mhurhangee/ep-ind-claims huggingface dataset:
A paper sheet bundling apparatus comprising: a bundling unit configured to bundle bundling target paper sheets using a bundling band and make a batch of paper sheets; a stamp affixing unit configured to affix a stamp to the bundling band of the batch of paper sheets; characterised by a memory unit configured to store therein an association between the kind of paper sheet and a stamp affixing position on the bundling band; and a control unit configured to obtain a stamp affixing position on the bundling band with reference to the association, the stamp affixing position corresponding to the kind of the bundling target paper sheets, and adjust a stamp affixing position on the bundling band wound around a predetermined position, on a basis of the obtained stamp affixing position. a bundling unit configured to bundle bundling target paper sheets using a bundling band and make a batch of paper sheets; a stamp affixing unit configured to affix a stamp to the bundling band of the batch of paper sheets; characterised by a memory unit configured to store therein an association between the kind of paper sheet and a stamp affixing position on the bundling band; and a control unit configured to obtain a stamp affixing position on the bundling band with reference to the association, the stamp affixing position corresponding to the kind of the bundling target paper sheets, and adjust a stamp affixing position on the bundling band wound around a predetermined position, on a basis of the obtained stamp affixing position.
An analog-to-digital converter for converting an analog signal into a digital signal, comprising: a reference signal generator operable to generate a reference signal (RAMP); a reference signal supply interface unit being operable to receive the reference signal (RAMP) generated by the reference signal generator; a plurality of comparators each being operable to compare the analog signal with the reference signal (RAMP) supplied from the reference signal supply interface unit; a plurality of counters each of which being associated with a respective one of said comparators (252_k) and each being operable to count, in parallel with the comparison performed by its respective comparator (252_k), a predetermined count clock, and to hold a count value at the time of completion of comparison performed by its respective comparator (252_k), characterized in that the reference signal supply interface unit comprises a plurality of buffer amplifiers, each generating from the reference signal (RAMP) a respective buffered reference signal (RAMP_k), the plurality of comparators is separated into a plurality of blocks and each block (BK_k) includes at least one comparator of the plurality of comparators (252_ka, 252_kb), and each buffer amplifier (280_k) is operable to supply via one output signal line (281_k) the respective buffered reference signal (RAMP_k) to the at least one comparator of a respective block (BK_k). a reference signal generator operable to generate a reference signal (RAMP); a reference signal supply interface unit being operable to receive the reference signal (RAMP) generated by the reference signal generator; a plurality of comparators each being operable to compare the analog signal with the reference signal (RAMP) supplied from the reference signal supply interface unit; a plurality of counters each of which being associated with a respective one of said comparators (252_k) and each being operable to count, in parallel with the comparison performed by its respective comparator (252_k), a predetermined count clock, and to hold a count value at the time of completion of comparison performed by its respective comparator (252_k), characterized in that the reference signal supply interface unit comprises a plurality of buffer amplifiers, each generating from the reference signal (RAMP) a respective buffered reference signal (RAMP_k), the plurality of comparators is separated into a plurality of blocks and each block (BK_k) includes at least one comparator of the plurality of comparators (252_ka, 252_kb), and each buffer amplifier (280_k) is operable to supply via one output signal line (281_k) the respective buffered reference signal (RAMP_k) to the at least one comparator of a respective block (BK_k).
A method of generating a user interface, the method comprising: identifying one or more devices of a group of networked devices, wherein each of the one or more devices within the group of networked devices is associated with a common local network; retrieving device information associated with one or more of the one or more identified devices; identifying one or more of the one or more identified devices for displaying within the user interface by filtering the one or more identified devices according to one or more parameters; associating each respective one of the one or more devices identified for displaying within the user interface with a respective device object and a respective location within an ellipsoidal wireframe; determining that a respective one of the one or more devices identified for displaying within the user interface is associated with at least one subsidiary device; retrieving information associated with the at least one subsidiary device; associating each respective one of the at least one subsidiary device with a subsidiary device icon; and outputting the user interface to a display, wherein the user interface comprises each respective device object positioned at a respective location within the ellipsoidal wireframe, and wherein the user interface comprises each respective subsidiary device icon as an element rotating about a device object that is associated with a device which is associated with the subsidiary device associated with the respective subsidiary device icon. identifying one or more devices of a group of networked devices, wherein each of the one or more devices within the group of networked devices is associated with a common local network; retrieving device information associated with one or more of the one or more identified devices; identifying one or more of the one or more identified devices for displaying within the user interface by filtering the one or more identified devices according to one or more parameters; associating each respective one of the one or more devices identified for displaying within the user interface with a respective device object and a respective location within an ellipsoidal wireframe; determining that a respective one of the one or more devices identified for displaying within the user interface is associated with at least one subsidiary device; retrieving information associated with the at least one subsidiary device; associating each respective one of the at least one subsidiary device with a subsidiary device icon; and outputting the user interface to a display, wherein the user interface comprises each respective device object positioned at a respective location within the ellipsoidal wireframe, and wherein the user interface comprises each respective subsidiary device icon as an element rotating about a device object that is associated with a device which is associated with the subsidiary device associated with the respective subsidiary device icon.
