mhurhangee/ep-ind-claims huggingface dataset:
A full-effective reverse osmosis membrane element, comprising a central tube and a reverse osmosis membrane folded in half to be wound around the central tube, a raw water flow channel being formed between front surfaces of the reverse osmosis membrane folded in half, a purified water flow channel being formed between back surfaces of the reverse osmosis membrane folded in half, wherein, two opposite edges, adjacent to the central tube, of the reverse osmosis membrane folded in half being respectively sealed by a first water division band and a second water division band, a first end of the first water division band closer to the central tube and a folded end of the reverse osmosis membrane at the central tube being spaced from each other and forming a first concentrated water-outlet, a second end of the first water division band and an end, away from the central tube, of the reverse osmosis membrane being spaced from each other and forming a second concentrated water-outlet, a first end of the second water division band and the end, away from the central tube, of the reverse osmosis membrane being spaced from each other and forming a first raw water-inlet; and a second end of the second water division band and a second end of the central tube being spaced from each other and forming a second raw water-inlet, and the two opposite edges, adjacent to the central tube, of the reverse osmosis membrane folded in half being defined as longer sides of the reverse osmosis membrane.
An enteral reflux collection system for use with an enteral fluid container comprising a discharge and a feeding tube, the enteral reflux collection system characterized by comprising: a gastric reflux collection syringe comprising a confined internal cavity and a plunger; and a reflux relief tube to deliver gastric reflux to the gastric reflux collection syringe, the reflux relief tube coupled with respect to the feeding tube. a gastric reflux collection syringe comprising a confined internal cavity and a plunger; and a reflux relief tube to deliver gastric reflux to the gastric reflux collection syringe, the reflux relief tube coupled with respect to the feeding tube.
Heat exchanger for indirect heat exchange between a first medium and a second medium, comprising: - a shell, which surrounds a shell space of the heat exchanger, - a core tube, which is made to extend along a longitudinal axis and onto which a plurality of tubes for receiving the first medium are coiled, the tubes forming a bundle of tubes, wherein a number of upper end portions of the tubes of the bundle of tubes are brought together and connected to a tubesheet, which is fixed at the shell, - an annular channel extending in the circumferential direction of the shell and intended for receiving the second medium, - an inlet nozzle, which is provided laterally at the shell and by way of which the second medium can be introduced into the annular channel, - a plurality of distributor arms, which respectively have a base with outlet openings, by way of which a liquid phase of the second medium can be distributed on the bundle of tubes, wherein the distributor arms are respectively in flow connection with the annular channel, and wherein the bases of the distributor arms are arranged below the annular channel with respect to the longitudinal axis, characterized in that the tubesheet is fixed at the shell above the bases of the distributor arms and below the annular channel with respect to the longitudinal axis. - a shell, which surrounds a shell space of the heat exchanger, - a core tube, which is made to extend along a longitudinal axis and onto which a plurality of tubes for receiving the first medium are coiled, the tubes forming a bundle of tubes, wherein a number of upper end portions of the tubes of the bundle of tubes are brought together and connected to a tubesheet, which is fixed at the shell, - an annular channel extending in the circumferential direction of the shell and intended for receiving the second medium, - an inlet nozzle, which is provided laterally at the shell and by way of which the second medium can be introduced into the annular channel, - a plurality of distributor arms, which respectively have a base with outlet openings, by way of which a liquid phase of the second medium can be distributed on the bundle of tubes, wherein the distributor arms are respectively in flow connection with the annular channel, and wherein the bases of the distributor arms are arranged below the annular channel with respect to the longitudinal axis,
An evacuation slide comprising: - a sliding face having a top end portion adapted to be positioned adjacent to an exit of a region to be evacuated, and a bottom end portion adapted to be positioned adjacent to an escape route leading away from the region to be evacuated and being arranged at a lower height than the region to be evacuated, and - a light signal generating device adapted to generate a light signal, wherein the light signal generating device comprises at least a first lighting element, characterized in that the first lighting element comprises a focusing lens adapted to focus light emitted by the first lighting element to the bottom end portion of the sliding face and to limit the light signal emitted by the first lighting element to illuminate the bottom end portion of the sliding face, whereas the escape route is not illuminated by the light signal emitted by the first lighting element so as to increase a contrast between the sliding face and the escape route and to provide a clear indication for an evacuee where the sliding face of the evacuation slide ends and where the escape route begins. - a sliding face having a top end portion adapted to be positioned adjacent to an exit of a region to be evacuated, and a bottom end portion adapted to be positioned adjacent to an escape route leading away from the region to be evacuated and being arranged at a lower height than the region to be evacuated, and - a light signal generating device adapted to generate a light signal, wherein the light signal generating device comprises at least a first lighting element, characterized in that the first lighting element comprises a focusing lens adapted to focus light emitted by the first lighting element to the bottom end portion of the sliding face and to limit the light signal emitted by the first lighting element to illuminate the bottom end portion of the sliding face, whereas the escape route is not illuminated by the light signal emitted by the first lighting element so as to increase a contrast between the sliding face and the escape route and to provide a clear indication for an evacuee where the sliding face of the evacuation slide ends and where the escape route begins.
