mhurhangee/ep-ind-claims huggingface dataset:
A drive control system for a work vehicle, comprising: a power transmission device having a drive mode switching mechanism that performs drive mode switching between a four-wheel drive mode in which drive power is transmitted to front wheels and rear wheels and a two-wheel drive mode in which drive power is transmitted to only the rear wheels; a drive mode control unit configured to output a drive mode switching request to the drive mode switching mechanism; and a slip ratio detection unit configured to detect a slip ratio with respect to a contact area of wheels that are being driven, characterized in that an inclination angle detection unit is provided configured to detect an inclination angle in a front-back direction of the work vehicle, the drive mode control unit is connected with the inclination angle detection unit and the slip ratio detection unit, the drive mode control unit is configured to output the drive mode switching request based on the slip ratio detected by the slip ratio detection unit and the inclination angle detected by the inclination angle detection unit, the drive mode switching request being output for switching to the four-wheel drive mode in a case where a slip ratio exceeding a threshold set in advance is detected, and the drive mode switching request being output for switching to the two-wheel drive mode in a case where a reduction in the slip ratio and a reduction of the inclination angle are detected. a power transmission device having a drive mode switching mechanism that performs drive mode switching between a four-wheel drive mode in which drive power is transmitted to front wheels and rear wheels and a two-wheel drive mode in which drive power is transmitted to only the rear wheels; a drive mode control unit configured to output a drive mode switching request to the drive mode switching mechanism; and a slip ratio detection unit configured to detect a slip ratio with respect to a contact area of wheels that are being driven, characterized in that an inclination angle detection unit is provided configured to detect an inclination angle in a front-back direction of the work vehicle, the drive mode control unit is connected with the inclination angle detection unit and the slip ratio detection unit, the drive mode control unit is configured to output the drive mode switching request based on the slip ratio detected by the slip ratio detection unit and the inclination angle detected by the inclination angle detection unit, the drive mode switching request being output for switching to the four-wheel drive mode in a case where a slip ratio exceeding a threshold set in advance is detected, and the drive mode switching request being output for switching to the two-wheel drive mode in a case where a reduction in the slip ratio and a reduction of the inclination angle are detected.
A method for operating a first electronic device, the method comprising the steps of: in response to a processor of the first electronic device detecting a gesture performed with a second electronic device, receiving via a communication interface information from a content provided by the second electronic device; in response to receiving the information, the processor executing an application in response to the information from the content; and in response to executing the application, the processor performing a function for extending the content in the application executed on the first electronic device without a user input, wherein the function is performed in response to an activity executed in the second electronic device while the gesture is performed. in response to a processor of the first electronic device detecting a gesture performed with a second electronic device, receiving via a communication interface information from a content provided by the second electronic device; in response to receiving the information, the processor executing an application in response to the information from the content; and in response to executing the application, the processor performing a function for extending the content in the application executed on the first electronic device without a user input, wherein the function is performed in response to an activity executed in the second electronic device while the gesture is performed.
An electronic device, comprising: a housing; a touch screen (310, 860) comprising edges; and one or more processors configured to: define a first touch rejection region located adjacent to at least one of the edges of the touch screen, the first touch rejection region being defined by the at least one of the edges and a boundary located a first distance from the at least one of the edges; define a second touch rejection region located adjacent to the at least one of the edges of the touch screen, the second touch rejection region being defined by the at least one of the edges and a boundary located a second distance from the at least one of the edges, wherein the first touch rejection region includes the second touch rejection region; when a touch input corresponding to a multi-touch input is detected in the first touch rejection region, ignore the touch input; and when a touch input is detected for at least a predetermined duration in the second touch rejection region, ignore the touch input. a housing; a touch screen (310, 860) comprising edges; and one or more processors configured to: define a first touch rejection region located adjacent to at least one of the edges of the touch screen, the first touch rejection region being defined by the at least one of the edges and a boundary located a first distance from the at least one of the edges; define a second touch rejection region located adjacent to the at least one of the edges of the touch screen, the second touch rejection region being defined by the at least one of the edges and a boundary located a second distance from the at least one of the edges, wherein the first touch rejection region includes the second touch rejection region; when a touch input corresponding to a multi-touch input is detected in the first touch rejection region, ignore the touch input; and when a touch input is detected for at least a predetermined duration in the second touch rejection region, ignore the touch input. define a first touch rejection region located adjacent to at least one of the edges of the touch screen, the first touch rejection region being defined by the at least one of the edges and a boundary located a first distance from the at least one of the edges; define a second touch rejection region located adjacent to the at least one of the edges of the touch screen, the second touch rejection region being defined by the at least one of the edges and a boundary located a second distance from the at least one of the edges, wherein the first touch rejection region includes the second touch rejection region; when a touch input corresponding to a multi-touch input is detected in the first touch rejection region, ignore the touch input; and when a touch input is detected for at least a predetermined duration in the second touch rejection region, ignore the touch input.
