mhurhangee/ep-ind-claims huggingface dataset:
A display apparatus comprising: a display configured to be rotatable; a plurality of cameras (120-1,..., 120-n) including a first camera and a second camera, the second camera having an angle of view that is greater than an angle of view of the first camera; a motor for rotating the display; and a processor configured to: based on the display being oriented in a portrait orientation, control the first camera of the plurality of cameras (120-1,..., 120-n) to perform photographing of a first image and identify an object included in the first image, based on a user command being received while the first camera is performing photographing of the first image, control the motor to rotate the display to be oriented in a landscape orientation, and control the first camera to perform photographing of a second image, and based on identifying that the object is not in the second image, control the first camera to stop photographing, and control the second camera of the plurality of cameras (120-1,..., (120-n) to perform photographing of a third image. a display configured to be rotatable; a plurality of cameras (120-1,..., 120-n) including a first camera and a second camera, the second camera having an angle of view that is greater than an angle of view of the first camera; a motor for rotating the display; and a processor configured to: based on the display being oriented in a portrait orientation, control the first camera of the plurality of cameras (120-1,..., 120-n) to perform photographing of a first image and identify an object included in the first image, based on a user command being received while the first camera is performing photographing of the first image, control the motor to rotate the display to be oriented in a landscape orientation, and control the first camera to perform photographing of a second image, and based on identifying that the object is not in the second image, control the first camera to stop photographing, and control the second camera of the plurality of cameras (120-1,..., (120-n) to perform photographing of a third image. based on the display being oriented in a portrait orientation, control the first camera of the plurality of cameras (120-1,..., 120-n) to perform photographing of a first image and identify an object included in the first image, based on a user command being received while the first camera is performing photographing of the first image, control the motor to rotate the display to be oriented in a landscape orientation, and control the first camera to perform photographing of a second image, and based on identifying that the object is not in the second image, control the first camera to stop photographing, and control the second camera of the plurality of cameras (120-1,..., (120-n) to perform photographing of a third image.
A switch circuit comprising: a first circuit (120A, 120C) including a first switch; and a second circuit (120B, 120D) including a second switch, wherein the first circuit (120A, 120C) and the second circuit (120B, 120D) are connected in series, the first circuit (120A, 120C) has a circuit configuration in which a combination of resistors in a signal path between output terminals of the first circuit differs depending on an electrical conduction state of the first switch, and the second circuit (120B, 120D) has a circuit configuration in which a combination of resistors in a signal path between output terminals of the second circuit differs depending on an electrical conduction state of the second switch, characterized in that the first switch and the second switch are arranged side by side to each other, the switch circuit further comprises an operation member of each of the first switch and the second switch, wherein the electrical conduction state of the first switch and the electrical conduction state of the second switch simultaneously change in response to an operation of the operation member of the first switch and the second switch at the same time. a first circuit (120A, 120C) including a first switch; and a second circuit (120B, 120D) including a second switch, wherein the first circuit (120A, 120C) and the second circuit (120B, 120D) are connected in series, the first circuit (120A, 120C) has a circuit configuration in which a combination of resistors in a signal path between output terminals of the first circuit differs depending on an electrical conduction state of the first switch, and the second circuit (120B, 120D) has a circuit configuration in which a combination of resistors in a signal path between output terminals of the second circuit differs depending on an electrical conduction state of the second switch, characterized in that the first switch and the second switch are arranged side by side to each other, the switch circuit further comprises an operation member of each of the first switch and the second switch, wherein the electrical conduction state of the first switch and the electrical conduction state of the second switch simultaneously change in response to an operation of the operation member of the first switch and the second switch at the same time.
