mhurhangee/ep-ind-claims huggingface dataset:
A downlink information receiving method, comprising: receiving, by a user equipment, a first data packet, wherein the first data packet carries identity-related information of at least one user equipment; determining, by the user equipment, whether the first data packet carries identity-related information of the user equipment; and only when it is determined that the first data packet carries identity-related information of the user equipment, Z receiving, by the: user equipment, a second data packet according to a determining result, and obtaining, according to the second data packet, first downlink information corresponding to the: user equipment; wherein the second data packet carries downlink information of the at least one user equipment, and the downlink information in the second data packet is in a one-to-one correspondence with the identity-related information of the user equipment in the first data packet; wherein the downlink information is downlink control information, DCI, and the first data packet is a first portion of a complete DCI burst, and the second data packet is a second portion of the complete DCI burst. receiving, by a user equipment, a first data packet, wherein the first data packet carries identity-related information of at least one user equipment; determining, by the user equipment, whether the first data packet carries identity-related information of the user equipment; and only when it is determined that the first data packet carries identity-related information of the user equipment, Z receiving, by the: user equipment, a second data packet according to a determining result, and obtaining, according to the second data packet, first downlink information corresponding to the: user equipment; wherein the second data packet carries downlink information of the at least one user equipment, and the downlink information in the second data packet is in a one-to-one correspondence with the identity-related information of the user equipment in the first data packet; wherein the downlink information is downlink control information, DCI, and the first data packet is a first portion of a complete DCI burst, and the second data packet is a second portion of the complete DCI burst.
A computer-implemented method for providing an image-dependent brightness control based on a peak luminance adjustment parameter to reduce brightness in bright image portions relatively stronger than in dark image portions, the method comprising: receiving an input image having an image dynamic range; receiving a minimum display luminance value and a maximum display luminance value defining a display dynamic range of a target display; generating a first adjusted luminance value for the target display based on the peak luminance adjustment parameter and the maximum display luminance value, wherein the first adjusted luminance value is lower than the maximum display luminance value; generating a tone-mapped image with a tone-mapping function and the input image, wherein the tone-mapping function maps the image dynamic range to range between the minimum display luminance value and the first adjusted luminance value; and generating an output image for the target display based on the tone-mapped image; wherein generating the first adjusted luminance value ( Tmax Adj 1) comprises computing Tmax Adj 1 = Tmax ∗ 1 2 β, wherein Tmax denotes the maximum display luminance value and β denotes the peak luminance adjustment parameter. receiving an input image having an image dynamic range; receiving a minimum display luminance value and a maximum display luminance value defining a display dynamic range of a target display; generating a first adjusted luminance value for the target display based on the peak luminance adjustment parameter and the maximum display luminance value, wherein the first adjusted luminance value is lower than the maximum display luminance value; generating a tone-mapped image with a tone-mapping function and the input image, wherein the tone-mapping function maps the image dynamic range to range between the minimum display luminance value and the first adjusted luminance value; and generating an output image for the target display based on the tone-mapped image; wherein generating the first adjusted luminance value ( Tmax Adj 1) comprises computing Tmax Adj 1 = Tmax ∗ 1 2 β, wherein Tmax denotes the maximum display luminance value and β denotes the peak luminance adjustment parameter.
A process for the production of THF and 1,4-BDO from furan in the presence of a catalytic composition, wherein the catalytic composition contains at least one metal selected from the group consisting of Fe, Ru, Os, Co, Rh, Ir, Ni, Pd, Pt and, optionally, contains one or more additional metal on a solid support, and wherein said process comprises the steps of: i) contacting furan with hydrogen and water in a reactor in the presence of said catalytic composition for a time; ii) stopping the flow of furan and the flow of water to the reactor and removing furan and water from the reactor; iii) subjecting the catalytic composition to a gas stream comprising hydrogen at a temperature of from 250 to 600°C in the absence of the furan and water; iv) re-starting the flow of furan and the flow of water to the reactor. i) contacting furan with hydrogen and water in a reactor in the presence of said catalytic composition for a time; ii) stopping the flow of furan and the flow of water to the reactor and removing furan and water from the reactor; iii) subjecting the catalytic composition to a gas stream comprising hydrogen at a temperature of from 250 to 600°C in the absence of the furan and water; iv) re-starting the flow of furan and the flow of water to the reactor.