A mixing device for intermixing powder particles and/or granular particles or a similar free-flowing solid with at least one liquid, the mixing device comprising: a feed duct for the solid; an inlet for the liquid; at least one mixing implement, which is rotatable about an axis in a mixing chamber; an outlet for the mixture; a delivery pump, which is arranged between the inlet and the mixing implement, characterized in that a further connection exists between the delivery pump and the mixing chamber, wherein the further connection is formed by a pipe or a hose line on the outside of a housing of the mixing device, and has an opening into the mixing chamber, or wherein the further connection is arranged inside the housing of the mixing device. a feed duct for the solid; an inlet for the liquid; at least one mixing implement, which is rotatable about an axis in a mixing chamber; an outlet for the mixture; a delivery pump, which is arranged between the inlet and the mixing implement, characterized in that a further connection exists between the delivery pump and the mixing chamber, wherein the further connection is formed by a pipe or a hose line on the outside of a housing of the mixing device, and has an opening into the mixing chamber, or wherein the further connection is arranged inside the housing of the mixing device.
An automotive communication method, said comprising the steps of: installing a first sensor (30a to 30d, 46, 60) within a vehicle such that the first sensor (30a to 30d, 46, 60) is submerged in a liquid (52, 64) during operation of the vehicle and/or substantially surrounded by a metallic structure (44, 58) during operation of the vehicle; transmitting a sensor signal from the first sensor (30a to 30d, 46, 60), the sensor signal being indicative of a condition sensed by the first sensor (30a to 30d, 46, 60); wirelessly receiving the signal at a controller disposed within the vehicle; and responding to the receipt of the signal at the controller by adjusting a display and/or a setting within the vehicle; characterized in that: a long wave magnetic sensor signal is transmitted from the first sensor (30a to 30d, 46, 60) as the sensor signal; and the further steps of: installing a second sensor (20, 22, 30a to 30d, 46, 60) within the vehicle; transmitting second long wave magnetic signals from the second sensor (20, 22, 30a to 30d, 46, 60); and localizing the two sensors (20, 22, 30a to 30d, 46, 60) with respect to each other. installing a first sensor (30a to 30d, 46, 60) within a vehicle such that the first sensor (30a to 30d, 46, 60) is submerged in a liquid (52, 64) during operation of the vehicle and/or substantially surrounded by a metallic structure (44, 58) during operation of the vehicle; transmitting a sensor signal from the first sensor (30a to 30d, 46, 60), the sensor signal being indicative of a condition sensed by the first sensor (30a to 30d, 46, 60); wirelessly receiving the signal at a controller disposed within the vehicle; and responding to the receipt of the signal at the controller by adjusting a display and/or a setting within the vehicle; characterized in that: a long wave magnetic sensor signal is transmitted from the first sensor (30a to 30d, 46, 60) as the sensor signal; and the further steps of: installing a second sensor (20, 22, 30a to 30d, 46, 60) within the vehicle; transmitting second long wave magnetic signals from the second sensor (20, 22, 30a to 30d, 46, 60); and localizing the two sensors (20, 22, 30a to 30d, 46, 60) with respect to each other. a long wave magnetic sensor signal is transmitted from the first sensor (30a to 30d, 46, 60) as the sensor signal; and the further steps of: installing a second sensor (20, 22, 30a to 30d, 46, 60) within the vehicle; transmitting second long wave magnetic signals from the second sensor (20, 22, 30a to 30d, 46, 60); and localizing the two sensors (20, 22, 30a to 30d, 46, 60) with respect to each other. installing a second sensor (20, 22, 30a to 30d, 46, 60) within the vehicle; transmitting second long wave magnetic signals from the second sensor (20, 22, 30a to 30d, 46, 60); and localizing the two sensors (20, 22, 30a to 30d, 46, 60) with respect to each other.
