mhurhangee/ep-ind-claims huggingface dataset:
A device (100, 200, 300), comprising: a housing (110, 210, 310); a processor card (140, 240, 520) disposed inside the housing, the processor card comprising a connector which extends from an edge of the housing; a heat sink (120, 220) disposed inside the housing (110, 210, 310) and configured to dissipate heat from the processor card (140, 240, 520); a fan (130, 230) disposed inside the housing (110, 210, 310) to disperse heat from the heat sink (120, 220); and a blind mate connector arranged to provide power connection to the fan (130, 230), the housing (110, 210, 310) configured to install into a chassis (400, 500) of the computer such that, upon installation of the housing (110, 210, 310) into the chassis (400, 500), an edge of the processor card (140, 240, 520) mates with a connector on a circuit board (340, 410) of the computer and the blind mate connector mates with a blind mate connector on the chassis to automatically connect the fan to a power source of the computer. a housing (110, 210, 310); a processor card (140, 240, 520) disposed inside the housing, the processor card comprising a connector which extends from an edge of the housing; a heat sink (120, 220) disposed inside the housing (110, 210, 310) and configured to dissipate heat from the processor card (140, 240, 520); a fan (130, 230) disposed inside the housing (110, 210, 310) to disperse heat from the heat sink (120, 220); and a blind mate connector arranged to provide power connection to the fan (130, 230), the housing (110, 210, 310) configured to install into a chassis (400, 500) of the computer such that, upon installation of the housing (110, 210, 310) into the chassis (400, 500), an edge of the processor card (140, 240, 520) mates with a connector on a circuit board (340, 410) of the computer and the blind mate connector mates with a blind mate connector on the chassis to automatically connect the fan to a power source of the computer.
Clutch actuator for transmitting a disengaging force F A to a disengaging device of a clutch, comprising an actuating element (13, 14, 24) that can be subjected to the disengaging force F A and a piston rod (15, 25) for transmitting the disengaging force F A from the actuating element (13, 14, 24) to the disengaging device, wherein the piston rod (15, 25) is mounted against a connecting region (14, 24) of the actuating element (13, 14, 24) so that the piston rod (15, 25) can be moved against the connecting region (14, 24) through the clutch reaction force F K of the clutch, and wherein the positioning of connecting region (14, 24) and piston rod (15, 25) relative to one another brought about by such a movement can be fixed by subjecting the actuating element (13, 14, 24) to the disengaging force F A, wherein the actuating element (13, 14, 24) is designed for the at least partial deflection of the disengaging force F A into a normal force F N and/or radial force F R that is effective between the connecting region (14, 24) and the piston rod (15, 25), wherein this normal force F N and/or radial force F R fixes the positioning of connecting region (14, 24) and piston rod (15, 25) relative to one another, characterized in that the piston rod (15, 25) has an external transmission thread, which engages in an internal transmission thread on the connecting region, wherein the normal force F N or the radial force F R fixes the positioning of connecting region (14, 24) and piston rod (15, 25) relative to one another via a self-amplifying frictional connection.
A radio frequency, RF, coil device comprising: a plurality of RF coil elements configured to generate an RF magnetic field; a support member configured to support the plurality of RF coil elements; a driver and controller configured to drive and control the plurality of RF coil elements; and a probe configured to measure a strength of an RF magnetic field generated by the plurality of RF coil elements, wherein the support member has a cylindrical shape and is configured to be disposed on an inner surface of a cylindrical housing of a magnetic resonance imaging, MRI, apparatus; and the plurality of RF coil elements are arranged along a circumference of the support member, wherein each of the plurality of RF coil elements comprises a plurality of sub-elements (111a, 111b) arranged in a length direction of the cylindrical housing; and the support member is further configured to support the plurality of sub-elements so that the sub-elements of each of the plurality of RF coil elements are independently movable in the length direction; the driver and the controller is further configured to independently control a magnitude and a phase of power input to the plurality of RF coil elements; and the driver and the controller is further configured to predict a specific absorption rate, SAR, of a target exposed to electromagnetic waves when performing magnetic resonance imaging of the target positioned within the cylindrical housing, based on the strength of the RF magnetic field measured by the probe. a plurality of RF coil elements configured to generate an RF magnetic field; a support member configured to support the plurality of RF coil elements; a driver and controller configured to drive and control the plurality of RF coil elements; and a probe configured to measure a strength of an RF magnetic field generated by the plurality of RF coil elements, wherein the support member has a cylindrical shape and is configured to be disposed on an inner surface of a cylindrical housing of a magnetic resonance imaging, MRI, apparatus; and the plurality of RF coil elements are arranged along a circumference of the support member, wherein each of the plurality of RF coil elements comprises a plurality of sub-elements (111a, 111b) arranged in a length direction of the cylindrical housing; and the support member is further configured to support the plurality of sub-elements so that the sub-elements of each of the plurality of RF coil elements are independently movable in the length direction; the driver and the controller is further configured to independently control a magnitude and a phase of power input to the plurality of RF coil elements; and the driver and the controller is further configured to predict a specific absorption rate, SAR, of a target exposed to electromagnetic waves when performing magnetic resonance imaging of the target positioned within the cylindrical housing, based on the strength of the RF magnetic field measured by the probe.
