mhurhangee/ep-ind-claims huggingface dataset:
A dryer comprising: a cylinder receiving clothing and having an opening and an air outlet; a heater heating air and delivering the heated air into the cylinder; and a motor connected to the cylinder to drive the cylinder to rotate; characterized by a temperature sensor disposed at an inner side of a window at the opening of the cylinder, comprising: a thermopile array sensor sensing an infrared light radiated from the clothing and outputting a sensing signal; a lens disposed at a receiving end of the thermopile array sensor to limit a sensing angle of the thermopile array sensor; and a signal processor electrically connected to the thermopile array sensor to process the sensing signal to obtain a temperature distribution uniformity and an average temperature of the clothing, and output a control signal according to the temperature distribution uniformity and the average temperature of the clothing; and a controller electrically connected to the heater, the motor and the temperature sensor to determine to stop or adjust the heater and the motor according to the control signal. a cylinder receiving clothing and having an opening and an air outlet; a heater heating air and delivering the heated air into the cylinder; and a motor connected to the cylinder to drive the cylinder to rotate; characterized by a temperature sensor disposed at an inner side of a window at the opening of the cylinder, comprising: a thermopile array sensor sensing an infrared light radiated from the clothing and outputting a sensing signal; a lens disposed at a receiving end of the thermopile array sensor to limit a sensing angle of the thermopile array sensor; and a signal processor electrically connected to the thermopile array sensor to process the sensing signal to obtain a temperature distribution uniformity and an average temperature of the clothing, and output a control signal according to the temperature distribution uniformity and the average temperature of the clothing; and a thermopile array sensor sensing an infrared light radiated from the clothing and outputting a sensing signal; a lens disposed at a receiving end of the thermopile array sensor to limit a sensing angle of the thermopile array sensor; and a signal processor electrically connected to the thermopile array sensor to process the sensing signal to obtain a temperature distribution uniformity and an average temperature of the clothing, and output a control signal according to the temperature distribution uniformity and the average temperature of the clothing; and a controller electrically connected to the heater, the motor and the temperature sensor to determine to stop or adjust the heater and the motor according to the control signal.
A method for mitigating damage to a plurality of drop generators in a printing system, said method comprising: accessing data corresponding to an image to be printed on a media by the printing system; and determining a characteristic type of the image to be printed; controlling the plurality of drop generators to print the image on the media while mitigating damage to the plurality of drop generators and without shifting placement of the image on the media or shifting the plurality of drop generators in a direction perpendicular to a feed direction of the media. wherein controlling the plurality of drop generators while mitigating damage to the plurality of drop generators further comprises controlling the plurality of drop generators to print the image exclusively with a first subset of the plurality of drop generators in response to the image to be printed having a first characteristic type and printing the image exclusively with a second subset of the plurality of drop generators in response to the image to be printed having a second characteristic type. accessing data corresponding to an image to be printed on a media by the printing system; and determining a characteristic type of the image to be printed; controlling the plurality of drop generators to print the image on the media while mitigating damage to the plurality of drop generators and without shifting placement of the image on the media or shifting the plurality of drop generators in a direction perpendicular to a feed direction of the media.
A method of generating a guard service for a secure service at a secure processing region of a processing system, the method being performed by a compiler and comprising: detecting a call from a system processing region of the processing system to a secure service (222, 232) included in a secure memory of the secure processing region; obtaining a secure interface associated with the secure service (222, 232); obtaining a security policy associated with the secure service (222, 232), the security policy including an access restriction associated with the secure memory of the secure processing region; validating the secure interface associated with the secure service (222, 232) based on the access restriction; generating a guard interface based at least partially on the secure interface; generating a guard service (220, 230) based at least partially on the guard interface; locating the guard service (220, 230) at the secure memory of the secure processing region; locating the guard interface at a secure address at the secure memory of the secure processing region; and generating an access point (212, 214) at the secure address at the secure memory of the secure processing region by associating the secure address with an access condition allowing one or more of a system memory and a system processor included in the system processing region to directly address the secure memory at the secure address, the access point (212, 214) overriding a default condition restricting or preventing access to the secure memory from the system memory and the system processor included in the system processing region. detecting a call from a system processing region of the processing system to a secure service (222, 232) included in a secure memory of the secure processing region; obtaining a secure interface associated with the secure service (222, 232); obtaining a security policy associated with the secure service (222, 232), the security policy including an access restriction associated with the secure memory of the secure processing region; validating the secure interface associated with the secure service (222, 232) based on the access restriction; generating a guard interface based at least partially on the secure interface; generating a guard service (220, 230) based at least partially on the guard interface; locating the guard service (220, 230) at the secure memory of the secure processing region; locating the guard interface at a secure address at the secure memory of the secure processing region; and generating an access point (212, 214) at the secure address at the secure memory of the secure processing region by associating the secure address with an access condition allowing one or more of a system memory and a system processor included in the system processing region to directly address the secure memory at the secure address, the access point (212, 214) overriding a default condition restricting or preventing access to the secure memory from the system memory and the system processor included in the system processing region.
