard Penetration Test through drilling investigation, generating at least one of hypothetical N-values corresponding to a preset hypothetical point based on the actual N-value and ground characteristic data of the actual location; an N-value prediction model learning unit using the ground characteristic data corresponding to each of the actual location and the hypothetical point to learn an N-value prediction model, the ground characteristic data including the actual N-value and the hypothetical N-values; and an N-value prediction result calculation unit predicting an N-value at an arbitrary prediction target point by using the N-value prediction model generated by artificial intelligence learning executed in the N-value prediction model learning unit, wherein the hypothetical learning data augmentation unit uses circular augmentation where multiple hypothetical points are set up radially in a certain distance centering the actual location. a hypothetical learning data augmentation unit, based on an actual N-value measured at an actual location according to the Standard Penetration Test through drilling investigation, generating at least one of hypothetical N-values corresponding to a preset hypothetical point based on the actual N-value and ground characteristic data of the actual location; an N-value prediction model learning unit using the ground characteristic data corresponding to each of the actual location and the hypothetical point to learn an N-value prediction model, the ground characteristic data including the actual N-value and the hypothetical N-values; and an N-value prediction result calculation unit predicting an N-value at an arbitrary prediction target point by using the N-value prediction model generated by artificial intelligence learning executed in the N-value prediction model learning unit, wherein the hypothetical learning data augmentation unit uses circular augmentation where multiple hypothetical points are set up radially in a certain distance centering the actual location.
A method comprising: receiving a request for a distributed service, the distributed service offered by a service provider via a data communications network having service delivery locations reachable via a prescribed physical topology; identifying the service delivery locations within a prescribed logical topology overlying the prescribed physical topology, the prescribed logical topology segregating the distributed service from other network traffic on the prescribed physical topology; and identifying one or more of the service delivery locations optimized for providing the distributed service to a plurality of service consumption locations in the prescribed logical topology according to a prescribed service level agreement with the service provider, wherein identifying one or more of the service delivery locations as optimized includes providing an ordered list of the service delivery locations, the ordered list providing a ranking of the service delivery locations optimized for the plurality of service consumption locations. receiving a request for a distributed service, the distributed service offered by a service provider via a data communications network having service delivery locations reachable via a prescribed physical topology; identifying the service delivery locations within a prescribed logical topology overlying the prescribed physical topology, the prescribed logical topology segregating the distributed service from other network traffic on the prescribed physical topology; and identifying one or more of the service delivery locations optimized for providing the distributed service to a plurality of service consumption locations in the prescribed logical topology according to a prescribed service level agreement with the service provider, wherein identifying one or more of the service delivery locations as optimized includes providing an ordered list of the service delivery locations, the ordered list providing a ranking of the service delivery locations optimized for the plurality of service consumption locations.
An ultrasound imaging system, comprising: a transducer array, including a first set of transducer elements (206 or 208, 302 or 304) and a second set of transducer elements (208 or 206, 304 or 302), wherein the first and second sets of transducer elements includes long axes and are angularly offset from each other by a non-zero angle with respect to the long axes; and a velocity processor that is configured to process echoes received by the first and second sets of transducer elements and determine an axial and two transverse flow velocity components based on the received echoes. a controller that is configured to generate a first signal that concurrently excites both of the first and second sets of transducer elements, characterised in the controller being configured to excite the first and second sets of transducer elements with opposite polarity. a transducer array, including a first set of transducer elements (206 or 208, 302 or 304) and a second set of transducer elements (208 or 206, 304 or 302), wherein the first and second sets of transducer elements includes long axes and are angularly offset from each other by a non-zero angle with respect to the long axes; and a velocity processor that is configured to process echoes received by the first and second sets of transducer elements and determine an axial and two transverse flow velocity components based on the received echoes. a controller that is configured to generate a first signal that concurrently excites both of the first and second sets of transducer elements, characterised in the controller being configured to excite the first and second sets of transducer elements with opposite polarity.
A crystal of 7-{(3S,4S)-3-[(cyclopropylamino)methyl]-4-fluoropyrrolidine-1-yl}-6-fluoro-1-(2-fluoroethyl)-8-methoxy-4-oxo-1,4-dihydroquinoline-3-carboxylic acid hydrochloride salt, having powder X-ray diffraction peaks at diffraction angles 2θ of 10.8° ± 0.2°, 12.9° ± 0.2°, and 24.7° ± 0.2°.
Electrical bushing comprising: a mounting flange comprising a main flange element having a first bushing contact surface, and a ring element having a second bushing contact surface; at least one locking element; a body element comprising a circumferential protrusion having a first flange contact surface for contacting the first bushing contact surface and a second flange contact surface for contacting the second bushing contact surface, wherein at least one first recess is formed in the circumferential protrusion, characterized in that the at least one locking element is formed as a separate element which is configured to engage with the at least one first recess and with the mounting flange for restricting relative rotation of the body element relative to the mounting flange about a longitudinal axis but allowing relative rotation of the body element relative to the mounting flange prior to being locked in place. a mounting flange comprising a main flange element having a first bushing contact surface, and a ring element having a second bushing contact surface; a main flange element having a first bushing contact surface, and a ring element having a second bushing contact surface; at least one locking element; a body element comprising a circumferential protrusion having a first flange contact surface for contacting the first bushing contact surface and a second flange contact surface for contacting the second bushing contact surface, wherein at least one first recess is formed in the circumferential protrusion, characterized in that the at least one locking element is formed as a separate element which is configured to engage with the at least one first recess and with the mounting flange for restricting relative rotation of the body element relative to the mounting flange about a longitudinal axis but allowing relative rotation of the body element relative to the mounting flange prior to being locked in place.