An apparatus, comprising: a multi-dimensional memory; and a plurality of matrix processing elements (534a; 534b) to perform a matrix operation, comprising a matrix multiplication operation on a plurality of matrix operands; a read engine to receive matrix data from the multi-dimensional memory, wherein the matrix data is associated with the plurality of matrix operands; a slice engine to extract a matrix operand and multiple filters from the matrix data and to perform a first transform on the matrix operand as a Winograd input transform to obtain a transformed matrix operand, wherein performing matrix multiplication using the transformed matrix operand is faster than performing matrix multiplication using the first matrix operand; an output engine to perform separate matrix multiplications to multiply the transformed matrix operand with each filter using different matrix processing elements (534a, 534b) to obtain a partial result; and a transform engine to perform a second transform on the partial result as a Winograd output transform to obtain a result of the matrix multiplication operation. a multi-dimensional memory; and a plurality of matrix processing elements (534a; 534b) to perform a matrix operation, comprising a matrix multiplication operation on a plurality of matrix operands; a read engine to receive matrix data from the multi-dimensional memory, wherein the matrix data is associated with the plurality of matrix operands; a slice engine to extract a matrix operand and multiple filters from the matrix data and to perform a first transform on the matrix operand as a Winograd input transform to obtain a transformed matrix operand, wherein performing matrix multiplication using the transformed matrix operand is faster than performing matrix multiplication using the first matrix operand; an output engine to perform separate matrix multiplications to multiply the transformed matrix operand with each filter using different matrix processing elements (534a, 534b) to obtain a partial result; and a transform engine to perform a second transform on the partial result as a Winograd output transform to obtain a result of the matrix multiplication operation. a read engine to receive matrix data from the multi-dimensional memory, wherein the matrix data is associated with the plurality of matrix operands; a slice engine to extract a matrix operand and multiple filters from the matrix data and to perform a first transform on the matrix operand as a Winograd input transform to obtain a transformed matrix operand, wherein performing matrix multiplication using the transformed matrix operand is faster than performing matrix multiplication using the first matrix operand; an output engine to perform separate matrix multiplications to multiply the transformed matrix operand with each filter using different matrix processing elements (534a, 534b) to obtain a partial result; and a transform engine to perform a second transform on the partial result as a Winograd output transform to obtain a result of the matrix multiplication operation.
A device for repositioning tubes in a tube rack, comprising: a stationary base; a mount, movable relative to the base in a first moving direction towards a tube rack and a second moving direction, opposite to the first direction; at least one actuator for moving the mount; one or more grippers coupled to the mount and movable with the mount, each of the grippers comprising a pair of gripping arms (40, 41) provided with gripping portions for gripping a tube; at least one biasing element, resiliently coupled to the mount and coupled to the gripping arms (40, 41) in a manner to be movable relative to the mount and thereby move the gripping portions towards or away from each other; at least one blocking element resiliently coupled to the stationary base, and comprising a first part being parallel to the first moving direction and a second part being directly connected to the first part, the blocking element being configured to engage with the biasing element and to block movement of the biasing element with respect to the mount against a resilient force during a first period in which the mount is moved along a travel path corresponding to a linear extension of the first part in the first moving direction so as to move the gripping portions towards each other and configured to disengage from the biasing element while moving in the first moving direction after the mount has been moved along the travel path so as to allow the gripping portions to be resiliently moved away from each other and before a second period in which the mount is moved in the second moving direction. a stationary base; a mount, movable relative to the base in a first moving direction towards a tube rack and a second moving direction, opposite to the first direction; at least one actuator for moving the mount; one or more grippers coupled to the mount and movable with the mount, each of the grippers comprising a pair of gripping arms (40, 41) provided with gripping portions for gripping a tube; at least one biasing element, resiliently coupled to the mount and coupled to the gripping arms (40, 41) in a manner to be movable relative to the mount and thereby move the gripping portions towards or away from each other; at least one blocking element resiliently coupled to the stationary base, and comprising a first part being parallel to the first moving direction and a second part being directly connected to the first part, the blocking element being configured to engage with the biasing element and to block movement of the biasing element with respect to the mount against a resilient force during a first period in which the mount is moved along a travel path corresponding to a linear extension of the first part in the first moving direction so as to move the gripping portions towards each other and configured to disengage from the biasing element while moving in the first moving direction after the mount has been moved along the travel path so as to allow the gripping portions to be resiliently moved away from each other and before a second period in which the mount is moved in the second moving direction.