A method for controlling electronic image stabilization of a video frame in a camera system, the method comprising: capturing a video stream comprising a plurality of frames; determining an availability of a computational resource for performing electronic image stabilization on one or more frames; receiving data from a gyroscope, the gyroscope connected to an imaging device, wherein the data from the gyroscope includes sensed motion of the imaging device; determining a baseline motion frequency threshold based on the availability of the computational resource, the motion frequency threshold being set to a relatively high threshold value or a relatively low threshold value depending on the current computational resource load of the camera system and the frame rate of the video stream; estimating a motion frequency of the imaging device during capture of the video stream from the data received from the gyroscope; comparing the estimated motion frequency of the imaging device to the determined motion frequency threshold; performing, in response to the estimated motion frequency meeting a first criteria based on the baseline motion frequency threshold, electronic image stabilization on the one or more frames of the video; and disabling, in response to the estimated motion frequency meeting a second criteria based on the baseline motion frequency threshold, performing electronic image stabilization on the one or more frames of the video. capturing a video stream comprising a plurality of frames; determining an availability of a computational resource for performing electronic image stabilization on one or more frames; receiving data from a gyroscope, the gyroscope connected to an imaging device, wherein the data from the gyroscope includes sensed motion of the imaging device; determining a baseline motion frequency threshold based on the availability of the computational resource, the motion frequency threshold being set to a relatively high threshold value or a relatively low threshold value depending on the current computational resource load of the camera system and the frame rate of the video stream; estimating a motion frequency of the imaging device during capture of the video stream from the data received from the gyroscope; comparing the estimated motion frequency of the imaging device to the determined motion frequency threshold; performing, in response to the estimated motion frequency meeting a first criteria based on the baseline motion frequency threshold, electronic image stabilization on the one or more frames of the video; and disabling, in response to the estimated motion frequency meeting a second criteria based on the baseline motion frequency threshold, performing electronic image stabilization on the one or more frames of the video.
A resistance bridge, comprising: a current source; a first internal resistor coupled in series to a second internal resistor, the first and second 106) internal resistors coupled to the current source; a measurement circuit coupled to the first internal resistor at a first node and a second node and coupled to the second internal resistor at the second node and a third node, the measurement circuit being operable to measure a first electrical parameter of the first resistor via the first and second nodes, measure a second electrical parameter of the second resistor via the second and third nodes, and measure a third electrical parameter of a combination of the first and second 106) resistors via the first and third nodes, wherein the measurement circuit is a voltage measurement circuit and the first electrical parameter is a first voltage across the first internal resistor, the second electrical parameter is a second voltage across the second internal resistor, the third electrical parameter is a third voltage across a combination of the first and second internal resistors; and a microprocessor coupled to the measurement circuit, the microprocessor being operable to determine whether the resistance bridge has linearity using the first, second, and third measured electrical parameters, wherein the microprocessor is configured to determine linearity by converting the first and third electrical parameters to a first ratio and converting the second and third electrical parameters to a second ratio, summing the first and second ratios, and comparing the summed ratios to a value of one. a current source; a first internal resistor coupled in series to a second internal resistor, the first and second 106) internal resistors coupled to the current source; a measurement circuit coupled to the first internal resistor at a first node and a second node and coupled to the second internal resistor at the second node and a third node, the measurement circuit being operable to measure a first electrical parameter of the first resistor via the first and second nodes, measure a second electrical parameter of the second resistor via the second and third nodes, and measure a third electrical parameter of a combination of the first and second 106) resistors via the first and third nodes, wherein the measurement circuit is a voltage measurement circuit and the first electrical parameter is a first voltage across the first internal resistor, the second electrical parameter is a second voltage across the second internal resistor, the third electrical parameter is a third voltage across a combination of the first and second internal resistors; and a microprocessor coupled to the measurement circuit, the microprocessor being operable to determine whether the resistance bridge has linearity using the first, second, and third measured electrical parameters, wherein the microprocessor is configured to determine linearity by converting the first and third electrical parameters to a first ratio and converting the second and third electrical parameters to a second ratio, summing the first and second ratios, and comparing the summed ratios to a value of one.
An RNAi inducing agent targeting tight junction proteins selected from occludin, claudin 1-19 or 21 for use in the treatment of disease or disorder of the brain or retina, wherein the treatment comprises the reversible, transient and controlled size selective opening of the paracellular pathway of the blood brain barrier following delivery of the RNAi inducing agent targeting tight junction proteins, and results in the reversible and transient RNAi-mediated suppression of blood brain barrier tight junction protein transcripts in brain capillary endothelial cells or retinal endothelial cells to allow the permeation and delivery of an active agent, preferably less than 15kDa, directed to the treatment of the disease or disorder of the brain or retina.
