mhurhangee/ep-ind-claims huggingface dataset:
A mounting plate to which an apparatus is mounted, the mounting plate comprising: a main plate arranged in a position facing a back surface of the apparatus; a side plate arranged in a position facing a side surface of the apparatus; and a mounting plate-side latching member provided in the main plate, to which an apparatus-side latching member provided in the back surface of the apparatus is latched; characterized by a mounting plate-side guide structure provided in the side plate and configured to guide the apparatus-side latching member to the mounting plate-side latching member by collaborating with an apparatus-side guide structure provided in the side surface of the apparatus when mounting the apparatus to the mounting plate, wherein one of the apparatus-side guide structure and the mounting plate-side guide structure is a guide pin and the other is a guide hole, and the guide hole includes a first guide hole configured to guide the apparatus-side latching member in a direction of the main plate, and a second guide hole configured to extend from the first guide hole and guide the apparatus-side latching member in a direction along the main plate. a main plate arranged in a position facing a back surface of the apparatus; a side plate arranged in a position facing a side surface of the apparatus; and a mounting plate-side latching member provided in the main plate, to which an apparatus-side latching member provided in the back surface of the apparatus is latched; characterized by a mounting plate-side guide structure provided in the side plate and configured to guide the apparatus-side latching member to the mounting plate-side latching member by collaborating with an apparatus-side guide structure provided in the side surface of the apparatus when mounting the apparatus to the mounting plate, wherein one of the apparatus-side guide structure and the mounting plate-side guide structure is a guide pin and the other is a guide hole, and the guide hole includes a first guide hole configured to guide the apparatus-side latching member in a direction of the main plate, and a second guide hole configured to extend from the first guide hole and guide the apparatus-side latching member in a direction along the main plate.
Image processing method for reducing image interference in a thermal image from a thermal imaging camera, which interference is represented by an interference image and is in particular dependent on the operating temperature, wherein the interference image comprises a linear interference image portion (offset) and a non-linear interference image portion (gain), in which a raw image from the thermal imaging camera is fed into an input layer of an artificial neural network, wherein the interference image is overlaid on a useful image in the raw image, wherein the artificial neural network is programmed as a convolutional network having an input layer and an output layer, wherein the artificial neural network is programmed as a non-recurrent feed-forward network, characterized in that a reference image of a homogeneous black-body radiator, captured by means of the thermal imaging camera, is fed into the input layer of the artificial neural network, and wherein the artificial neural network is programmed to - minimize useful image portions of the useful image and - ascertain the linear interference image portion and the non-linear interference image portion during processing of the image data, such that the interference image is extracted from the processed image data and the output layer outputs the interference image or at least one interference image portion. in which a raw image from the thermal imaging camera is fed into an input layer of an artificial neural network, wherein the interference image is overlaid on a useful image in the raw image, wherein the artificial neural network is programmed as a convolutional network having an input layer and an output layer, wherein the artificial neural network is programmed as a non-recurrent feed-forward network, characterized in that a reference image of a homogeneous black-body radiator, captured by means of the thermal imaging camera, is fed into the input layer of the artificial neural network, and wherein the artificial neural network is programmed to - minimize useful image portions of the useful image and - ascertain the linear interference image portion and the non-linear interference image portion - minimize useful image portions of the useful image and - ascertain the linear interference image portion and the non-linear interference image portion during processing of the image data, such that the interference image is extracted from the processed image data and the output layer outputs the interference image or at least one interference image portion.
Metering device for introducing a reducing agent into an exhaust gas pipe of an internal combustion engine, the metering device having a metering module with a metering valve which is in control of a fluid duct in the metering module, and the metering module being connected to a delivery device via a pressure line, and, upstream towards the pressure line, the metering module having a check valve which connects the fluid duct of the metering module to the surroundings and shuts off in the flow direction to the surroundings, characterized in that the check valve has a throttle on an input side which is connected to the surroundings, the metering device being configured in such a way that return pulse suction of reducing agent from the metering module into the pressure line takes place in an emergency stop case of the metering device as a result of a sudden pressure drop, in particular, in the pressure line.