A rotor blade for a wind turbine comprising a suction-side shell and a pressure-side shell that are produced from a fiber composite, wherein a front edge of the suction-side shell and a front edge of the pressure-side shell are connected to each other at a profiled front side of the rotor blade, characterized in that the front edge of the suction-side shell, and/or the front edge of the pressure-side shell are provided with a chamfer (36, 38), at least sectionally, in particular on one side, wherein the fiber composite is produced from layered fiber fabrics or fiber mats that, viewed in a cross sectional plane perpendicular to a longitudinal direction of the rotor blade, form a number of stacked fiber layers, wherein in an end region (40, 42) established by the chamfer (36, 38), a wall thickness (44, 46) of the suction-side shell, and/or the pressure-side shell, is less in the direction of the front edge (32, 34), and a number of the stacked fiber layers decreases in this direction.
A liquid discharge head comprising: a head body comprising a discharge hole configured to discharge a liquid; a plurality of driver ICs configured to control drive of the head body; a wiring board comprising a plurality of connectors; and a flexible substrate at which the plurality of driver ICs are mounted, the flexible substrate being electrically connected to the head body and comprising: a plurality of protruding portions configured to protrude in a same direction and each including a tip portion to be inserted into a corresponding one of the plurality of connectors; and a slit formed between adjacent protruding portions of the plurality of protruding portions and extending up to a region between the driver ICs adjacent to each other, characterised in that a tip portion of the slit has a rounded shape, and a wiring layer of the flexible substrate extends and is in contact with an imaginary circle concentric with a rounded shape formed at the tip portion of the slit. a head body comprising a discharge hole configured to discharge a liquid; a plurality of driver ICs configured to control drive of the head body; a wiring board comprising a plurality of connectors; and a flexible substrate at which the plurality of driver ICs are mounted, the flexible substrate being electrically connected to the head body and comprising: a plurality of protruding portions configured to protrude in a same direction and each including a tip portion to be inserted into a corresponding one of the plurality of connectors; and a slit formed between adjacent protruding portions of the plurality of protruding portions and extending up to a region between the driver ICs adjacent to each other, characterised in that a tip portion of the slit has a rounded shape, and a wiring layer of the flexible substrate extends and is in contact with an imaginary circle concentric with a rounded shape formed at the tip portion of the slit. a plurality of protruding portions configured to protrude in a same direction and each including a tip portion to be inserted into a corresponding one of the plurality of connectors; and a slit formed between adjacent protruding portions of the plurality of protruding portions and extending up to a region between the driver ICs adjacent to each other, characterised in that a tip portion of the slit has a rounded shape, and a wiring layer of the flexible substrate extends and is in contact with an imaginary circle concentric with a rounded shape formed at the tip portion of the slit.
A reagent for use in repairing biological damage or hemostasis, comprising: a natural biological macromolecule modified with a light-responsive crosslinking group; a natural biological macromolecule modified with phototriggered o-nitrobenzyl groups; and a photoinitiator and /or deionized water, wherein the light-responsive crosslinking group is methacrylamide, methacrylic anhydride or methyl maleic anhydride, or a mixture of them. a natural biological macromolecule modified with a light-responsive crosslinking group; a natural biological macromolecule modified with phototriggered o-nitrobenzyl groups; and a photoinitiator and /or deionized water, wherein the light-responsive crosslinking group is methacrylamide, methacrylic anhydride or methyl maleic anhydride, or a mixture of them.
A cushion comprising a first material and a second material, and formed into a first region and a second region, in which: the first region defines a first exterior surface shaped to fit the concha of a human ear, the second region defines a second exterior surface shaped to enter the ear canal of a human ear, the first region defines a first void in the cushion, the first void defining a further surface of the cushion shaped to couple the cushion to elements of an earphone and the second region defines a second void in the cushion configured so that a nozzle of the earphone can extend into the second void, the first material occupies a first volume of the cushion adjacent to the further surface shaped to couple the cushion to elements of an earphone, characterised in that the second material occupies a second volume of the cushion extending from the first volume to the first and second exterior surfaces, and the hardness of the first material is larger than the hardness of the second material. the first region defines a first exterior surface shaped to fit the concha of a human ear, the second region defines a second exterior surface shaped to enter the ear canal of a human ear, the first region defines a first void in the cushion, the first void defining a further surface of the cushion shaped to couple the cushion to elements of an earphone and the second region defines a second void in the cushion configured so that a nozzle of the earphone can extend into the second void, the first material occupies a first volume of the cushion adjacent to the further surface shaped to couple the cushion to elements of an earphone, characterised in that the second material occupies a second volume of the cushion extending from the first volume to the first and second exterior surfaces, and the hardness of the first material is larger than the hardness of the second material.