A curable composition comprising: a non-aromatic epoxy-functional epoxy resin adduct, the epoxy resin adduct comprising the reaction product of a reaction mixture comprising: a polyfunctional thiol; and a polyfunctional epoxy resin; a non-aromatic epoxy resin; and a non-aromatic anhydride-based curing agent; wherein the cured composition has a Izod Impact Test (Notched Izod) test method (ASTM D256) value of at least 40 J/m. a non-aromatic epoxy-functional epoxy resin adduct, the epoxy resin adduct comprising the reaction product of a reaction mixture comprising: a polyfunctional thiol; and a polyfunctional epoxy resin; a polyfunctional thiol; and a polyfunctional epoxy resin; a non-aromatic epoxy resin; and a non-aromatic anhydride-based curing agent;
A fixing member for electrophotography, comprising: a substrate; and a release layer as a surface layer, wherein the release layer includes: a first fluororesin and a second fluororesin, the first fluororesin being perfluoropolyether (PFPE), the second fluororesin being at least one selected from a tetrafluoroethylene-perfluoroalkyl vinyl ether copolymer and a tetrafluoroethylene-hexafluoropropylene copolymer, and a longitudinal relaxation time of PFPE in a form of a simple substance derived from a 19 F-NMR measured at a temperature of 200°C is defined as T1-1, and a longitudinal relaxation time of PFPE contained in the release layer derived from a 19 F-NMR of the release layer measured at a temperature of 200°C is defined as T1-2, T1-1, and T1-2 satisfy a relationship represented by Equation below: T 1 − 1 − T 1 − 2 / T 1 − 1 ≥ 0.1. a substrate; and a release layer as a surface layer, wherein the release layer includes: a first fluororesin and a second fluororesin, the first fluororesin being perfluoropolyether (PFPE), the second fluororesin being at least one selected from a tetrafluoroethylene-perfluoroalkyl vinyl ether copolymer and a tetrafluoroethylene-hexafluoropropylene copolymer, and a longitudinal relaxation time of PFPE in a form of a simple substance derived from a 19 F-NMR measured at a temperature of 200°C is defined as T1-1, and a longitudinal relaxation time of PFPE contained in the release layer derived from a 19 F-NMR of the release layer measured at a temperature of 200°C is defined as T1-2, a first fluororesin and a second fluororesin, the first fluororesin being perfluoropolyether (PFPE), the second fluororesin being at least one selected from a tetrafluoroethylene-perfluoroalkyl vinyl ether copolymer and a tetrafluoroethylene-hexafluoropropylene copolymer, and a longitudinal relaxation time of PFPE in a form of a simple substance derived from a 19 F-NMR measured at a temperature of 200°C is defined as T1-1, and a longitudinal relaxation time of PFPE contained in the release layer derived from a 19 F-NMR of the release layer measured at a temperature of 200°C is defined as T1-2, T1-1, and T1-2 satisfy a relationship represented by Equation below: T 1 − 1 − T 1 − 2 / T 1 − 1 ≥ 0.1.
Wing for an aircraft, comprising - a leading edge, - a wing tip extension extending from an end of a main wing to a wing tip, wherein the wing tip extension comprises an arrangement of openings at an upper side and/or a lower side at least from the end of the main wing to the wing tip along the leading edge, which openings are connected to an air conveying device (30, 38, 40, 44) for conveying air through the openings, and - a control unit connected to the conveying device for switching on and off the air supply to the openings. - a leading edge, - a wing tip extension extending from an end of a main wing to a wing tip, - a control unit connected to the conveying device for switching on and off the air supply to the openings.
A radar level gauge system comprising: a communication module configured to be connected to an external communication device; a measurement module configured to generate, transmit and receive a measurement signal; a control connection configured to connect the communication module to the measurement module, the control connection being controllable between a low-impedance mode and a high-impedance mode and configured to be in a high-impedance mode at least during a measurement by the measurement module, wherein an impedance of the control connection in the high-impedance mode is at least 10 times higher than an impedance of the control connection in the low-impedance mode; a power supply configured to provide power to the measurement module; an energy storage coupled to the power supply; a measurement connection connecting the communication module to the energy storage, wherein the energy storage is arranged to be charged by the measurement connection and configured to provide power to the power supply for performing a measurement by the measurement module; and a switch arranged between the communication module and the energy storage, the switch being controllable to break the measurement connection between the communication module and the energy storage during a measurement by the measurement module. a communication module configured to be connected to an external communication device; a measurement module configured to generate, transmit and receive a measurement signal; a control connection configured to connect the communication module to the measurement module, the control connection being controllable between a low-impedance mode and a high-impedance mode and configured to be in a high-impedance mode at least during a measurement by the measurement module, wherein an impedance of the control connection in the high-impedance mode is at least 10 times higher than an impedance of the control connection in the low-impedance mode; a power supply configured to provide power to the measurement module; an energy storage coupled to the power supply; a measurement connection connecting the communication module to the energy storage, wherein the energy storage is arranged to be charged by the measurement connection and configured to provide power to the power supply for performing a measurement by the measurement module; and a switch arranged between the communication module and the energy storage, the switch being controllable to break the measurement connection between the communication module and the energy storage during a measurement by the measurement module.
Parking garage that is at least partially automatic, comprising at least one floor (1; 1a, 1b) comprising parking lanes separated by lateral limits, each parking lane comprising parking spaces capable of moving vehicles against each other in the longitudinal direction, the entrance and/or exit ends of the parking lanes being connected to a transport means consisting in one or more platforms traveling on rails allowing the vehicles to automatically enter and exit the parking lanes, at least one floor (1; 1a, 1b) being at least partially surrounded by the rails, characterized in that each parking lane comprises a driving means for directly driving the wheels of a vehicle in order to move the vehicle in the longitudinal direction up to a free space, in that each platform comprises a driving means for setting a vehicle in motion and in that the driving means of the parking lanes and the driving means of the platforms comprise a rider set in motion on rails by means of driving cables.
