mhurhangee/ep-ind-claims huggingface dataset:
A multi-tube nozzle for use in eradicating harmful aquatic organisms, comprising at least three nozzle tubes that are provided adjacent to each other, the nozzle tubes each comprising: an inlet-side opening section having an inner diameter that decreases from an inlet opening toward a throat section located in the middle of the tube; an outlet-side opening section having an inner diameter that increases from the throat section toward an outlet opening; and the throat section having a smallest inner diameter, characterized in that: the adjacent nozzle tubes are spaced apart by a distance such that the adjacent inlet-side opening sections overlap each other, a wall of an overlapping portion of the inlet-side opening sections is cut in a U shape, and an uncut portion between the adjacent U-shaped cut portions forms a sword-like pointed tip. the adjacent nozzle tubes are spaced apart by a distance such that the adjacent inlet-side opening sections overlap each other, a wall of an overlapping portion of the inlet-side opening sections is cut in a U shape, and an uncut portion between the adjacent U-shaped cut portions forms a sword-like pointed tip.
A battery heating circuit, comprising a switch unit, a switching control module, a damping element R1, an energy storage circuit, and an energy superposition and transfer unit, wherein, the energy storage circuit is connected with the battery, and comprises a current storage element L1 and a charge storage element C1; characterised in that the damping element R1, switch unit, current storage element L1, and charge storage element C1 are connected in series; the switching control module is connected with the switch unit, and is designed to control ON/OFF of the switch unit, so as to control the energy flowing between the battery and the energy storage circuit; the energy superposition and transfer unit is connected with the energy storage circuit, and is designed to transfer the energy in the energy storage circuit to an energy storage element after the switch unit switches on and then switches off, and then superpose the remaining energy in the energy storage circuit with the energy in the battery.
A system for compensation of a drive over reader tire pressure measurement, the system including: a drive over reader including a sensor array; a pressure indication that can be determined for each tire in a group of tires by the drive over reader; a recommended cold pressure for the tires; characterized in that the system further includes an adjusted recommended pressure for the tires, the adjusted recommended pressure having been determined from the pressure indication and the recommended cold pressure, the adjusted recommended pressure accounting for temperature effects on the tires; an adjusted low pressure threshold set at a predetermined level below the adjusted recommended pressure; and that the system is configured to generate a notice by the drive over reader for each tire that includes a pressure indication below the adjusted low pressure threshold. a drive over reader including a sensor array; a pressure indication that can be determined for each tire in a group of tires by the drive over reader; a recommended cold pressure for the tires; characterized in that the system further includes an adjusted recommended pressure for the tires, the adjusted recommended pressure having been determined from the pressure indication and the recommended cold pressure, the adjusted recommended pressure accounting for temperature effects on the tires; an adjusted low pressure threshold set at a predetermined level below the adjusted recommended pressure; and that the system is configured to generate a notice by the drive over reader for each tire that includes a pressure indication below the adjusted low pressure threshold.
An optical sensor system for determining the height of the liquid level in a receptacle in a device for the treatment of liquids with - at least one device for the projecting (9, 10, 11) of light in the direction of an optical axis onto at least one illumination area in the receptacle, - an adjustment device for adjusting the relative position of the at least one illumination area and a liquid level in a direction diagonal to the optical axis, - an adjustment device for adjusting the relative position of the at least one illumination area and the liquid level in the direction of the optical axis, - a control device for controlling the adjustment devices so that they simultaneously adjust the relative position of the at least one illumination area and the boundary surface diagonal to the optical axis and in the direction of the optical axis, wherein - at least one apparatus for the imaging of the at least one illumination area during the adjustment of the relative position of at least one photodetector and - an evaluation device connected with the at least one photodetector for evaluating the at least one measurement signal are provided, characterised in that - the adjustment device is designed to simultaneously adjust the relative positions of the at least one illumination area and the liquid level in the direction diagonal to the optical axis and in the direction of the optical axis, and - for determining the optimal reflection point the control device is a control device for controlling the displacement of the at least one illumination area diagonal to the optical axis along a spiral and/or cycloid and/or circular and/or zigzag path. - at least one device for the projecting (9, 10, 11) of light in the direction of an optical axis onto at least one illumination area in the receptacle, - an adjustment device for adjusting the relative position of the at least one illumination area and a liquid level in a direction diagonal to the optical axis, - an adjustment device for adjusting the relative position of the at least one illumination area and the liquid level in the direction of the optical axis, - a control device for controlling the adjustment devices so that they simultaneously adjust the relative position of the at least one illumination area and the boundary surface diagonal to the optical axis and in the direction of the optical axis, wherein - at least one apparatus for the imaging of the at least one illumination area during the adjustment of the relative position of at least one photodetector and - an evaluation device connected with the at least one photodetector for evaluating the at least one measurement signal are provided, characterised in that - the adjustment device is designed to simultaneously adjust the relative positions of the at least one illumination area and the liquid level in the direction diagonal to the optical axis and in the direction of the optical axis, and - for determining the optimal reflection point the control device is a control device for controlling the displacement of the at least one illumination area diagonal to the optical axis along a spiral and/or cycloid and/or circular and/or zigzag path.