A cleaner comprising: a main body configured to separate dust from air suctioned through an opening; a suction motor provided in the main body to generate a suction force; and a suction inlet including a connection pipe coupled to the opening to guide air to the main body, characterized in that the main body includes a suction guide coupled to one side of the connection pipe to guide air suctioned through the connection pipe to an inner circumferential surface of the main body, wherein the connection pipe includes a guide duct on which a rotatable flap is installed, wherein the suction guide is connected to the guide duct, wherein the guide duct includes a first surface on which the flap is installed, and a second surface facing the first surface, wherein a second extension line of the second surface forms a first angle with a first extension line of one surface of the suction guide connected to the second surface, wherein a third extension line of the flap and the first extension line form a second angle, and wherein the second angle is equal to or smaller than the first angle. a main body configured to separate dust from air suctioned through an opening; a suction motor provided in the main body to generate a suction force; and a suction inlet including a connection pipe coupled to the opening to guide air to the main body, characterized in that the main body includes a suction guide coupled to one side of the connection pipe to guide air suctioned through the connection pipe to an inner circumferential surface of the main body, wherein the connection pipe includes a guide duct on which a rotatable flap is installed, wherein the suction guide is connected to the guide duct, wherein the guide duct includes a first surface on which the flap is installed, and a second surface facing the first surface, wherein a second extension line of the second surface forms a first angle with a first extension line of one surface of the suction guide connected to the second surface, wherein a third extension line of the flap and the first extension line form a second angle, and wherein the second angle is equal to or smaller than the first angle.
Propulsion assembly for an aircraft comprising a nacelle and an engine arranged inside the nacelle and supplied with fuel by a fuel supply line, the engine comprising a combustion chamber and, downstream of said chamber, an exhaust nozzle for ejecting the combustion gases out of the nacelle, the exhaust nozzle being delimited by a closed and angle-free wall of curved radial cross section, the exhaust nozzle extending longitudinally between a first end and a second end, the propulsion assembly further comprising a heat exchanger system of which the exhaust nozzle forms a part, the heat exchanger system comprising a circulation line of which a portion, termed integrated portion, is arranged within the thickness of the wall of the exhaust nozzle, a first end of the circulation line being connected at a first tapping point to the supply line, and a second end of the circulation line being connected at a second tapping point to the supply line, the second tapping point being situated downstream of the first tapping point when considering the direction of circulation of the fuel in the supply line, characterized in that the heat exchanger system comprises leak-detection means (30, 130) configured to detect a leak of the fluid out of the circulation line (21, 121), a control unit (31, 131) connected to the leak-detection means (30, 130), and a variable-opening valve (32, 132) mounted on the circulation line (21, 121) and controlled to open and close by the control unit (31, 131).
A power feeding device comprising: a power transmitting section which transmits electric power by way of a magnetic field; a set of first and second electrodes which are spaced from each other; a power supply which applies a voltage between said first and second electrodes; characterised by a detecting circuit which detects whether foreign matter is present on said power transmitting section or not using the voltage applied by said power supply. a power transmitting section which transmits electric power by way of a magnetic field; a set of first and second electrodes which are spaced from each other; a power supply which applies a voltage between said first and second electrodes; characterised by a detecting circuit which detects whether foreign matter is present on said power transmitting section or not using the voltage applied by said power supply.
A multi-layered urine capture device to be positioned adjacent a urethra of a female user, the multi-layered urine capture device comprising: a reservoir layer defining a volume for receiving and storing urine discharged from a user; a fluid impermeable layer having an inner surface and defining a bottom surface of the multi-layered urine capture device; and characterised in that one or more electrical traces (132,134) are adhered, molded, or affixed to the inner surface of the fluid impermeable layer, said traces being suitable to connect a sensor within the device to an ancillary system configured to receive information from the sensor; and an outlet configured to receive wiring operably coupled to the one or more electrical traces (132,134). a reservoir layer defining a volume for receiving and storing urine discharged from a user; a fluid impermeable layer having an inner surface and defining a bottom surface of the multi-layered urine capture device; and characterised in that one or more electrical traces (132,134) are adhered, molded, or affixed to the inner surface of the fluid impermeable layer, said traces being suitable to connect a sensor within the device to an ancillary system configured to receive information from the sensor; and an outlet configured to receive wiring operably coupled to the one or more electrical traces (132,134).