A vacuum cleaner comprising: a cleaner body comprising a mount part; a dust container separably mounted on the mount part; a rotatable cover configured to cover the dust container mounted on the mount part, the rotatable cover being rotatably connected to the cleaner body; and an opening maintenance unit configured to rotate the rotatable cover up to an automatic rotation position to maintain the rotating state of the rotatable cover at the automatic rotation position, wherein the rotatable cover comprises a hinge mechanism, and the opening maintenance unit comprises a first opening maintenance part (621, 622, 70) to support the hinge mechanism in the state where the rotatable cover rotates to the automatic rotation position, characterized in that the opening maintenance unit further comprises a second opening maintenance part (634, 636) to support a lower portion of the hinge mechanism in a state where the rotatable cover rotates from the automatic rotation position to a manual rotation position. a cleaner body comprising a mount part; a dust container separably mounted on the mount part; a rotatable cover configured to cover the dust container mounted on the mount part, the rotatable cover being rotatably connected to the cleaner body; and an opening maintenance unit configured to rotate the rotatable cover up to an automatic rotation position to maintain the rotating state of the rotatable cover at the automatic rotation position, wherein the rotatable cover comprises a hinge mechanism, and the opening maintenance unit comprises a first opening maintenance part (621, 622, 70) to support the hinge mechanism in the state where the rotatable cover rotates to the automatic rotation position, characterized in that the opening maintenance unit further comprises a second opening maintenance part (634, 636) to support a lower portion of the hinge mechanism in a state where the rotatable cover rotates from the automatic rotation position to a manual rotation position.
A method for selectively forming a metallic container, the method comprising: introducing a blank of material to tooling; and forming the blank of material into a cup having a sidewall (124, 126) and a flat bottom portion closing the sidewall (124, 126); characterised in that the method comprises: crimping and locking a peripheral portion of the flat bottom portion so that the peripheral portion is secured in substantially fixed position to prevent movement of the peripheral portion into the flat bottom portion; and in a subsequent forming step, stretching the flat bottom portion to form a thinned preselected profile. introducing a blank of material to tooling; and forming the blank of material into a cup having a sidewall (124, 126) and a flat bottom portion closing the sidewall (124, 126); crimping and locking a peripheral portion of the flat bottom portion so that the peripheral portion is secured in substantially fixed position to prevent movement of the peripheral portion into the flat bottom portion; and in a subsequent forming step, stretching the flat bottom portion to form a thinned preselected profile.
A method for manufacturing a multitude of optical devices, the method comprising: - providing a replication tool comprising a tool material; - conditioning the replication tool, wherein conditioning the replication tool comprises applying a treatment to the tool material, the treatment comprising exposing the tool material to a conditioning material, the treatment further comprising dimensionally changing the tool material by uptake of the conditioning material in the tool material; and the method further comprising, after the conditioning: - carrying out one or more replication processes, wherein in each of the one or more replication processes, one or more of the optical devices are produced from a replication material by replication using the replication tool. - providing a replication tool comprising a tool material; - conditioning the replication tool, wherein conditioning the replication tool comprises applying a treatment to the tool material, the treatment comprising exposing the tool material to a conditioning material, the treatment further comprising dimensionally changing the tool material by uptake of the conditioning material in the tool material; and - carrying out one or more replication processes, wherein in each of the one or more replication processes, one or more of the optical devices are produced from a replication material by replication using the replication tool.
A machine tool, in particular a grinding machine, having at least one guiding device (26, 28, 36, 60) that is arranged as a sliding guide, wherein the guiding device (26, 28, 36, 60) comprises at least one first sliding surface extending linearly in a plane and at least one second sliding surface extending linearly in a plane, which are coupled to one another so as to permit a linear relative movement between the first sliding surface and the second sliding surface, characterized in that at least the first sliding surface or the second sliding surface is provided, at least in sections, with a laser textured surface that comprises a micro texturing for friction optimization, the micro texturing is formed as a pattern having a plurality of groove-shaped indentations, wherein at least some of the groove-shaped indentations are oriented in a first preferred direction and at least some of the groove-shaped indentations are oriented in a second preferred direction along the surface, and wherein the first preferred direction and the second preferred direction include an angle and are in particular perpendicular to each other, and the at least one second sliding surface is associated to a carriage that is arranged to be moved relative to the at least one first sliding surface, and wherein the at least one second sliding surface is provided, at least in sections, with the laser textured surface that comprises the micro texturing.