A method of forming a fuse assembly, comprising: providing a fusible element, the fusible element including a series of solid sections joined together by electrically conductive bridges; forming an arc suppression band about the fusible element, characterised by the arc suppression band being formed using a plasma jet performing one or more of the following operations: depositing a silicone material about the fusible element as a series of droplets; cycling between 'ON' and 'OFF' states while depositing the silicone material; rotating the plasma jet and the fusible element relative to one another to form the arc suppression band about the fusible element; spacing apart from the fusible element while the silicone material is deposited; and delivering the silicone material to the fusible element while being held at each of at least four different positions relative to the fusible element; wherein the silicone material is delivered to the fusible element at a plurality of angles. providing a fusible element, the fusible element including a series of solid sections joined together by electrically conductive bridges; forming an arc suppression band about the fusible element, characterised by the arc suppression band being formed using a plasma jet performing one or more of the following operations: depositing a silicone material about the fusible element as a series of droplets; cycling between 'ON' and 'OFF' states while depositing the silicone material; rotating the plasma jet and the fusible element relative to one another to form the arc suppression band about the fusible element; spacing apart from the fusible element while the silicone material is deposited; and delivering the silicone material to the fusible element while being held at each of at least four different positions relative to the fusible element; depositing a silicone material about the fusible element as a series of droplets; cycling between 'ON' and 'OFF' states while depositing the silicone material; rotating the plasma jet and the fusible element relative to one another to form the arc suppression band about the fusible element; spacing apart from the fusible element while the silicone material is deposited; and delivering the silicone material to the fusible element while being held at each of at least four different positions relative to the fusible element; wherein the silicone material is delivered to the fusible element at a plurality of angles.
Multimedia device for a vehicle with a test drive application which can be executed during a test drive of the vehicle, which test drive application is configured to interact with a test driver during the test drive of the vehicle and to activate as a test at least one function system of the vehicle and for each function system activated as a test to request a feedback from the test driver.
A cooking appliance comprising: a base, a heat source, and cooking elements (12, 14) mounted to said base, cooking elements providing a cooking surface (8, 9) upon which food can be cooked, characterized in that said cooking element is a multisided element having various cooking surfaces (8, 9), where each side of said multisided cooking elements (12, 14) provides a different cooking surface, said various cooking surfaces (8, 9) being arranged about a central axis of said multisided cooking element (12, 14) and said multisided cooking element (12, 14) is mounted to said base to allow said cooking element (12, 14) to rotate in order to present the desired surfaces (8, 9). a base, a heat source, and cooking elements (12, 14) mounted to said base, cooking elements providing a cooking surface (8, 9) upon which food can be cooked, characterized in that said cooking element is a multisided element having various cooking surfaces (8, 9), where each side of said multisided cooking elements (12, 14) provides a different cooking surface, said various cooking surfaces (8, 9) being arranged about a central axis of said multisided cooking element (12, 14) and said multisided cooking element (12, 14) is mounted to said base to allow said cooking element (12, 14) to rotate in order to present the desired surfaces (8, 9).
A method of selecting a path for forwarding a data packet between a user station and a base station in a wireless communication system, the wireless communication system having at least two possible paths for forwarding the data packet between the user station and the base station, at least one of the possible paths being via at least one relay station, the method characterised by: calculating a system capacity versus delay impact curve for a direct path, and a relay capacity curve; shifting the system capacity versus delay impact curve by a predetermined time to produce a projected capacity curve for a relay path, the predetermined time delay corresponding to an additional delay over the relay path, the relay path including the at least one relay station and having a second capacity cost determined according to a combined measure of signal quality of multiple links in the relay path; multiplying the second capacity cost by a capacity cost ratio to produce a relay capacity curve, wherein the capacity cost ratio is unity; determining a preferred path for forwarding the data packet based at least in part on a combination of added delay at each station on each possible path and data rate for transmission between each pair of stations on each possible path; and forwarding the data packet between the user station and the base station on the determined preferred path. calculating a system capacity versus delay impact curve for a direct path, and a relay capacity curve; shifting the system capacity versus delay impact curve by a predetermined time to produce a projected capacity curve for a relay path, the predetermined time delay corresponding to an additional delay over the relay path, the relay path including the at least one relay station and having a second capacity cost determined according to a combined measure of signal quality of multiple links in the relay path; multiplying the second capacity cost by a capacity cost ratio to produce a relay capacity curve, wherein the capacity cost ratio is unity; determining a preferred path for forwarding the data packet based at least in part on a combination of added delay at each station on each possible path and data rate for transmission between each pair of stations on each possible path; and forwarding the data packet between the user station and the base station on the determined preferred path.