A device for rolling strips of material, where - said device comprises multiple conveyor belt systems; - each of said conveyor belt systems comprises one or more endless belts supported on parallel rollers (201, 203) for longitudinal movement in response to rotation of said rollers (201, 203); and - said conveyor belt systems are configured to define a winding space for rolling said strips of material about a rotation axis parallel with the rotation axis of said rollers (201, 203), characterised in that - said device comprises a positioning system configured to move at least one of said conveyor belt systems following a translation, such that said winding space is altered in accordance with the changing diameter of rolled material. - said device comprises multiple conveyor belt systems; - each of said conveyor belt systems comprises one or more endless belts supported on parallel rollers (201, 203) for longitudinal movement in response to rotation of said rollers (201, 203); and - said conveyor belt systems are configured to define a winding space for rolling said strips of material about a rotation axis parallel with the rotation axis of said rollers (201, 203), - said device comprises a positioning system configured to move at least one of said conveyor belt systems following a translation, such that said winding space is altered in accordance with the changing diameter of rolled material.
A terminal connection structure for a cartridge configured and adapted to be mounted into a printing apparatus which includes an apparatus side terminal unit, wherein the apparatus side terminal unit includes a positioning portion and is movable in an intersection direction (X, Z) that is orthogonal to a mounting direction, in which the cartridge can be mounted into the printing apparatus, and the terminal connection structure comprising: a concave portion, a terminal of a terminal group that is configured and adapted to come into contact with the apparatus side terminal unit, wherein the terminal group is configured and adapted to be electrically connectable with the apparatus side terminal unit; and wherein a restriction portion is provided in the concave portion, which is configured and adapted to restrict the positioning portion from moving in the intersection direction (X, Z), wherein the terminal is provided on a surface tilted with respect to the mounting direction in a state that the cartridge is mounted to the printing apparatus, and the terminal group is provided in the concave portion which is configured and adapted to receive insertion of the apparatus side terminal unit, wherein the restriction portion comprises a groove provided in the concave portion configured and adapted to receive insertion of the positioning portion of the apparatus side terminal unit. a concave portion, a terminal of a terminal group that is configured and adapted to come into contact with the apparatus side terminal unit, wherein the terminal group is configured and adapted to be electrically connectable with the apparatus side terminal unit; and wherein a restriction portion is provided in the concave portion, which is configured and adapted to restrict the positioning portion from moving in the intersection direction (X, Z), wherein the terminal is provided on a surface tilted with respect to the mounting direction in a state that the cartridge is mounted to the printing apparatus, and the terminal group is provided in the concave portion which is configured and adapted to receive insertion of the apparatus side terminal unit, wherein the restriction portion comprises a groove provided in the concave portion configured and adapted to receive insertion of the positioning portion of the apparatus side terminal unit.
A tool head for use in an apparatus for manufacturing a three-dimensional object by melt layering, characterized by - at least two drivable tools (4, 5), at least one of which is an extruder tool for melting a modeling material suitable for building the object in layers; - a shared drive system for the at least two drivable tools (4, 5), wherein the drive system comprises a shared drive shaft drivable by a motor, wherein the drive system causes the at least one extruder tool to feed the modeling material into an extrusion unit; and - a selection device with which an operative connection is establishable between at least one tool 4) selected from the number of drivable tools (4, 5) and the drive system, wherein the selection device is embodied to establish the operative connection simultaneously for multiple drivable tools (4, 5). - at least two drivable tools (4, 5), at least one of which is an extruder tool for melting a modeling material suitable for building the object in layers; - a shared drive system for the at least two drivable tools (4, 5), wherein the drive system comprises a shared drive shaft drivable by a motor, wherein the drive system causes the at least one extruder tool to feed the modeling material into an extrusion unit; and - a selection device with which an operative connection is establishable between at least one tool 4) selected from the number of drivable tools (4, 5) and the drive system, wherein the selection device is embodied to establish the operative connection simultaneously for multiple drivable tools (4, 5).