A device attachable to an individual, comprising: a sensor (110; 220) configured to make one or more ultrasonic measurements of the individual's blood pressure; a drug-delivery device configured to dispense a drug in response to the measured blood pressure; and a processing circuit (130; 216) configured to process blood pressure data and other data, the processing circuit including a memory to store one or more measured blood pressure values and a microprocessor programmed to execute drug dispensing instructions based on blood pressure values; wherein the sensor, the drug-delivery device and the processing circuit are integrated as a unit attachable to the individual. a sensor (110; 220) configured to make one or more ultrasonic measurements of the individual's blood pressure; a drug-delivery device configured to dispense a drug in response to the measured blood pressure; and a processing circuit (130; 216) configured to process blood pressure data and other data, the processing circuit including a memory to store one or more measured blood pressure values and a microprocessor programmed to execute drug dispensing instructions based on blood pressure values; wherein the sensor, the drug-delivery device and the processing circuit are integrated as a unit attachable to the individual.
A method for detecting the activity of at least one peroxidase enzyme in a sample comprising: a) preparing a mixture consisting essentially of the sample and: i. at least one amine-containing compound; and ii. at least one electron-donating compound; b) incubating the mixture to form at least one Raman-active product; and c) detecting the at least one Raman-active product with Raman spectroscopy wherein the amine-containing compound(s) are chosen from 4-aminoantipyrene, 5-aminosalicylic acid; or: wherein X is chosen from H, NH 2, Cl, Br, nitro, and benzyl, Y is chosen from H, Cl, Br, and nitro, and Z is chosen from H, benzyl, and NH 2; or: wherein X is chosen from H, OH, Cl, Br, and nitro; or: wherein X is selected from H, Br, Cl, and nitro; or: wherein X, Y, and Z are chosen from H and NH 2; and wherein the electron-donating compound(s) are chosen from an organic hydrogen peroxide, urea hydrogen peroxide, and hydrogen peroxide (H 2 O 2). a) preparing a mixture consisting essentially of the sample and: i. at least one amine-containing compound; and ii. at least one electron-donating compound; i. at least one amine-containing compound; and ii. at least one electron-donating compound; b) incubating the mixture to form at least one Raman-active product; and c) detecting the at least one Raman-active product with Raman spectroscopy wherein the amine-containing compound(s) are chosen from 4-aminoantipyrene, 5-aminosalicylic acid; or:
A camera module comprising: a substrate on which a plurality of image sensors (110, 120, 130, 140) are mounted; and a plurality of lens units (210, 220, 230, 240) respectively mounted on the plurality of image sensors (110, 120, 130, 140), the camera module characterized by a ground line formed on the substrate area distanced from each of the image sensors (110, 120, 130, 140), where a shield can disposed with windows configured to pass an optical image of an object to the plurality of lens units (210, 220, 230, 240) is fixed to the substrate, and the shield can is brought into contact with the ground line to provide an EMC shielding function, wherein a blocking member configured to block spill light is interposed between inner walls of the windows (301, 302, 303, 304) of the shield can and the lens units (210, 220, 230, 240), wherein the shield can encloses the whole lens units (210, 220, 230, 240), and wherein the shield can holds the plurality of lens units (210, 220, 230, 240) by means of the blocking member interposed between the shield can and the plurality of lens units (210, 220, 230, 240). a substrate on which a plurality of image sensors (110, 120, 130, 140) are mounted; and a plurality of lens units (210, 220, 230, 240) respectively mounted on the plurality of image sensors (110, 120, 130, 140), the camera module characterized by a ground line formed on the substrate area distanced from each of the image sensors (110, 120, 130, 140), where a shield can disposed with windows configured to pass an optical image of an object to the plurality of lens units (210, 220, 230, 240) is fixed to the substrate, and the shield can is brought into contact with the ground line to provide an EMC shielding function, wherein a blocking member configured to block spill light is interposed between inner walls of the windows (301, 302, 303, 304) of the shield can and the lens units (210, 220, 230, 240), wherein the shield can encloses the whole lens units (210, 220, 230, 240), and wherein the shield can holds the plurality of lens units (210, 220, 230, 240) by means of the blocking member interposed between the shield can and the plurality of lens units (210, 220, 230, 240).
