mhurhangee/ep-ind-claims huggingface dataset:
Method for parking a vehicle in a parking space, comprising the steps of detecting a potential parking space with the vehicle, setting up a communication connection to at least one auxiliary vehicle parked beside the potential parking space, receiving vehicle information from the at least one auxiliary vehicle relating to the potential parking space via the communication connection, identifying a parking space taking into account the potential parking space and the vehicle information from the at least one auxiliary vehicle relating to the potential parking space, and parking the vehicle in the parking space, wherein the step of identifying a parking space comprises identifying at least one obstacle in the region of the parking space, characterized in that the at least one obstacle is identified as a temporary obstacle on the basis of the received vehicle information, wherein the temporary obstacle is an open vehicle door or vehicle flap of the auxiliary vehicle. detecting a potential parking space with the vehicle, setting up a communication connection to at least one auxiliary vehicle parked beside the potential parking space, receiving vehicle information from the at least one auxiliary vehicle relating to the potential parking space via the communication connection, identifying a parking space taking into account the potential parking space and the vehicle information from the at least one auxiliary vehicle relating to the potential parking space, and parking the vehicle in the parking space, wherein the step of identifying a parking space comprises identifying at least one obstacle in the region of the parking space, characterized in that the at least one obstacle is identified as a temporary obstacle on the basis of the received vehicle information, wherein the temporary obstacle is an open vehicle door or vehicle flap of the auxiliary vehicle.
A method for dividing a brittle substrate, the method comprising: preparing a brittle substrate made of glass, ceramic, silicon, compound semiconductor, sapphire, or quartz, said brittle substrate including a first surface and having a thickness direction perpendicular to said first surface; pressing a cutter edge (51; 51v) against said first surface of said brittle substrate; forming a trench line having a groove shape by causing said cutter edge pressed in said pressing to slide on said first surface of said brittle substrate to generate a plastic deformation on said first surface of said brittle substrate, said forming a trench line being performed to obtain a crack-free state in which said brittle substrate seamlessly continues in a direction intersecting said trench line directly below said trench line; maintaining said crack-free state after said forming a trench line, said maintaining said crack-free state comprising at least one of transporting said brittle substrate and processing said brittle substrate; after said maintaining said crack-free state, forming a crack line by extending a crack of said brittle substrate in said thickness direction along said trench line, said crack line breaking seamless continuity of said brittle substrate in the direction intersecting said trench line directly below said trench line; and dividing said brittle substrate along said crack line, characterized in that said cutter edge (51; 51v) is fixed to and held by a shank. preparing a brittle substrate made of glass, ceramic, silicon, compound semiconductor, sapphire, or quartz, said brittle substrate including a first surface and having a thickness direction perpendicular to said first surface; pressing a cutter edge (51; 51v) against said first surface of said brittle substrate; forming a trench line having a groove shape by causing said cutter edge pressed in said pressing to slide on said first surface of said brittle substrate to generate a plastic deformation on said first surface of said brittle substrate, said forming a trench line being performed to obtain a crack-free state in which said brittle substrate seamlessly continues in a direction intersecting said trench line directly below said trench line; maintaining said crack-free state after said forming a trench line, said maintaining said crack-free state comprising at least one of transporting said brittle substrate and processing said brittle substrate; after said maintaining said crack-free state, forming a crack line by extending a crack of said brittle substrate in said thickness direction along said trench line, said crack line breaking seamless continuity of said brittle substrate in the direction intersecting said trench line directly below said trench line; and dividing said brittle substrate along said crack line, characterized in that said cutter edge (51; 51v) is fixed to and held by a shank.