A hearing device configured to be worn at an ear of a user, the hearing device comprising - a sensor unit configured to provide sensor data, the sensor unit comprising a biometric sensor configured to provide biometric data included in the sensor data, the biometric sensor comprising - a light source configured to emit light through a skin of the user and an optical detector for detecting a reflected and/or scattered part of the light, wherein the biometric data comprises information about the detected light, and/or - an electrode configured to detect an electric signal induced through a skin of the user, wherein the biometric data comprises information about the electric signal; the hearing device further comprising - a processor configured to determine a physiological parameter from the sensor data, the physiological parameter indicative of a physiological property of the user; and to determine whether the physiological parameter fulfills a condition; and characterized in that the processor is further configured to provide, depending on whether the physiological parameter fulfills the condition, output data based on the sensor data, the output data including at least part of the biometric data and/or information derived from at least part of the biometric data different from said physiological parameter. - a sensor unit configured to provide sensor data, the sensor unit comprising a biometric sensor configured to provide biometric data included in the sensor data, the biometric sensor comprising - a light source configured to emit light through a skin of the user and an optical detector for detecting a reflected and/or scattered part of the light, wherein the biometric data comprises information about the detected light, and/or - an electrode configured to detect an electric signal induced through a skin of the user, wherein the biometric data comprises information about the electric signal; - a light source configured to emit light through a skin of the user and an optical detector for detecting a reflected and/or scattered part of the light, wherein the biometric data comprises information about the detected light, and/or - an electrode configured to detect an electric signal induced through a skin of the user, wherein the biometric data comprises information about the electric signal; - a processor configured to determine a physiological parameter from the sensor data, the physiological parameter indicative of a physiological property of the user; and to determine whether the physiological parameter fulfills a condition; and characterized in that the processor is further configured to provide, depending on whether the physiological parameter fulfills the condition, output data based on the sensor data, the output data including at least part of the biometric data and/or information derived from at least part of the biometric data different from said physiological parameter.
A broadcast receiver apparatus which can receive an IP broadcast, comprising: storage means for storing a network configuration information file and channel information; and control means for controlling units of the broadcast receiver apparatus, wherein when the broadcast receiver apparatus is activated, the control means connects to a network, acquires a network configuration information file from the network, determines whether a piece of information for identifying a network described in the network configuration information file acquired from the network is different from a piece of information for identifying a network described in the network configuration information file stored in the storage means, and initializes the channel information if the pieces of information are different. storage means for storing a network configuration information file and channel information; and control means for controlling units of the broadcast receiver apparatus, wherein when the broadcast receiver apparatus is activated, the control means connects to a network, acquires a network configuration information file from the network, determines whether a piece of information for identifying a network described in the network configuration information file acquired from the network is different from a piece of information for identifying a network described in the network configuration information file stored in the storage means, and initializes the channel information if the pieces of information are different.
A process for preparing a refined extract from Indigo Naturalis comprising the steps of: a) extracting Indigo Naturalis with ethanol at reflux between 2 and 8 hours, b) filtering the mixture at a temperature not less than 65°C to obtain a filtrate, c) concentrating the filtrate, to obtain a crude extract, said crude extract is optionally filtered (with addition of water) in order to remove completely the solvent and the last components still present in the solvent and dried, d) (i) washing the crude extract with hexane at a temperature not less than 50°C between 15 and 60 min, (ii) filtering at room temperature the mixture obtained at step d) (i) to obtain a product, optionally rinsing it with ethanol and water (iii) washing the product obtained at step d) (ii) with ethanol at reflux, and e) filtering at room temperature the washing mixture obtained at step d) and drying the resulting product at a temperature less than 80°C to obtain an extract which is optionally micronized. a) extracting Indigo Naturalis with ethanol at reflux between 2 and 8 hours, b) filtering the mixture at a temperature not less than 65°C to obtain a filtrate, c) concentrating the filtrate, to obtain a crude extract, said crude extract is optionally filtered (with addition of water) in order to remove completely the solvent and the last components still present in the solvent and dried, d) (i) washing the crude extract with hexane at a temperature not less than 50°C between 15 and 60 min, (ii) filtering at room temperature the mixture obtained at step d) (i) to obtain a product, optionally rinsing it with ethanol and water (iii) washing the product obtained at step d) (ii) with ethanol at reflux, and (i) washing the crude extract with hexane at a temperature not less than 50°C between 15 and 60 min, (ii) filtering at room temperature the mixture obtained at step d) (i) to obtain a product, optionally rinsing it with ethanol and water (iii) washing the product obtained at step d) (ii) with ethanol at reflux, and e) filtering at room temperature the washing mixture obtained at step d) and drying the resulting product at a temperature less than 80°C to obtain an extract which is optionally micronized.