A toaster with a housing, in which housing there is provided a first cavity or cavities (3,4) for toasting bread and a second cavity, the housing having at least one slot for receiving bread into the toasting cavity, which first cavity is provided with heating elements (5,6) adapted to toast bread in use, the toaster being provided with a thermal fuse, characterised in that the fuse is in the second cavity and in that there is a first saturation temperature range for toasting bread in a predetermined slot or number of slots (9,10), the first saturation temperature range being the temperature range in the toasting cavity which in normal use does not increase significantly with time, and a second saturation temperature range, which second saturation temperature range corresponds to a temperature in the runaway condition, wherein there is a difference in temperature in the second cavity between the first and second saturation temperature ranges, wherein the thermal fuse has an actuation temperature of 120 °C or 145 °C, the actuation temperature lying above the first saturation temperature range and below the second saturation temperature range such that when the temperature in the second cavity is at the thermal fuse actuation temperature, the thermal fuse is actuated to turn off the heating elements, wherein the temperature difference between the top of the first saturation temperature range and the bottom of the second saturation temperature range, ΔT is greater than 20 C.
A vehicle door lock device comprising: a latch mechanism that holds a vehicle door in a closed state relative to a vehicle body; an inside lever operable from a passenger compartment side of a vehicle and supported to be pivotal about a pivot shaft arranged in the vehicle door; an inside open lever pivotally supported by the pivot shaft that releases the vehicle door from the closed state held by the latch mechanism; a movable body movable to an unset position, enabling torque transmission from the inside lever to the inside open lever, and a set position, disabling the torque transmission; and a child protector lever supported pivotally about the pivot shaft that inputs operation force for moving the movable body; characterized by further comprising: an intermediate lever including a guide hole (31 a), which receives the pivot shaft, and cooperating with the child protector lever and the movable body, wherein when pushed by the child protector lever as the child protector lever pivots, the intermediate lever pushes the movable body while moving along the guide hole relative to the pivot shaft and thereby moves the movable body to a position between the unset position and the set position. a latch mechanism that holds a vehicle door in a closed state relative to a vehicle body; an inside lever operable from a passenger compartment side of a vehicle and supported to be pivotal about a pivot shaft arranged in the vehicle door; an inside open lever pivotally supported by the pivot shaft that releases the vehicle door from the closed state held by the latch mechanism; a movable body movable to an unset position, enabling torque transmission from the inside lever to the inside open lever, and a set position, disabling the torque transmission; and a child protector lever supported pivotally about the pivot shaft that inputs operation force for moving the movable body; characterized by further comprising: an intermediate lever including a guide hole (31 a), which receives the pivot shaft, and cooperating with the child protector lever and the movable body, wherein when pushed by the child protector lever as the child protector lever pivots, the intermediate lever pushes the movable body while moving along the guide hole relative to the pivot shaft and thereby moves the movable body to a position between the unset position and the set position. an intermediate lever including a guide hole (31 a), which receives the pivot shaft, and cooperating with the child protector lever and the movable body, wherein when pushed by the child protector lever as the child protector lever pivots, the intermediate lever pushes the movable body while moving along the guide hole relative to the pivot shaft and thereby moves the movable body to a position between the unset position and the set position.