A target object detection system comprising: - a first detector comprising at least a first magnetic sensor configured to generate a signal indicative of an intensity of a detected magnetic field, - a second detector distinct from the first detector and comprising at least one second magnetic sensor configured to generate a signal indicative of an intensity of a detected magnetic field, and - a processing unit configured to receive signals indicative of an intensity of a magnetic field detected by the first magnetic sensor and/or the second magnetic sensor, - at least one communication interface, said interface being configured to transmit the signal generated by the first and/or second magnetic sensor to the processing unit, the detection system being characterised in that - the processing unit is configured to determine a corrected value of the signals generated by the magnetic sensors of the first and second detectors (10, 20) by applying an attenuation coefficient to the signals generated by the magnetic sensor or sensors and/or to a mean value of said signals, the attenuation coefficient depending on the value of the signals generated by the magnetic sensor or sensors and, when said corrected value is greater than a predetermined threshold value, to send instructions for generating an alarm. - a first detector comprising at least a first magnetic sensor configured to generate a signal indicative of an intensity of a detected magnetic field, - a second detector distinct from the first detector and comprising at least one second magnetic sensor configured to generate a signal indicative of an intensity of a detected magnetic field, and - a processing unit configured to receive signals indicative of an intensity of a magnetic field detected by the first magnetic sensor and/or the second magnetic sensor, - at least one communication interface, said interface being configured to transmit the signal generated by the first and/or second magnetic sensor to the processing unit, the detection system being characterised in that - the processing unit is configured to determine a corrected value of the signals generated by the magnetic sensors of the first and second detectors (10, 20) by applying an attenuation coefficient to the signals generated by the magnetic sensor or sensors and/or to a mean value of said signals, the attenuation coefficient depending on the value of the signals generated by the magnetic sensor or sensors and, when said corrected value is greater than a predetermined threshold value, to send instructions for generating an alarm.
Tool for overmolding and/or back-molding a curved glass body, the tool having a first surface for placing the curved glass body, the tool comprising a plurality of pins, the pins each having a first end face at a first end of the pins, at least a portion of the first surface being formed by the first end faces of the pins, the pins being mounted displaceably along their longitudinal direction, so that at least the portion of the first surface is adaptable to a contour of the curved glass body, characterized in that the pins are arranged so as to be lined up in rows and columns, so that the first end faces thereof form a flush curved surface in a corresponding position in the longitudinal direction. the tool having a first surface for placing the curved glass body, the tool comprising a plurality of pins, the pins each having a first end face at a first end of the pins, at least a portion of the first surface being formed by the first end faces of the pins, the pins being mounted displaceably along their longitudinal direction, so that at least the portion of the first surface is adaptable to a contour of the curved glass body, characterized in that the pins are arranged so as to be lined up in rows and columns, so that the first end faces thereof form a flush curved surface in a corresponding position in the longitudinal direction.
An adhesive dispensing system (10, 110, 210), comprising: a dispenser gun configured to dispense adhesive onto a substrate; a hot melt unit (14, 114, 214) configured to heat adhesive and pump adhesive to the dispenser gun, the hot melt unit (14, 114, 214) including a melter control system controlling operation of the hot melt unit; and a source of gun actuation (26, 126) configured to send gun actuation signals to operate the dispenser gun; characterized in the control system monitoring the gun actuation signals, and being configured for at least one of the following: a) determining whether the gun requires service in response to the gun actuation signals; and b) operating a plurality of diagnostic processes based on the monitored gun actuation signals, to thereby monitor operation of the dispenser gun and operation of the dispensing system as a whole. a dispenser gun configured to dispense adhesive onto a substrate; a hot melt unit (14, 114, 214) configured to heat adhesive and pump adhesive to the dispenser gun, the hot melt unit (14, 114, 214) including a melter control system controlling operation of the hot melt unit; and a source of gun actuation (26, 126) configured to send gun actuation signals to operate the dispenser gun; characterized in the control system monitoring the gun actuation signals, and being configured for at least one of the following: a) determining whether the gun requires service in response to the gun actuation signals; and b) operating a plurality of diagnostic processes based on the monitored gun actuation signals, to thereby monitor operation of the dispenser gun and operation of the dispensing system as a whole. a) determining whether the gun requires service in response to the gun actuation signals; and b) operating a plurality of diagnostic processes based on the monitored gun actuation signals, to thereby monitor operation of the dispenser gun and operation of the dispensing system as a whole.