A method of diagnosing membranous nephropathy in a subject, the method comprising detecting the presence of antibodies that are reactive to a phospholipase A2 receptor (PLA2R), wherein the antibodies are found in a sample obtained from a subject.
An engine fueled by ammonia which arranges in an exhaust passage of the engine an NO x selective reduction catalyst able to selectively reduce NO x contained in exhaust gas in the presence of ammonia, wherein fuel feeding means for feeding fuel comprised of gaseous ammonia in a combustion chamber of the engine and ammonia feeding means for feeding liquid ammonia to an inside of an intake passage of the engine are provided, and an intake air is cooled by the liquid ammonia which is fed from said ammonia feeding means to the inside of the intake passage, NO x contained in the exhaust gas being reduced at the NO x selective reduction catalyst by an unburned ammonia which is exhausted to the inside of the exhaust passage, characterized in that inside the exhaust passage of the engine, a gaseous pressure boosting device which uses exhaust gas heat to boost a pressure of the gaseous ammonia is arranged and wherein a boosted pressure gaseous ammonia is fed into said combustion chamber.
A process for preparing microparticles, which comprises the step of atomising a solution or dispersion comprising a saccharide and a blowing material in a carrier into a gas in order to obtain microparticles by evaporation of the carrier and removal, or decomposition and removal of the blowing material, wherein the carrier for the solution or dispersion is an aqueous carrier which does not comprise a liquid of greater volatility than water, wherein the microparticles have a tap density of equal to or less than 0.3 g/cm 3 and a median geometric diameter of less than, or equal to, 10 μm, and wherein the blowing material is selected from ammonium carbonate and ammonium bicarbonate or mixtures thereof.
Resection snare, comprising a first snare part and a second snare part, which snare parts form a snare tip on a distal end and are connected with or merging in a manipulation wire guided in a catheter at a proximal end, wherein the two snare parts (2, 3) are electrically insulated in a proximal region, and at least one snare part is electrically non-insulated in a distal region (5, 16, 17), wherein the two snare parts are interconnected at their distal ends to form a snare tip or the snare is formed in one piece, wherein the two snare parts comprise of one part, characterized in that the resection snare comprises at least one electrically insulated HF-surgically inactive skid (14, 18a, 18b, 19, 20) at its distal end.
A touch panel comprising: a cover substrate comprising an active area and an unactive area; and a printing layer only on the unactive area; first and second sensing electrodes (210, 220) on the active area; a wire electrode on the unactive area; wherein the printing layer comprises: a first printing layer; characterized in that the printing layer further comprises a second printing layer on a top surface and a lateral surface of the first printing layer, and in that a lateral side of the second printing layer has an average inclination angle in a range of about 1.5° to about 2.7° with respect to a top surface of the cover substrate and in that the wire electrode is connected to the first or second sensing electrode (210,220) on the top surface of the second printing layer. a cover substrate comprising an active area and an unactive area; and a printing layer only on the unactive area; first and second sensing electrodes (210, 220) on the active area; a wire electrode on the unactive area; wherein the printing layer comprises: a first printing layer; characterized in that the printing layer further comprises a second printing layer on a top surface and a lateral surface of the first printing layer, and in that a lateral side of the second printing layer has an average inclination angle in a range of about 1.5° to about 2.7° with respect to a top surface of the cover substrate and in that the wire electrode is connected to the first or second sensing electrode (210,220) on the top surface of the second printing layer. a first printing layer; characterized in that the printing layer further comprises a second printing layer on a top surface and a lateral surface of the first printing layer, and in that a lateral side of the second printing layer has an average inclination angle in a range of about 1.5° to about 2.7° with respect to a top surface of the cover substrate and in that the wire electrode is connected to the first or second sensing electrode (210,220) on the top surface of the second printing layer.