A method for manufacturing a high-strength galvannealed steel sheet, wherein the steel sheet has a chemical composition consisting of C: 0.01 mass% or more and 0.20 mass% or less, Si: 0.5 mass% or more and 2.0 mass% or less, Mn: 1.0 mass% or more and 3.0 mass% or less, P: 0.025 mass% or less, S: 0.010 mass% or less, optionally at least one element selected from among Cr: 0.01 mass% or more and 0.8 mass% or less, Al: 0.01 mass% or more and 0.1 mass% or less, B: 0.001 mass% or more and 0.005 mass% or less, Nb: 0.005 mass% or more and 0.05 mass% or less, Ti: 0.005 mass% or more and 0.05 mass% or less, Mo: 0.05 mass% or more and 1.0 mass% or less, Cu: 0.05 mass% or more and 1.0 mass% or less, Ni: 0.05 mass% or more and 1.0 mass% or less, and the balance being Fe and inevitable impurities, the method comprising, in sequence: performing an oxidation treatment on the steel sheet in a zone having an atmosphere of an oxygen concentration: less than 1 vol% under conditions that an average heating rate of the steel sheet is 20°C/sec or more and a maximum temperature T of the steel sheet is 400°C or higher and 500°C or lower, performing an oxidation treatment in a zone having an atmosphere of an oxygen concentration: 1 vol% or more under conditions that an average heating rate of the steel sheet is less than 10°C/sec and a maximum temperature of the steel sheet is 600°C or higher, performing reduction annealing and galvanizing, and further performing an alloying treatment by heating the galvanized steel sheet at a temperature of 460°C or higher and 600°C or lower for 10 seconds or more and 60 seconds or less. performing an oxidation treatment on the steel sheet in a zone having an atmosphere of an oxygen concentration: less than 1 vol% under conditions that an average heating rate of the steel sheet is 20°C/sec or more and a maximum temperature T of the steel sheet is 400°C or higher and 500°C or lower, performing an oxidation treatment in a zone having an atmosphere of an oxygen concentration: 1 vol% or more under conditions that an average heating rate of the steel sheet is less than 10°C/sec and a maximum temperature of the steel sheet is 600°C or higher, performing reduction annealing and galvanizing, and further performing an alloying treatment by heating the galvanized steel sheet at a temperature of 460°C or higher and 600°C or lower for 10 seconds or more and 60 seconds or less.
Unit for stacking slats on a support ladder provided with double crossbeams for the production of Venetian blinds, comprising: - a sliding lane which extends along a longitudinal extension axis on an insertion plane (m) and along which a slat is made to slide by moving means of any type such as a belt or rollers; - a device for positioning a ladder on a positioning plane (p) orthogonal to the insertion plane (m) of the slat and transversal to the longitudinal axis and to the sliding lane, characterised in that it comprises local movement means for locally moving a slat along a longitudinal axis next to the positioning plane (p) of the ladder, once the slat has been inserted in a pair of crossbeams of the ladder by said moving means of any type. - a sliding lane which extends along a longitudinal extension axis on an insertion plane (m) and along which a slat is made to slide by moving means of any type such as a belt or rollers; - a device for positioning a ladder on a positioning plane (p) orthogonal to the insertion plane (m) of the slat and transversal to the longitudinal axis and to the sliding lane,
A gasket insertion method for inserting a gasket (10, 10a) into an outer cylinder provided with a base end opening section, wherein the gasket (10, 10a) is provided with a recessed section that is open at a base end of the gasket (10, 10a) and that includes a depth in an axial direction of the gasket (10, 10a) and a flat bottom surface, and the gasket insertion method comprises: pushing the gasket (10, 10a) into a sleeve configured to be inserted into the outer cylinder, by relatively moving an inserter in a tip end direction with respect to the sleeve in a state where a flat tip end surface provided to a tip end section of the inserter and the bottom surface of the recessed section are abutted against each other; inserting the sleeve into the outer cylinder through the base end opening section; and characterized by arranging the gasket (10, 10a) inside the outer cylinder by relatively moving the sleeve in a base end direction with respect to the outer cylinder while maintaining relative axial positions of the outer cylinder, the gasket (10, 10a), and the inserter. pushing the gasket (10, 10a) into a sleeve configured to be inserted into the outer cylinder, by relatively moving an inserter in a tip end direction with respect to the sleeve in a state where a flat tip end surface provided to a tip end section of the inserter and the bottom surface of the recessed section are abutted against each other; inserting the sleeve into the outer cylinder through the base end opening section; and characterized by arranging the gasket (10, 10a) inside the outer cylinder by relatively moving the sleeve in a base end direction with respect to the outer cylinder while maintaining relative axial positions of the outer cylinder, the gasket (10, 10a), and the inserter.