A coherent optical receiver that for processing received signal light by a coherent reception system, comprising: a local oscillator light generating section for generating local oscillator light (E LO) having orthogonal polarization components in which the optical frequencies (ω L, ω L +ω O) are different to each other; a combining section for combining received signal light (E S) and local oscillator light (E LO) output from said local oscillator light generating section, and outputs this; a photoelectric conversion section (13, 14) for converting the light output from said combining section into an electrical signal; an AD conversion section (15, 16) for converting the electrical signal output from said photoelectric conversion section (13, 14) into a digital signal; a digital computing section using a digital signal output from said AD conversion section (15, 16), to execute computation processing in order to estimate data information included in said received signal light; and a data discrimination section for executing discrimination processing of received data, based on a computation result of said digital computing section, characterized in that the difference (ω O) in the optical frequencies between the orthogonal polarization components of said local oscillator light (E LO) is smaller than two times the band width of said received signal light (E S), and larger than a light source spectrum line width of said received signal light and a light source spectrum line width of said local oscillator light (E LO). a local oscillator light generating section for generating local oscillator light (E LO) having orthogonal polarization components in which the optical frequencies (ω L, ω L +ω O) are different to each other; a combining section for combining received signal light (E S) and local oscillator light (E LO) output from said local oscillator light generating section, and outputs this; a photoelectric conversion section (13, 14) for converting the light output from said combining section into an electrical signal; an AD conversion section (15, 16) for converting the electrical signal output from said photoelectric conversion section (13, 14) into a digital signal; a digital computing section using a digital signal output from said AD conversion section (15, 16), to execute computation processing in order to estimate data information included in said received signal light; and a data discrimination section for executing discrimination processing of received data, based on a computation result of said digital computing section,
A system, comprising: a light engine (104, 104a) configured to emit light in response to a drive current, the light engine (104, 104a) comprising a light engine controller circuit and one or more parallel strings of series-connected solid state light sources (206a, 206b,... 206n); and a driver circuit configured to provide the drive current; a system controller; wherein the light engine controller circuit is configured to: monitor an output voltage of the driver circuit; detect a failure of one of the solid state light sources (206a, 206b,... 206n), the failure associated with a change in the output voltage of the driver circuit; and transmit a first signal to the driver circuit in response to detecting a failure, wherein the driver circuit is configured to decrease the drive current in response to the first signal; characterized in that the light engine controller circuit is further configured to detect a rate of change of the output voltage, wherein the rate of change defines a speed in the change of the output voltage, and in response to the rate of change exceeding a threshold, report an error condition to the system controller of the system. a light engine (104, 104a) configured to emit light in response to a drive current, the light engine (104, 104a) comprising a light engine controller circuit and one or more parallel strings of series-connected solid state light sources (206a, 206b,... 206n); and a driver circuit configured to provide the drive current; a system controller; wherein the light engine controller circuit is configured to: monitor an output voltage of the driver circuit; detect a failure of one of the solid state light sources (206a, 206b,... 206n), the failure associated with a change in the output voltage of the driver circuit; and transmit a first signal to the driver circuit in response to detecting a failure, wherein the driver circuit is configured to decrease the drive current in response to the first signal; characterized in that the light engine controller circuit is further configured to detect a rate of change of the output voltage, wherein the rate of change defines a speed in the change of the output voltage, and in response to the rate of change exceeding a threshold, report an error condition to the system controller of the system. monitor an output voltage of the driver circuit; detect a failure of one of the solid state light sources (206a, 206b,... 206n), the failure associated with a change in the output voltage of the driver circuit; and transmit a first signal to the driver circuit in response to detecting a failure, wherein the driver circuit is configured to decrease the drive current in response to the first signal; characterized in that the light engine controller circuit is further configured to detect a rate of change of the output voltage, wherein the rate of change defines a speed in the change of the output voltage, and in response to the rate of change exceeding a threshold, report an error condition to the system controller of the system.