A process for the production of carbon nanotubes comprising: generating a directed flow of plasma from a working gas in a plasma generating device; introducing a metal catalyst or metal catalyst precursor radially into the directed flow of plasma in the plasma generating device; discharging a plasma effluent from the plasma generating device into a quenching chamber; introducing one or more quenching gases into the quenching chamber to quench the plasma effluent whereby to produce a particulate metal catalyst; discharging the particulate metal catalyst from the quenching chamber axially into a temperature-controlled flow-through reactor; introducing a source of carbon radially into the temperature-controlled flow-through reactor to produce carbon nanotubes; and discharging the carbon nanotubes from a discharge outlet of the temperature-controlled flow-through reactor. generating a directed flow of plasma from a working gas in a plasma generating device; introducing a metal catalyst or metal catalyst precursor radially into the directed flow of plasma in the plasma generating device; discharging a plasma effluent from the plasma generating device into a quenching chamber; introducing one or more quenching gases into the quenching chamber to quench the plasma effluent whereby to produce a particulate metal catalyst; discharging the particulate metal catalyst from the quenching chamber axially into a temperature-controlled flow-through reactor; introducing a source of carbon radially into the temperature-controlled flow-through reactor to produce carbon nanotubes; and discharging the carbon nanotubes from a discharge outlet of the temperature-controlled flow-through reactor.
Pressure measurement tool provided to be fixed to a connecting rod disposed across an airstream of an engine of an aircraft, said tool comprising: - a sheath composed of two walls between which there is delimited a housing designed to receive the connecting rod, in which the housing communicates with the outside through an aperture which extends over the length of the sheath between the two walls, in which the aperture is narrower than the thickness of the connecting rod, in which the sheath has a span which extends over the length of the sheath and which has a plurality of cavities distributed over the length of the sheath, - for each cavity, an air intake comprising a passage which emerges by one end in the cavity of the span and by one end in the airstream, - a printed circuit which runs along the span, - for each passage a pressure sensor disposed in the cavity corresponding to said passage and opposite said passage and installed on the printed circuit, and - at least one processing and/or storage unit for the data transmitted by the pressure sensors which is electrically connected to the printed circuit. - a sheath composed of two walls between which there is delimited a housing designed to receive the connecting rod, in which the housing communicates with the outside through an aperture which extends over the length of the sheath between the two walls, in which the aperture is narrower than the thickness of the connecting rod, in which the sheath has a span which extends over the length of the sheath and which has a plurality of cavities distributed over the length of the sheath, - for each cavity, an air intake comprising a passage which emerges by one end in the cavity of the span and by one end in the airstream, - a printed circuit which runs along the span, - for each passage a pressure sensor disposed in the cavity corresponding to said passage and opposite said passage and installed on the printed circuit, and - at least one processing and/or storage unit for the data transmitted by the pressure sensors which is electrically connected to the printed circuit.
Fluid flow control valve, said valve comprising a valve housing provided with a flow channel, which in direction from the inlet section to the outlet section, comprises a substantially conical inlet at the inlet section, a valve seat, and a diffuser at the outlet section, which transfers into a flow channel having a substantially uniform flow cross-section, wherein a substantially needle-shaped spindle is arranged axially movable within the flow channel and exhibits a diameter, at the end to be contacted by the valve seat, equal to or larger than the smallest flow cross-section of the valve seat, wherein a) the inlet exhibits an inlet diameter D IN and comprises a first inlet section which is conical and exhibits an angle α 1 with the longitudinal axis in the flow channel of 10-30°, and a second inlet section (13") which is curved and exhibits a radius of curvature R 2 in the range of 4.7-6.7 times the diameter D N of the spindle, b) the valve seat exhibits a diameter D ORI that is 0.8-1.1 times the diameter D N of the spindle, c) the diffuser is conical having an increasing cross-section in the flow direction, and exhibits an angle α 2 of 30-45° with the longitudinal axis of the flow channel, wherein the outlet channel exhibits a diameter D OUT of about 2.4-4.4 times the diameter D N of the spindle, and d) the radius of curvature R 1 of the spindle towards the apex, is within the range of 4.7-6.7 times the diameter D N of the spindle. a) the inlet exhibits an inlet diameter D IN and comprises a first inlet section which is conical and exhibits an angle α 1 with the longitudinal axis in the flow channel of 10-30°, and a second inlet section (13") which is curved and exhibits a radius of curvature R 2 in the range of 4.7-6.7 times the diameter D N of the spindle, a first inlet section which is conical and exhibits an angle α 1 with the longitudinal axis in the flow channel of 10-30°, and a second inlet section (13") which is curved and exhibits a radius of curvature R 2 in the range of 4.7-6.7 times the diameter D N of the spindle, b) the valve seat exhibits a diameter D ORI that is 0.8-1.1 times the diameter D N of the spindle, c) the diffuser is conical having an increasing cross-section in the flow direction, and exhibits an angle α 2 of 30-45° with the longitudinal axis of the flow channel, wherein the outlet channel exhibits a diameter D OUT of about 2.4-4.4 times the diameter D N of the spindle, and d) the radius of curvature R 1 of the spindle towards the apex, is within the range of 4.7-6.7 times the diameter D N of the spindle.