Device for detecting a voltage system which is applied to an overhead wire section for a rail vehicle installation, the rail vehicle installation comprising, in addition to the overhead wire section, at least one rail vehicle and the device, wherein the device comprises at least one measuring arrangement located between the overhead wire section and a roof area of the rail vehicle, wherein the measuring arrangement is connected to at least one evaluation unit, and wherein the measuring arrangement comprises at least one capacitor unit, characterized in that the device comprises at least two measuring arrangements, wherein the at least two capacitor units comprise the overhead wire section and one sensor element each, and wherein at least two current measuring units each connecting a sensor element to the roof area of the rail vehicle.
A method of classifying pixels in a digital image, the method comprising: receiving a primary image from one or more image sensors (112, 304, 306, 616), the primary image including a plurality of primary pixels of the digital image, wherein the primary image comprises a background object and a foreground object; receiving a depth image from one or more depth sensors (110, 614), the depth image including a plurality of depth pixels, each depth pixel registered to one or more primary pixels; producing a segmentation map from the depth image, the segmentation map including a plurality of estimated foreground pixels (314, 322, 414, 426) and a plurality of estimated background pixels (312, 318, 412, 422); and characterised by producing a trimap from the segmentation map, the trimap matching the segmentation map but including a plurality of test pixels (320, 424) at one or more boundaries between estimated foreground pixels 314, 322, 414, 426) and estimated background pixels (312, 318, 412, 422); refining each of the test pixels (320, 424) to either a confirmed foreground pixel or a confirmed background pixel based on an analysis of primary pixels registered to test pixels (320, 424); and cooperatively using the depth image and the primary image to identify whether a primary pixel images the foreground object or the background object. receiving a primary image from one or more image sensors (112, 304, 306, 616), the primary image including a plurality of primary pixels of the digital image, wherein the primary image comprises a background object and a foreground object; receiving a depth image from one or more depth sensors (110, 614), the depth image including a plurality of depth pixels, each depth pixel registered to one or more primary pixels; producing a segmentation map from the depth image, the segmentation map including a plurality of estimated foreground pixels (314, 322, 414, 426) and a plurality of estimated background pixels (312, 318, 412, 422); and characterised by producing a trimap from the segmentation map, the trimap matching the segmentation map but including a plurality of test pixels (320, 424) at one or more boundaries between estimated foreground pixels 314, 322, 414, 426) and estimated background pixels (312, 318, 412, 422); refining each of the test pixels (320, 424) to either a confirmed foreground pixel or a confirmed background pixel based on an analysis of primary pixels registered to test pixels (320, 424); and cooperatively using the depth image and the primary image to identify whether a primary pixel images the foreground object or the background object.
Arrangement for identifying a laser machining nozzle on insertion into a laser machining head, comprising: a laser machining head, a laser machining nozzle as well as means for detecting or sensing a coding formed on a region of the laser machining nozzle which can be inserted into a laser machining head in the form of a shaping (26, 27), wherein the means for detecting or sensing are provided in a receiving region of the laser machining head provided for insertion of the laser machining nozzle, characterised in that the shaping for identifying a certain laser machining nozzle from a plurality of laser machining nozzles is formed by a sequence of ridges and grooves or by a coating. a laser machining head, a laser machining nozzle as well as means for detecting or sensing a coding formed on a region of the laser machining nozzle which can be inserted into a laser machining head in the form of a shaping (26, 27), wherein the means for detecting or sensing are provided in a receiving region of the laser machining head provided for insertion of the laser machining nozzle, characterised in that the shaping for identifying a certain laser machining nozzle from a plurality of laser machining nozzles is formed by a sequence of ridges and grooves or by a coating.
An exothermically heated apparatus for applying heat to a local area on a person, comprising: a water-impermeable outer layer forming an open-ended enclosure; a heating layer interior to the enclosure, wherein the heating layer comprises a first outer fabric layer, an exothermic layer and a second outer fabric layer, wherein the exothermic layer further comprises a fluffing exothermic activatable when contacted with an activating solution, wherein the fluffing exothermic composition expands within the inner and outer layers as it activates; and an inner liner layer interior to the heating layer. a water-impermeable outer layer forming an open-ended enclosure; a heating layer interior to the enclosure, wherein the heating layer comprises a first outer fabric layer, an exothermic layer and a second outer fabric layer, wherein the exothermic layer further comprises a fluffing exothermic activatable when contacted with an activating solution, wherein the fluffing exothermic composition expands within the inner and outer layers as it activates; and an inner liner layer interior to the heating layer.