An angular position sensor, comprising: a circular sensor board including a stationary circular array of seventy two equally spaced Hall sensors, each having a common radius and being centered about an axis, and each being equidistantly distributed about a periphery of said circular sensor board in five degree increments, wherein each Hall sensor is configured for generating an analog signal as a function of its proximity to a magnet; a circular target plate including a rotatable array of eighteen equally spaced magnet positions centered about said axis and spaced apart from said stationary circular array of sensors, the magnet positions being equidistantly distributed about a periphery of said circular target plate in 20 degree increments and sixteen of said eighteen magnet positions having magnets disposed therein, the magnets being arranged in an alternating sequence of North-South polarity and the two magnet positions (30a, 30b) devoid of magnets being spaced 180° relative to one another; and a processor configured to relate signals simultaneously generated by said Hall sensors to an angular position of said rotatable array relative to said stationary circular array based upon a Fourier transform, whereby one of nine sectors of rotation of said rotatable array is identified by said processor based upon said two magnet positions (30a, 30b) devoid of magnets in order to calculate said angular position from said Fourier transform. a circular sensor board including a stationary circular array of seventy two equally spaced Hall sensors, each having a common radius and being centered about an axis, and each being equidistantly distributed about a periphery of said circular sensor board in five degree increments, wherein each Hall sensor is configured for generating an analog signal as a function of its proximity to a magnet; a circular target plate including a rotatable array of eighteen equally spaced magnet positions centered about said axis and spaced apart from said stationary circular array of sensors, the magnet positions being equidistantly distributed about a periphery of said circular target plate in 20 degree increments and sixteen of said eighteen magnet positions having magnets disposed therein, the magnets being arranged in an alternating sequence of North-South polarity and the two magnet positions (30a, 30b) devoid of magnets being spaced 180° relative to one another; and a processor configured to relate signals simultaneously generated by said Hall sensors to an angular position of said rotatable array relative to said stationary circular array based upon a Fourier transform, whereby one of nine sectors of rotation of said rotatable array is identified by said processor based upon said two magnet positions (30a, 30b) devoid of magnets in order to calculate said angular position from said Fourier transform.
An LED module comprising: - a thermally conductive substrate made of a multilayer ceramic, - at least two LEDs (1,2) on a top side of the substrate, - passive SMD components (4,5,6,8,9) arranged on the top side of the substrate, - a passive component integrated in the substrate - means for dissipating waste heat in horizontal and vertical directions, - terminals arranged on the bottom side of the substrate, wherein above the at least two LEDs (1, 2) a light conversion layer is applied, over part of the passive components (4, 5), comprising at least one capacitor and a temperature sensor, a reflecting layer is applied. - a thermally conductive substrate made of a multilayer ceramic, - at least two LEDs (1,2) on a top side of the substrate, - passive SMD components (4,5,6,8,9) arranged on the top side of the substrate, - a passive component integrated in the substrate - means for dissipating waste heat in horizontal and vertical directions, - terminals arranged on the bottom side of the substrate, above the at least two LEDs (1, 2) a light conversion layer is applied, over part of the passive components (4, 5), comprising at least one capacitor and a temperature sensor, a reflecting layer is applied.
A single-sided magnetic resonance apparatus for imaging one or more structures included in a subject, the apparatus comprising: one or more arrays (210, 220) of magnetic components comprised in one or more layers to generate a magnetic field on one side of the apparatus, said magnetic field having a well characterized magnetic field profile suitable for imaging over a region, the magnetic components being permanent magnets or electromagnets or electropermanent magnets, whereby each electropermanent magnet is a combination of hard and soft magnetic materials with one or more current-carrying coils configured to magnetize the soft magnetic material, wherein some of the magnetic components in a layer are oriented in directions so as to provide magnetic fields opposing the magnetic field provided by other magnetic components of the magnetic components in the same or other layers; and an access aperture provided through the magnetic components enabling intervention with the subject of the imaging, wherein the subject is a living animal or a person. one or more arrays (210, 220) of magnetic components comprised in one or more layers to generate a magnetic field on one side of the apparatus, said magnetic field having a well characterized magnetic field profile suitable for imaging over a region, the magnetic components being permanent magnets or electromagnets or electropermanent magnets, whereby each electropermanent magnet is a combination of hard and soft magnetic materials with one or more current-carrying coils configured to magnetize the soft magnetic material, wherein some of the magnetic components in a layer are oriented in directions so as to provide magnetic fields opposing the magnetic field provided by other magnetic components of the magnetic components in the same or other layers; and an access aperture provided through the magnetic components enabling intervention with the subject of the imaging, wherein the subject is a living animal or a person.