A lateral flow immunoassay device (10, 110, 210, 310) comprising: - a housing (12, 112, 212, 312) including holding means (34, 134, 234, 334) for holding a test sample collector (32, 132, 232, 332) with a test sample contained within said collector; - an elongated holder member (48, 148, 248, 348) securing at least one immunoassay test strip (50a and 50b, 150a and 150b, 350a and 350b) therein; - a first chamber (22, 122, 222, 322) containing a first, pre-treatment reagent (24, 124, 224, 324); and - contacting means (40 and 42, 142, 242, 340 and 342) for contacting said test sample with said first pre-treatment reagent and allowing said test sample to mix with said first reagent to form a mixture; characterized in that the device further comprises: - a second chamber (26, 126, 226, 326) in said housing containing a second reagent (28a and 28b, 128a and 128b, 228, 328a and 328b) and in fluid communication with said first chamber; - means for introducing (38 and 44, 144a and 144b, 244, 338) said second reagent to said mixture in said second chamber and for allowing said mixture to react with said second reagent for a period of time to form a mixture and second reagent combination, prior to contacting said combination with said at least one immunoassay test strip; and - means for allowing (46, 146, 346) said combination to contact said at least one immunoassay test strip at a test position of said elongated holder member within said housing, by actuating the device to bring said elongated support member into said test position. - a housing (12, 112, 212, 312) including holding means (34, 134, 234, 334) for holding a test sample collector (32, 132, 232, 332) with a test sample contained within said collector; - an elongated holder member (48, 148, 248, 348) securing at least one immunoassay test strip (50a and 50b, 150a and 150b, 350a and 350b) therein; - a first chamber (22, 122, 222, 322) containing a first, pre-treatment reagent (24, 124, 224, 324); and - contacting means (40 and 42, 142, 242, 340 and 342) for contacting said test sample with said first pre-treatment reagent and allowing said test sample to mix with said first reagent to form a mixture; - a second chamber (26, 126, 226, 326) in said housing containing a second reagent (28a and 28b, 128a and 128b, 228, 328a and 328b) and in fluid communication with said first chamber; - means for introducing (38 and 44, 144a and 144b, 244, 338) said second reagent to said mixture in said second chamber and for allowing said mixture to react with said second reagent for a period of time to form a mixture and second reagent combination, prior to contacting said combination with said at least one immunoassay test strip; and - means for allowing (46, 146, 346) said combination to contact said at least one immunoassay test strip at a test position of said elongated holder member within said housing, by actuating the device to bring said elongated support member into said test position.
A radon gas sensor comprising: a diffusion chamber; a photomultiplier positioned inside the diffusion chamber; wherein a scintillating material is provided on at least a part of an inner surface of the diffusion chamber, characterised in that it further comprises: a photodiode positioned inside the diffusion chamber for detecting alpha particles that collide with the photodiode. a diffusion chamber; a photomultiplier positioned inside the diffusion chamber; wherein a scintillating material is provided on at least a part of an inner surface of the diffusion chamber, characterised in that it further comprises: a photodiode positioned inside the diffusion chamber for detecting alpha particles that collide with the photodiode.
Alarm sender system comprising a sending device (100;201) for standardized binary coded radio messages within the scope of a distributed messaging system of AIS (Automatic Identification System) type according to a particular messaging standard for such a distributed messaging system, which sending device comprises means for assembling and periodically broadcasting such messages of at least one predetermined type, wherein a message of said predetermined type is intended, according to the said standard, to carry a certain predetermined type of information, wherein the message of said predetermined type comprises fields for that information as well as at least one buffer field which according to the said standard is not intended to carry any information, wherein the sending device further comprises a message assembly means (132;232) arranged to assemble, digitally store and calculate a checksum for a message of said predetermined type, and a sending means (132;234) arranged to transmit the message in the form of a radio signal (120;220), characterised in that the alarm sender system further comprises a sensing means, arranged to detect a physical event of a particular type, and in that the alarm sender system is arranged to, in response to such a detected physical event, cause information concerning the said event to be sent in the form of a corresponding value for a status variable in the said message, which status variable is not related to the predetermined type of information of the message in question, by causing the message assembly means to insert the value of the status variable in digital form in the said buffer field of the message in question before calculating the checksum, and by thereafter causing the sending means to transmit said message.