A flow metering system, comprising: a flow meter coupled to a plurality of sensors (134, 136, 138) and configured to measure volume of fluid flowing through the flow meter; and a metrology computer coupled to the flow meter and the sensors (134, 136, 138) and configured to: receive live values from a plurality of sensors during a first time period; train an artificial intelligence engine based on the live values received during the first time period; and detect a sensor failure based on a deviation between a live value from the sensor and a predicted value for the sensor, wherein the predicted value is based on live values from other of the plurality of sensors and the artificial intelligence engine; the flow metering system being characterised in that the metrology computer is further configured to: predict a future trend in sensor values based on the live values and the trained artificial intelligence engine; and identify the impending failure of one of the sensors. a flow meter coupled to a plurality of sensors (134, 136, 138) and configured to measure volume of fluid flowing through the flow meter; and a metrology computer coupled to the flow meter and the sensors (134, 136, 138) and configured to: receive live values from a plurality of sensors during a first time period; train an artificial intelligence engine based on the live values received during the first time period; and detect a sensor failure based on a deviation between a live value from the sensor and a predicted value for the sensor, wherein the predicted value is based on live values from other of the plurality of sensors and the artificial intelligence engine; receive live values from a plurality of sensors during a first time period; train an artificial intelligence engine based on the live values received during the first time period; and detect a sensor failure based on a deviation between a live value from the sensor and a predicted value for the sensor, wherein the predicted value is based on live values from other of the plurality of sensors and the artificial intelligence engine; the flow metering system being characterised in that the metrology computer is further configured to: predict a future trend in sensor values based on the live values and the trained artificial intelligence engine; and identify the impending failure of one of the sensors. predict a future trend in sensor values based on the live values and the trained artificial intelligence engine; and identify the impending failure of one of the sensors.
A user device arranged to transmit and to receive data to and from an infrastructure equipment via a wireless access interface, the wireless access interface being provided by the infrastructure equipment using a plurality of Orthogonal Frequency Division Multiplexing (OFDM) subcarriers, the plurality of subcarriers extending across at least a first bandwidth, the infrastructure equipment transmitting repeatedly, for the user device and one or more other user devices, signals representing a same instance of user device payload data in a second bandwidth within a Physical Downlink Shared Channel, PDSCH, the second bandwidth being commonly allocated to all of the user device and the one or more other user devices and being less than and within the first bandwidth and including a subset of the OFDM subcarriers, wherein the second bandwidth is defined relative to the bandwidth of the PDSCH, and the user device is configured to receive one or more of the signals repeatedly transmitted across the second bandwidth, to store in a memory signals representing the repeatedly transmitted signals received across the second bandwidth, to combine the stored signals, and to detect the user device payload data from the combined signals, wherein the user device is configured to receive user device payload data within a virtual carrier of a predetermined bandwidth, the second bandwidth being equivalent to the predetermined bandwidth, and the predetermined bandwidth includes a set of the OFDM subcarriers that is the same as the OFDM subcarriers that form the subset of the OFDM subcarriers included in the second bandwidth.
A mobile communications network for communicating data to and/or from one or more communications terminals, the mobile communications network comprising a core network part including infrastructure equipment, and a radio network part including a plurality of base stations which are configured to provide a wireless access interface for communicating the data to or from the communications terminals, wherein one of the plurality of base stations is configured to operate as a serving base station (2.5) to one of the communications terminals, to establish in co-operation with the communications terminal (1.1) one or more communications bearers (B1 B2, B3) for communicating user data to or from the communications terminal via the core network part and the radio network part via the serving base station, and to co-operate with at least one other of the plurality of base stations (2.3, 2.4) to communicate the user data to or from the communications terminal, the co-operating base station being configured to receive user data for communicating to the communications terminal via an interface (30, 32) between the serving base station and the co-operating base station, and to transmit the user data selectively to the communications terminal consequent upon a state of a radio communications channel established via the wireless access interface under the control of the serving base station, and the mobile communications network is configured to monitor a state of the radio communications channel between the co-operating base station and the communications terminal, and consequent upon predetermined conditions, to establish a communications bearer from the core network to the co-operating base station for communicating the user data to the cooperating base station for transmitting the user data to the communications terminal.