A method for attaching an attachment piece with at least one horn to a watch case middle, the attachment piece comprising a first connector and the case middle comprising a second connector having an undercut groove, the first connector cooperating with the second connector to attach the attachment piece to the case middle, and the method comprising: placing the first connector of the attachment piece in contact with the second connector of the case middle such that one or more intermediate cavities are formed between the undercut groove and the first connector; melting one portion of the first connector of the attachment piece so as to create a molten material; filling, at least partially, the one or more intermediate cavities by displacement of the molten material; and solidifying the molten material in order to make the attachment piece integral with the case middle. placing the first connector of the attachment piece in contact with the second connector of the case middle such that one or more intermediate cavities are formed between the undercut groove and the first connector; melting one portion of the first connector of the attachment piece so as to create a molten material; filling, at least partially, the one or more intermediate cavities by displacement of the molten material; and solidifying the molten material in order to make the attachment piece integral with the case middle.
Test system for examining a hollow body, in particular a cylinder bore in an engine block, with - a measuring device comprising an elongate body and several sensors (15, 16) which are connected to the body and adapted to carry out a distance measurement, - electronic control means which are adapted to move the measuring device into a hollow body to be examined and to determine an internal diameter of the hollow body on the basis of distance measurement data of the sensors (15, 16), characterized in that for the examination of hollow bodies of different diameters at least a part of the sensors (15, 16) are designed as movable sensors (15, 16) which are optical sensors (15, 16) and movable relative to the elongate body of the measuring device at least in the radial direction, in that depending on a hollow body to be examined the electronic control means are adapted to select a measuring position of the movable optical sensors (15, 16) relative to the elongate body, in that a calibrating station is provided and in that the electronic control means are adapted to carry out a calibration process for the movable sensors (15, 16) on the calibrating station, wherein for a calibration measurement the optical sensors (15, 16) can be moved to a reference measuring position relative to the elongate body. - a measuring device comprising an elongate body and several sensors (15, 16) which are connected to the body and adapted to carry out a distance measurement, - electronic control means which are adapted to move the measuring device into a hollow body to be examined and to determine an internal diameter of the hollow body on the basis of distance measurement data of the sensors (15, 16),
A device, comprising: a contact lens comprising: a substrate; a plurality of sensors disposed on or within the substrate; a control circuit disposed on the substrate and coupled with the sensors, the control circuit comprising: a processing component configured to: obtain respective state information associated with one or more of the plurality of sensors, wherein the respective state information indicates whether an associated sensor is covered by an eyelid, and wherein respective state information associated with respective sensors is uniquely identifiable by the processing component; characterised in that the processing component is further configured to: in response to a determination that a first sensor of the plurality of sensors is covered by the eyelid and a second sensor of the plurality of sensors is not covered by the eyelid, determine that the eyelid is partially closed. a substrate; a plurality of sensors disposed on or within the substrate; a control circuit disposed on the substrate and coupled with the sensors, the control circuit comprising: a processing component configured to: obtain respective state information associated with one or more of the plurality of sensors, wherein the respective state information indicates whether an associated sensor is covered by an eyelid, and wherein respective state information associated with respective sensors is uniquely identifiable by the processing component; characterised in that the processing component is further configured to: in response to a determination that a first sensor of the plurality of sensors is covered by the eyelid and a second sensor of the plurality of sensors is not covered by the eyelid, determine that the eyelid is partially closed. obtain respective state information associated with one or more of the plurality of sensors, wherein the respective state information indicates whether an associated sensor is covered by an eyelid, and wherein respective state information associated with respective sensors is uniquely identifiable by the processing component; characterised in that the processing component is further configured to: in response to a determination that a first sensor of the plurality of sensors is covered by the eyelid and a second sensor of the plurality of sensors is not covered by the eyelid, determine that the eyelid is partially closed.
A pattern forming apparatus for forming a pattern on a substrate, the pattern forming apparatus comprising: a holding portion arranged to hold the substrate by suction; an optical system (161, 162) arranged to detect, from the suction surface side of the substrate, an alignment mark provided on the substrate held by the holding portion; and means arranged to selectively block light directed towards the optical system (161,162) from entering the optical system (161, 162), wherein the means is arranged to change a light transmission state of the means to one of a light-shielding state in which the light is blocked and a light-transmitting state in which the light is transmitted, and wherein the means is arranged to block light that is for forming a pattern on the substrate from entering the optical system (161, 162). a holding portion arranged to hold the substrate by suction; an optical system (161, 162) arranged to detect, from the suction surface side of the substrate, an alignment mark provided on the substrate held by the holding portion; and means arranged to selectively block light directed towards the optical system (161,162) from entering the optical system (161, 162), wherein the means is arranged to change a light transmission state of the means to one of a light-shielding state in which the light is blocked and a light-transmitting state in which the light is transmitted, and wherein the means is arranged to block light that is for forming a pattern on the substrate from entering the optical system (161, 162).