An information processing device comprising: a collection unit configured to collect each piece of reception information of a plurality of base stations (200, 201) that receives an uplink frame from a terminal (100, 101); and a processing unit configured to process cooperative transmission of a downlink frame from the plurality of base stations to the terminal on a basis of the reception information, characterized in that the collection unit is further configured to collect the reception information in which a detection timing, reception power, a detection frequency, and a reception result of each received uplink frame of each of the plurality of base stations are described. a collection unit configured to collect each piece of reception information of a plurality of base stations (200, 201) that receives an uplink frame from a terminal (100, 101); and a processing unit configured to process cooperative transmission of a downlink frame from the plurality of base stations to the terminal on a basis of the reception information, characterized in that the collection unit is further configured to collect the reception information in which a detection timing, reception power, a detection frequency, and a reception result of each received uplink frame of each of the plurality of base stations are described.
An image capturing device which includes a single optical pickup system and an imaging element that has a first pixel group and a second pixel group respectively performing photoelectric conversion on light fluxes passing through different regions of the single optical pickup system, and is capable of performing stereoscopic pickup used to generate a stereoscopic image composed of a first image and a second image from the first pixel group and the second pixel group, and plane pickup used to acquire a planar image having the first image and the second image by imaging a same scene using the first pixel group and the second pixel group, the image capturing device characterized by: a light extinction unit that is capable of reducing an amount of light which is incident to the imaging element from the single optical pickup system; a diaphragm that is arranged in a light path which the light fluxes irradiated to the image sensor passes through; a subject brightness acquisition unit that acquires subject brightness; and a control unit that, in a case of the stereoscopic pickup, controls whether or not to reduce the amount of light which reaches the imaging element using the light extinction unit based on the subject brightness acquired using the subject brightness acquisition unit, and that, in a case of the plane pickup, causes a diaphragm value of the diaphragm to be greater than a diaphragm value in the case of the stereoscopic pickup. a light extinction unit that is capable of reducing an amount of light which is incident to the imaging element from the single optical pickup system; a diaphragm that is arranged in a light path which the light fluxes irradiated to the image sensor passes through; a subject brightness acquisition unit that acquires subject brightness; and a control unit that, in a case of the stereoscopic pickup, controls whether or not to reduce the amount of light which reaches the imaging element using the light extinction unit based on the subject brightness acquired using the subject brightness acquisition unit, and that, in a case of the plane pickup, causes a diaphragm value of the diaphragm to be greater than a diaphragm value in the case of the stereoscopic pickup.
A nonwoven fabric comprising: a first layer comprising hydrophilic spunbond fibers including a hydrophilic melt additive which is non-migratory to the other layers of this fabric and which is included at a percent addition of 2.5 to 6%, the first layer forming at least one exposed outer surface of the nonwoven fabric; a second layer comprising hydrophobic spunbond fibers, the second layer forming an opposite exposed outer surface of the nonwoven fabric; and a third layer comprising meltblown fibers interposed between the first and second layers, the third layer further comprising a hydrophobic melt additive, which is included at a percent addition of 5 to 10%; wherein the nonwoven fabric has an absorptive capacity of 100% to 500% and a hydrostatic head of at least 30 mbar when challenged from the hydrophilic outer surface. a first layer comprising hydrophilic spunbond fibers including a hydrophilic melt additive which is non-migratory to the other layers of this fabric and which is included at a percent addition of 2.5 to 6%, the first layer forming at least one exposed outer surface of the nonwoven fabric; a second layer comprising hydrophobic spunbond fibers, the second layer forming an opposite exposed outer surface of the nonwoven fabric; and a third layer comprising meltblown fibers interposed between the first and second layers, the third layer further comprising a hydrophobic melt additive, which is included at a percent addition of 5 to 10%; wherein the nonwoven fabric has an absorptive capacity of 100% to 500% and a hydrostatic head of at least 30 mbar when challenged from the hydrophilic outer surface.