A roller blind comprising: a roller and a screen connected to said roller at or near a top edge of said screen, said screen adapted for being lengthwise rolled into a retracted state, whereby said screen forms a spiral curve about said roller; and a plurality of slats having a width and a length, oriented widthwise on said screen and spaced from each next adjacent slat (30, 32) lengthwise along said screen, each slat connected at a respective rear slat edge (44, 48) to said screen; characterised in that: each slat is formed with a permanent curvature defined by a segment of said spiral curve on which said slat extends when said blind is in said retracted state. a roller and a screen connected to said roller at or near a top edge of said screen, said screen adapted for being lengthwise rolled into a retracted state, whereby said screen forms a spiral curve about said roller; and a plurality of slats having a width and a length, oriented widthwise on said screen and spaced from each next adjacent slat (30, 32) lengthwise along said screen, each slat connected at a respective rear slat edge (44, 48) to said screen; characterised in that: each slat is formed with a permanent curvature defined by a segment of said spiral curve on which said slat extends when said blind is in said retracted state. each slat is formed with a permanent curvature defined by a segment of said spiral curve on which said slat extends when said blind is in said retracted state.
A method of promoting growth of a crop, comprising: mixing a liquid-phase growth-promoting agent for a crop with water; and applying a mixture thus obtained to the crop; wherein said liquid-phase growth-promoting agent comprises a living bacterium of Bacillus amyloliquefaciens GYL4 (accession number KACC91655P) as an effective component. mixing a liquid-phase growth-promoting agent for a crop with water; and applying a mixture thus obtained to the crop; wherein said liquid-phase growth-promoting agent comprises a living bacterium of Bacillus amyloliquefaciens GYL4 (accession number KACC91655P) as an effective component.
A method for a serving radio base station for scheduling a radio resource to a user equipment, the method by comprising: - estimating a first channel quality of a channel used by the user equipment characterized by comprising estimating a first gain to interference and noise ratio, GINR est, of the channel used by the user equipment, - determining a pathloss between the user equipment and the serving radio base station and determining a corresponding gain based on said determined pathloss, - obtaining a gain of the user equipment towards each of a number of neighbouring radio base stations, - determining a fraction of the determined pathloss between the user equipment and the serving radio base station to be compensated for, based on the determined gain of the user equipment towards the serving radio base station and the obtained gains; - determining a second channel quality of the channel based on the estimated first channel quality, the determined fraction and the determined pathloss to be compensated for, comprising determining a second gain to interference and noise ratio, GINR comp, based on the estimated GINR est, the determined fraction and the determined pathloss to be compensated for, according to GINR comp = GINR est + fraction*pathloss; and - scheduling a radio resource for the user equipment based on the determined second channel quality. - estimating a first channel quality of a channel used by the user equipment characterized by comprising estimating a first gain to interference and noise ratio, GINR est, of the channel used by the user equipment, - determining a pathloss between the user equipment and the serving radio base station and determining a corresponding gain based on said determined pathloss, - obtaining a gain of the user equipment towards each of a number of neighbouring radio base stations, - determining a fraction of the determined pathloss between the user equipment and the serving radio base station to be compensated for, based on the determined gain of the user equipment towards the serving radio base station and the obtained gains; - determining a second channel quality of the channel based on the estimated first channel quality, the determined fraction and the determined pathloss to be compensated for, comprising determining a second gain to interference and noise ratio, GINR comp, based on the estimated GINR est, the determined fraction and the determined pathloss to be compensated for, according to GINR comp = GINR est + fraction*pathloss; and - scheduling a radio resource for the user equipment based on the determined second channel quality.