A charging system comprising: at least one battery device (200, 200a, 200b, 300a, 300b, 300c) that includes a secondary cell therein; a charging device (120, 120', 400) that performs contactless power transmission to transmit power to the battery device; and a charging control device that controls the contactless power transmission between the charging device and the battery device, wherein the charging device (120, 120', 400) is a hexagonal cylinder having a bottom surface with a substantially regular hexagonal shape and having a predetermined height, and wherein the contactless power transmission is performed between the charging device (120, 120', 400) and the battery device (200, 200a, 200b, 300a, 300b, 300c) under control of the charging control device by stacking the battery device (200, 200a, 200b, 300a, 300b, 300c) on the charging device (120, 120', 400), characterized in that the battery device (200, 200a, 200b, 300a, 300b, 300c) is a hexagonal cylinder having a bottom surface with a substantially regular hexagonal shape and having a predetermined height. at least one battery device (200, 200a, 200b, 300a, 300b, 300c) that includes a secondary cell therein; a charging device (120, 120', 400) that performs contactless power transmission to transmit power to the battery device; and a charging control device that controls the contactless power transmission between the charging device and the battery device, wherein the charging device (120, 120', 400) is a hexagonal cylinder having a bottom surface with a substantially regular hexagonal shape and having a predetermined height, and wherein the contactless power transmission is performed between the charging device (120, 120', 400) and the battery device (200, 200a, 200b, 300a, 300b, 300c) under control of the charging control device by stacking the battery device (200, 200a, 200b, 300a, 300b, 300c) on the charging device (120, 120', 400), characterized in that the battery device (200, 200a, 200b, 300a, 300b, 300c) is a hexagonal cylinder having a bottom surface with a substantially regular hexagonal shape and having a predetermined height.
An implantable medical device, the IMD comprising: a housing having a proximal end and a distal end; a first set (505a-505e) of one or more electrodes connected to but spaced apart from the housing; and a controller disposed within the housing, wherein the controller is configured to: sense cardiac electrical signals, and deliver electrical stimulation pulses via the first set (505a-505e) of one or more electrodes; and wherein, when implanted, a first portion of the housing is configured to be disposed at least partly within a coronary sinus of a patient's heart and a second portion of the housing is configured to be disposed at least partly within a right atrium of the patient's heart. a housing having a proximal end and a distal end; a first set (505a-505e) of one or more electrodes connected to but spaced apart from the housing; and a controller disposed within the housing, wherein the controller is configured to: sense cardiac electrical signals, and deliver electrical stimulation pulses via the first set (505a-505e) of one or more electrodes; and sense cardiac electrical signals, and deliver electrical stimulation pulses via the first set (505a-505e) of one or more electrodes; and wherein, when implanted, a first portion of the housing is configured to be disposed at least partly within a coronary sinus of a patient's heart and a second portion of the housing is configured to be disposed at least partly within a right atrium of the patient's heart.
Instrument for subcutaneous intervention, comprising: - a mandrel having a longitudinal axis along which there extends a rod provided with a bodily-access end; and - a canula provided with an injection or sampling tube extending along a longitudinal axis and ending, towards respectively a proximal end and a distal end, in an orifice (17a, 17b) that communicates with the outside, and comprising an end spatula which extends the tube at its distal end; characterized in that the canula comprises a hollow connection base for connection to the proximal end of the tube in order to accept the mandrel removably, and in that the said end spatula has an atraumatic end. - a mandrel having a longitudinal axis along which there extends a rod provided with a bodily-access end; and - a canula provided with an injection or sampling tube extending along a longitudinal axis and ending, towards respectively a proximal end and a distal end, in an orifice (17a, 17b) that communicates with the outside, and comprising an end spatula which extends the tube at its distal end;
A vehicle comprising a system having a colour camera for capturing a scene ahead of the vehicle, a visual display device for showing information from said scene to the driver, and a time of flight camera system adapted to repeatedly capture an electronic image of said scene for generating a three-dimensional model of the scene ahead of the vehicle, characterised in that the system is configured to combine the colour image of the scene with information included in said three-dimensional model and display the combined image on said display device, and is configured such that a region of interest (15, 16, 17, 18, 20, 21) in the combined image is visually enhanced on said display by a visual cue according to pre-determined criteria relating to one or more of size, shape and position within the image of said region of interest to indicate the severity of a topographical feature in the region of interest (15, 16, 17, 18, 20, 21) according to the pre-determined criteria; wherein a prominence of the visual cue is linked to the severity of the topographical features in relation to criteria of shape, size and relative position.