A method performed by a communication device, the method comprising: scanning, by a transceiver of the communication device, for one or more cells within communication range of the communication device, the transceiver supporting a maximum transmit power; determining an uplink transmit power limit of the transceiver associated with each one of the one or more cells, the uplink transmit power limit based, at least in part, on the maximum transmit power; determining, based on a proximity of a target, whether a local constraint is applicable to the communication device, each local constraint requiring uplink transmit power to be less than the maximum transmit power, and each local constraint representing a graduated degree of local constraint that corresponds to a specific degree of proximity of the target and that is associated with a different uplink transmit power limit; in response to determining that the local constraint is applicable, cutting back the uplink transmit power limit to the uplink transmit power limit associated with the applicable local constraint; prioritizing selection of the one or more cells for connecting to the communication device, based at least in part on the respective uplink transmit power limit, by giving highest priority to a prioritized cell having the lowest cut back; and connecting to the prioritized cell among the one or more cells;. scanning, by a transceiver of the communication device, for one or more cells within communication range of the communication device, the transceiver supporting a maximum transmit power; determining an uplink transmit power limit of the transceiver associated with each one of the one or more cells, the uplink transmit power limit based, at least in part, on the maximum transmit power; determining, based on a proximity of a target, whether a local constraint is applicable to the communication device, each local constraint requiring uplink transmit power to be less than the maximum transmit power, and each local constraint representing a graduated degree of local constraint that corresponds to a specific degree of proximity of the target and that is associated with a different uplink transmit power limit; in response to determining that the local constraint is applicable, cutting back the uplink transmit power limit to the uplink transmit power limit associated with the applicable local constraint; prioritizing selection of the one or more cells for connecting to the communication device, based at least in part on the respective uplink transmit power limit, by giving highest priority to a prioritized cell having the lowest cut back; and connecting to the prioritized cell among the one or more cells;.
A polypeptide which: a) has maltogenic alpha-amylase activity; b) has at least 70 % identity to SEQ ID NO: 1; c) comprises an amino acid modification compared to SEQ ID NO: 1 at a position corresponding to residue D261; and d) has improved thermostability compared to the polypeptide of SEQ ID NO: 1. a) has maltogenic alpha-amylase activity; b) has at least 70 % identity to SEQ ID NO: 1; c) comprises an amino acid modification compared to SEQ ID NO: 1 at a position corresponding to residue D261; and d) has improved thermostability compared to the polypeptide of SEQ ID NO: 1.
A vehicle image display apparatus comprising: a synthesizing device that is configured to synthesize a rear image and a rear side image (112BL, 112BR) to generate a synthesized image, wherein the rear image is captured by a rear imaging device that is configured to image a rear area located at the rear of a vehicle and the rear side image is captured by a rear side imaging device (11BL, 11BR) that is configured to image a rear side area located at the rear and the side of the vehicle; and a displaying device that is configured to display the synthesized image, characterized in that the synthesizing device being configured to generate the synthesized image so that the synthesized image generated when the vehicle goes in reverse includes a first scene that is below, viewed from the vehicle, a second scene that is included in the synthesized image generated when the vehicle does not go in reverse. a synthesizing device that is configured to synthesize a rear image and a rear side image (112BL, 112BR) to generate a synthesized image, wherein the rear image is captured by a rear imaging device that is configured to image a rear area located at the rear of a vehicle and the rear side image is captured by a rear side imaging device (11BL, 11BR) that is configured to image a rear side area located at the rear and the side of the vehicle; and a displaying device that is configured to display the synthesized image, characterized in that the synthesizing device being configured to generate the synthesized image so that the synthesized image generated when the vehicle goes in reverse includes a first scene that is below, viewed from the vehicle, a second scene that is included in the synthesized image generated when the vehicle does not go in reverse.
A method for displaying a moveable lighting scene in passenger cabin, the method comprising: polling each of a plurality of sensors (118, 120, 122) for data; receiving a signal from one of the plurality of sensors (118, 120, 122); determining the location of a cart within the passenger cabin based on the signal; and transmitting signals to control lighting within the passenger cabin based on the determined location. polling each of a plurality of sensors (118, 120, 122) for data; receiving a signal from one of the plurality of sensors (118, 120, 122); determining the location of a cart within the passenger cabin based on the signal; and transmitting signals to control lighting within the passenger cabin based on the determined location.