Method for operating an arc furnace comprising at least one electrode (3a, 3b, 3c), the solid material fed to the arc furnace being melted by means of an arc formed by the at least one electrode (3a, 3b, 3c), characterized in that - a supplied electrode current (I(t)) is detected for the at least one electrode (3a, 3b, 3c), - structure-borne sound oscillations (KS(t)) of the enclosure are detected, - a frequency-dependent current evaluation signal and a frequency-dependent oscillation evaluation signal are determined (41, 41") from the detected electrode current (I(t)) and the detected structure-borne sound oscillations (KS(t)), - a phase shift between the current evaluation signal and the oscillation evaluation signal is respectively determined for a multitude of common frequencies (f), and - a measure of the mass of the part of the solid material that is caked on the enclosure is determined from the phase shift determined, wherein a model that can be applied to enforced oscillations is used for determining the measure of the mass of the part of the solid material that is caked on the enclosure and a process variable of the arc furnace is controlled and/or regulated on the basis of the measure determined. - a supplied electrode current (I(t)) is detected for the at least one electrode (3a, 3b, 3c), - structure-borne sound oscillations (KS(t)) of the enclosure are detected, - a frequency-dependent current evaluation signal and a frequency-dependent oscillation evaluation signal are determined (41, 41") from the detected electrode current (I(t)) and the detected structure-borne sound oscillations (KS(t)), - a phase shift between the current evaluation signal and the oscillation evaluation signal is respectively determined for a multitude of common frequencies (f), and - a measure of the mass of the part of the solid material that is caked on the enclosure is determined from the phase shift determined, wherein a model that can be applied to enforced oscillations is used for determining the measure of the mass of the part of the solid material that is caked on the enclosure and a process variable of the arc furnace is controlled and/or regulated on the basis of the measure determined.
A humidification breathing apparatus for generating and delivering humidified air to a patient at a desired temperature proximate the patient comprising: an air flow path, and a controller for controlling operation of the humidification breathing apparatus, wherein the controller is configured to operate the humidification breathing apparatus to control the temperature at a target point in the flow path to a target temperature to achieve the desired delivered temperature at a patient delivery point in the flow path downstream of the target point and proximate the patient, wherein the target temperature is determined based on patient exhaled temperature and flow (42a, 42b) using a model. an air flow path, and a controller for controlling operation of the humidification breathing apparatus, wherein the controller is configured to operate the humidification breathing apparatus to control the temperature at a target point in the flow path to a target temperature to achieve the desired delivered temperature at a patient delivery point in the flow path downstream of the target point and proximate the patient, wherein the target temperature is determined based on patient exhaled temperature and flow (42a, 42b) using a model.
A visible light-transparent and radiative-cooling multilayer film comprising N layers of films, wherein the N layers of films comprise layers of first films and layers of second films arranged alternately, wherein N≧3; wherein the layers of first films and the layers of second films are made of different visible light-transparent materials, and the visible light-transparent materials have different dielectric constants in infrared band, and a resonant cavity or resonant cavities are formed among the N layers of films, wherein the N layers of films have layers of materials with different thicknesses, wherein the layers of first films are made of indium tin oxide, and the layers of second films are made of photoresist. wherein the layers of first films and the layers of second films are made of different visible light-transparent materials, and the visible light-transparent materials have different dielectric constants in infrared band, and a resonant cavity or resonant cavities are formed among the N layers of films, wherein the N layers of films have layers of materials with different thicknesses, wherein the layers of first films are made of indium tin oxide, and the layers of second films are made of photoresist.
Apparatus for non-invasive measurement of a concentration of a substance within a body, comprising: a detector configured to sense radiation (41, 43, 45) emitted or remitted from a body; an optical subsystem configured to focus the radiation on a sensitive area of the detector; and one or more temperature sensors attached to one or more of a plurality of elements (27, 29, 31, 37) of the optical subsystem and one or more additional temperature sensors attached to the detector, the one or more temperature sensors being configured to measure the temperature of the one or more elements of the optical subsystem, the one or more additional temperature sensors being configured to measure the temperature of the detector, and the apparatus being configured to correct a value of the sensed radiation for the effects of the emission of each of the detector and the one or more elements of the optical subsystem using predetermined calibration parameters determined from the measured temperatures of the one or more elements of the optical subsystem and of the detector and to measure the concentration of the substance using the corrected value of the sensed radiation. a detector configured to sense radiation (41, 43, 45) emitted or remitted from a body; an optical subsystem configured to focus the radiation on a sensitive area of the detector; and one or more temperature sensors attached to one or more of a plurality of elements (27, 29, 31, 37) of the optical subsystem and one or more additional temperature sensors attached to the detector, the one or more temperature sensors being configured to measure the temperature of the one or more elements of the optical subsystem, the one or more additional temperature sensors being configured to measure the temperature of the detector, and the apparatus being configured to correct a value of the sensed radiation for the effects of the emission of each of the detector and the one or more elements of the optical subsystem using predetermined calibration parameters determined from the measured temperatures of the one or more elements of the optical subsystem and of the detector and to measure the concentration of the substance using the corrected value of the sensed radiation.