An adjustable bracket for installation of a vehicle bumper on a body of the vehicle, the bracket being configured to be connected to the body to support the bumper, characterized in that the bracket comprises a fixed bracket and an adjusting bracket, - wherein the bracket comprises a movable connection between the fixed bracket and the adjusting bracket, which allows the adjusting bracket to have a translational movement in the vertical direction of the vehicle with respect to the fixed bracket when the adjustable bracket is mounted on the vehicle, and - wherein the fixed bracket is provided with two cross ribs, and the connecting means of the adjusting bracket is a vertically elongate opening which matches the cross ribs, - wherein the adjusting bracket B is provided at its top with position-limiting means configured to be allowed to abut against a light of the vehicle, and - wherein the fixed bracket and the adjusting bracket are both provided with a mounting structure (31, 32, 33) configured to be fastened to the body. - wherein the bracket comprises a movable connection between the fixed bracket and the adjusting bracket, which allows the adjusting bracket to have a translational movement in the vertical direction of the vehicle with respect to the fixed bracket when the adjustable bracket is mounted on the vehicle, and - wherein the fixed bracket is provided with two cross ribs, and the connecting means of the adjusting bracket is a vertically elongate opening which matches the cross ribs, - wherein the adjusting bracket B is provided at its top with position-limiting means configured to be allowed to abut against a light of the vehicle, and - wherein the fixed bracket and the adjusting bracket are both provided with a mounting structure (31, 32, 33) configured to be fastened to the body.
An electronic device, comprising: a processor configured to: obtain an image from each of a plurality of cameras positioned at different locations; for each of the plurality of cameras positioned at different locations, project the obtained image to a separate sphere, wherein each separate sphere has a different location; project at least a portion of each of the plurality of separate spheres to a portion of a common sphere which encloses all of the separate spheres; and generate a combined view of the obtained images from the images projected to the common sphere. obtain an image from each of a plurality of cameras positioned at different locations; for each of the plurality of cameras positioned at different locations, project the obtained image to a separate sphere, wherein each separate sphere has a different location; project at least a portion of each of the plurality of separate spheres to a portion of a common sphere which encloses all of the separate spheres; and generate a combined view of the obtained images from the images projected to the common sphere.
A catalyst for purification of exhaust gas, configured to remove at least CO and HC in the exhaust gas, the catalyst comprising: a support comprising alumina, yttria, and titania; and a noble metal supported on the support, wherein the yttria and the titania are supported on the alumina surface, based on a total amount of alumina, yttria, and titania in the support, the yttria content is 0.7 to 35% by mass, the titania content is 0.3 to 24% by mass, and the alumina content is 50 to 98% by mass, and a content ratio, that is yttrium:titanium, between the yttria and the titania in the support is within a range of 90:10 to 20:80 based on an atomic ratio of the metal elements. a support comprising alumina, yttria, and titania; and a noble metal supported on the support, wherein the yttria and the titania are supported on the alumina surface, based on a total amount of alumina, yttria, and titania in the support, the yttria content is 0.7 to 35% by mass, the titania content is 0.3 to 24% by mass, and the alumina content is 50 to 98% by mass, and the yttria content is 0.7 to 35% by mass, the titania content is 0.3 to 24% by mass, and the alumina content is 50 to 98% by mass, and a content ratio, that is yttrium:titanium, between the yttria and the titania in the support is within a range of 90:10 to 20:80 based on an atomic ratio of the metal elements.
A lead exit arrangement for a high voltage transformer/reactor comprising an elongate bushing having a bushing axis, a stress shield located at a base of the bushing for receiving two or more winding leads (7a, 7b) from a transformer/reactor and housing a connection between the winding leads (7a, 7b) and the base of the bushing, the stress shield configured to receive each of said winding leads (7a, 7b) in a respective direction off-axis with respect to the bushing axis.