A membrane comprising: (a) a core layer comprising a composite of alternating thermoplastic polyurethane and barrier microlayers; (b) optionally, at least one TPU structural layer bonded to the core layer; (c) at least one cap layer bonded to the core layer or structural layer; and (d) optionally, at least one tie layer between the core layer and the cap layer, or between the core layer and the optional structural layer when present, or between the optional structural layer when present and the cap layer, or any combination thereof; wherein at least one of the cap layer, and optionally the core layer, the optional structural layer when present, or both the core layer and the structural layer, comprise a polydiene polyol-based TPU. (a) a core layer comprising a composite of alternating thermoplastic polyurethane and barrier microlayers; (b) optionally, at least one TPU structural layer bonded to the core layer; (c) at least one cap layer bonded to the core layer or structural layer; and (d) optionally, at least one tie layer between the core layer and the cap layer, or between the core layer and the optional structural layer when present, or between the optional structural layer when present and the cap layer, or any combination thereof;
A cleansing composition comprising: (i) 10 - 80 wt% of a surfactant; and, (ii) a complex of an oligodynamic metal with a chemoattractant, wherein zeta potential of the complex is from + 30 mV to - 30 mV and wherein said complex is not in nanoparticulate form; and wherein said chemoattractant is a protein; and wherein majority amount of said surfactant is soap; and wherein the amount of the said oligodynamic metal in said composition is 1 to 50 ppm. (i) 10 - 80 wt% of a surfactant; and, (ii) a complex of an oligodynamic metal with a chemoattractant, wherein zeta potential of the complex is from + 30 mV to - 30 mV and wherein said complex is not in nanoparticulate form; and wherein said chemoattractant is a protein; and wherein majority amount of said surfactant is soap; and wherein the amount of the said oligodynamic metal in said composition is 1 to 50 ppm.
A working device with at least one radio interface for data transmission, wherein the working device is at least designed and configured to move autonomously in a processing environment and to detect at least one signal characteristic of at least one radio network suitable for data transmission at different locations in the processing environment and to generate signal position data by linking with the position data of the respective location, wherein the working device is further designed and configured to determine at least one location in the processing environment which is suitable for data transmission via the radio network using at least one threshold value with respect to the signal characteristic and/or to provide the signal position data for determining at least one location in the processing environment which is suitable for data transmission via the radio network using at least one threshold value with respect to the signal characteristic by means of a data processing device at the radio interface and to receive data relating to at least one determined location, characterized in that the working device is also designed and configured to be used for carrying out work tasks in processing environments in which the radio network does not have sufficient signal strength for a data connection in all areas of the processing environment, in that the working device is furthermore designed and configured to move to a location in the processing environment which is suitable for data transmission when a predetermined event occurs and/or for transmitting - sending or receiving - data with a size which exceeds a predetermined threshold value, and/or in a time-controlled manner.
A method of determining a crop tank filling level in an agricultural harvester, the method comprising: - receiving a first trigger signal from a first crop tank sensor (81, 82), the first trigger signal corresponding to a first crop tank filling level, - after receiving the first trigger signal, estimating a harvesting yield based on a travelled distance and a predetermined average yield parameter, - calculating a current crop tank filling level based on the first crop tank filling level and the estimated harvesting yield, - receiving a second trigger signal from a second crop tank sensor (82, 83), the second trigger signal corresponding to a second crop tank filling level, the second crop tank filling level being different from the first crop tank filling level, and - upon receiving the second trigger signal, calibrating the predetermined average yield parameter based on the calculated current crop tank filling level and the first and second crop tank filling levels. - receiving a first trigger signal from a first crop tank sensor (81, 82), the first trigger signal corresponding to a first crop tank filling level, - after receiving the first trigger signal, estimating a harvesting yield based on a travelled distance and a predetermined average yield parameter, - calculating a current crop tank filling level based on the first crop tank filling level and the estimated harvesting yield, - receiving a second trigger signal from a second crop tank sensor (82, 83), the second trigger signal corresponding to a second crop tank filling level, the second crop tank filling level being different from the first crop tank filling level, and - upon receiving the second trigger signal, calibrating the predetermined average yield parameter based on the calculated current crop tank filling level and the first and second crop tank filling levels.