Process for the production and/or processing of food products from a pourable composition, in particular a fat-continuous fluid, wherein the flow behavior of the pourable composition is adjusted and/or altered by adding a mixture of spherical and angular particles is added to the pourable composition and the proportion of spherical particles is adjusted, wherein - the proportion of spherical particles, of which at least 90% by volume have a diameter below 500 μm and in particular 90% by volume have a diameter greater than 1 pm, in the total solids content of the pourable composition is increased; and/or - spherical particles, at least 90% by volume of which have a diameter of less than 500 μm and, in particular, 90% by volume of which have a diameter of greater than 1 pm, are metered into the pourable composition in an apparatus for the production and/or processing of food products, characterized in that a setpoint value is entered or set in a control and/or regulating unit, and the quantity ratio of spherical to angular particles is taken from a stored table depending on the setpoint value for the flowability, or spherical particles are added taking into account a predetermined recipe until a value determined by measurement for the flow behavior corresponds to the predetermined setpoint value. wherein the flow behavior of the pourable composition is adjusted and/or altered by adding a mixture of spherical and angular particles is added to the pourable composition and the proportion of spherical particles is adjusted, wherein - the proportion of spherical particles, of which at least 90% by volume have a diameter below 500 μm and in particular 90% by volume have a diameter greater than 1 pm, in the total solids content of the pourable composition is increased; and/or - spherical particles, at least 90% by volume of which have a diameter of less than 500 μm and, in particular, 90% by volume of which have a diameter of greater than 1 pm, are metered into the pourable composition in an apparatus for the production and/or processing of food products, characterized in that - the proportion of spherical particles, of which at least 90% by volume have a diameter below 500 μm and in particular 90% by volume have a diameter greater than 1 pm, in the total solids content of the pourable composition is increased; and/or - spherical particles, at least 90% by volume of which have a diameter of less than 500 μm and, in particular, 90% by volume of which have a diameter of greater than 1 pm, are metered into the pourable composition in an apparatus for the production and/or processing of food products, characterized in that
A forced air heater comprising: a heating element; a heat sink mounted on the heating element; and at least two air movers directing air towards the heating element, wherein at least one air mover directs the air at a different angle relative to the directed air of at least one other air mover, each air mover directs the air to provide impinged airflow at an acute angle relative to the heating element, and each of the at least two air movers direct air towards the heating element from an opposite side of the heating element. a heating element; a heat sink mounted on the heating element; and at least two air movers directing air towards the heating element, wherein at least one air mover directs the air at a different angle relative to the directed air of at least one other air mover, each air mover directs the air to provide impinged airflow at an acute angle relative to the heating element, and each of the at least two air movers direct air towards the heating element from an opposite side of the heating element.
A bone plating system for repairing a periarticular bone fracture comprising: a plate, where the plate is low-profile; at least one channel or tunnel through the plate; and at least one flexible device configured to pass through the channel or tunnel and through soft tissue attached to the bone; the plate is metal and generally has an elongated X shape, such that the plate has a center section, two arms extending generally upward, and two arms extending generally downward; the at least one channel or tunnel passes through each of the two arms extending generally upward from the plate; and the at least one flexible device is a cable, wire or suture configured to pass through the channel or tunnel in each of the two arms extending generally upward characterized in that the plate is malleable such that it can be contoured to the bone in situ; and the at least one flexible device is configured to pass through the soft tissue extending upward from the bone. a plate, where the plate is low-profile; at least one channel or tunnel through the plate; and at least one flexible device configured to pass through the channel or tunnel and through soft tissue attached to the bone; the plate is metal and generally has an elongated X shape, such that the plate has a center section, two arms extending generally upward, and two arms extending generally downward; the at least one channel or tunnel passes through each of the two arms extending generally upward from the plate; and the at least one flexible device is a cable, wire or suture configured to pass through the channel or tunnel in each of the two arms extending generally upward characterized in that the plate is malleable such that it can be contoured to the bone in situ; and the at least one flexible device is configured to pass through the soft tissue extending upward from the bone.
Method for operating an actuator for manoeuvring a windable mobile element of a home automation appliance, the mobile element being able to be displaced between two extreme positions, the method comprising a first step for definition of a first angular speed setpoint of the actuator in a first docking area and a second step for definition of a second angular speed setpoint of the actuator in a second docking area, the first and second angular speed setpoints being different, the speeds of displacement of the mobile element being reduced in the docking areas relative to the speed of displacement over the rest of the travel.
A container of consumer goods comprising: an outer housing comprising: a box; and a lid hinged to the box along a hinge line extending across a back wall of the outer housing; an inner package enclosing the consumer goods having an access opening; and an adhesive label, wherein a resealable adhesive is provided on a first portion of an inner surface of the adhesive label and an opposed outer surface of the adhesive label is permanently attached to an inner surface of a front wall of the lid of the outer housing such that movement of the lid of the outer housing simultaneously moves the adhesive label between a closed position and an open position, wherein a lower end portion of the outer surface of the adhesive label is permanently attached to the inner surface of the front wall of the lid of the outer housing, characterised in that the lower end of the outer surface of the adhesive label is permanently attached at a location at least 30 percent of the total height of the front wall of the lid from the lower edge of the front wall of the lid, such that the adhesive label is inwardly concave throughout its movement. an outer housing comprising: a box; and a lid hinged to the box along a hinge line extending across a back wall of the outer housing; a box; and a lid hinged to the box along a hinge line extending across a back wall of the outer housing; an inner package enclosing the consumer goods having an access opening; and an adhesive label, wherein a resealable adhesive is provided on a first portion of an inner surface of the adhesive label and an opposed outer surface of the adhesive label is permanently attached to an inner surface of a front wall of the lid of the outer housing such that movement of the lid of the outer housing simultaneously moves the adhesive label between a closed position and an open position, wherein a lower end portion of the outer surface of the adhesive label is permanently attached to the inner surface of the front wall of the lid of the outer housing, characterised in that the lower end of the outer surface of the adhesive label is permanently attached at a location at least 30 percent of the total height of the front wall of the lid from the lower edge of the front wall of the lid, such that the adhesive label is inwardly concave throughout its movement.
An implantable biliary or pancreatic stent for implanting in the gastrointestinal tract, comprising a first end for placing in the bile duct or the pancreatic duct and a second end for placing in the duodenum, the first end comprising a pressure sensor arranged to measure bile duct or pancreatic duct pressure, respectively, and the second end comprising a pressure sensor arranged to measure duodenal pressure, wherein the sensors are configured to detect a differential pressure between the bile duct or the pancreatic duct, and the duodenum; the implantable biliary or pancreatic stent further comprising an electronic data processor arranged to calculate the differential pressure between the bile or pancreatic duct sensor, and the duodenum sensor; wherein each pressure sensor (4, 6) comprises an electronic circuit with electronic components and a substrate for receiving the electronic circuit and electronic components, wherein said substrate is a flexible membrane; wherein the flexible membrane is a flexible tube that is part of a thin tube that forms the stent, or the flexible membrane is a sleeve surrounding the stent. the implantable biliary or pancreatic stent further comprising an electronic data processor arranged to calculate the differential pressure between the bile or pancreatic duct sensor, and the duodenum sensor; wherein each pressure sensor (4, 6) comprises an electronic circuit with electronic components and a substrate for receiving the electronic circuit and electronic components, wherein said substrate is a flexible membrane; wherein the flexible membrane is a flexible tube that is part of a thin tube that forms the stent, or the flexible membrane is a sleeve surrounding the stent.
A computer-implemented method for forming a dataset configured for learning a Convolutional Neural Network architecture, the CNN architecture comprising an image feature extractor, the method comprising: - providing pairs of images, each pair comprising a reference image and a respective denoised image; - for each pair of images: • providing the pair of images to a pre-trained CNN architecture similar to the one the formed dataset will be configured for; • computing a difference between a first normalized feature of the denoised image and a second normalized feature of the reference image, the first and second normalized features being the output of a same layer of the pre-trained CNN architecture; • computing an error map representing the computed difference, wherein computing the error map comprises: - down-sampling the resolution of the computed difference; and - computing the error map with the down-sampled resolution of the difference, each pixel of the error map having a color following a color scale that penalizes the computed difference, thereby obtaining a coarse error map; and • adding the respective denoised image and the error map to the dataset. - providing pairs of images, each pair comprising a reference image and a respective denoised image; - for each pair of images: • providing the pair of images to a pre-trained CNN architecture similar to the one the formed dataset will be configured for; • computing a difference between a first normalized feature of the denoised image and a second normalized feature of the reference image, the first and second normalized features being the output of a same layer of the pre-trained CNN architecture; • computing an error map representing the computed difference, • providing the pair of images to a pre-trained CNN architecture similar to the one the formed dataset will be configured for; • computing a difference between a first normalized feature of the denoised image and a second normalized feature of the reference image, the first and second normalized features being the output of a same layer of the pre-trained CNN architecture; • computing an error map representing the computed difference, - down-sampling the resolution of the computed difference; and - computing the error map with the down-sampled resolution of the difference, each pixel of the error map having a color following a color scale that penalizes the computed difference, thereby obtaining a coarse error map; and • adding the respective denoised image and the error map to the dataset. • adding the respective denoised image and the error map to the dataset.