mhurhangee/ep-ind-claims huggingface dataset:
A communication method, comprising: determining, by a radio access network device based on first information and second information, a quantity of paging cycles comprised in a paging cycle group and a sending location of paging information in the paging cycle group, wherein the paging cycle group comprises at least one paging cycle, and different paging occasions in the paging cycle group serve different terminal devices, wherein the first information is used to indicate a peak quantity of paging messages from a core network device and paging messages generated by the radio access network device within specified time; and the second information is used to indicate a paging capability of the radio access network device; and sending, by the radio access network device, the paging information at the sending location. determining, by a radio access network device based on first information and second information, a quantity of paging cycles comprised in a paging cycle group and a sending location of paging information in the paging cycle group, wherein the paging cycle group comprises at least one paging cycle, and different paging occasions in the paging cycle group serve different terminal devices, wherein the first information is used to indicate a peak quantity of paging messages from a core network device and paging messages generated by the radio access network device within specified time; and the second information is used to indicate a paging capability of the radio access network device; and sending, by the radio access network device, the paging information at the sending location.
A method for conveying messages between a first software application in a first container and a second software application in a second container, comprising the steps of: • receiving, by a first connectivity service associated with the first container, an ordered sequence of messages sent by the first application; • transmitting, by the first connectivity service, at least two copies (4a-4c) of each message to a second connectivity service associated with the second container, wherein the at least two copies (4a-4c) are routed on at least partially redundant paths and wherein each copy (4a-4c) is indicative of the position of the original message in the original ordered sequence; and • forwarding, by the second connectivity service, at least one copy (4a-4c) of each message to the second application, in the order given by the original ordered sequence. • receiving, by a first connectivity service associated with the first container, an ordered sequence of messages sent by the first application; • transmitting, by the first connectivity service, at least two copies (4a-4c) of each message to a second connectivity service associated with the second container, wherein the at least two copies (4a-4c) are routed on at least partially redundant paths and wherein each copy (4a-4c) is indicative of the position of the original message in the original ordered sequence; and • forwarding, by the second connectivity service, at least one copy (4a-4c) of each message to the second application, in the order given by the original ordered sequence.
A method for producing a multispecific binder comprising at least two binding entities comprising the step of - cultivating a HEK cell comprising a) a nucleic acid encoding a soluble S. aureus sortase A with a C-terminal endoplasmic reticulum retention signal, b) a nucleic acid encoding a first binding entity comprising at its C-terminus a sortase motif followed by an endoplasmic reticulum retention signal, and c) a nucleic acid encoding a second binding entity comprising at its N-terminus at least a diglycine, whereby the HEK cell secretes the sortase A conjugate of the first binding entity and the second binding entity, whereby the first binding entity specifically binds to a first antigen or target and the second binding entity specifically binds to a second antigen or target, thereby producing a multispecific binder comprising at least two binding entities. - cultivating a HEK cell comprising a) a nucleic acid encoding a soluble S. aureus sortase A with a C-terminal endoplasmic reticulum retention signal, b) a nucleic acid encoding a first binding entity comprising at its C-terminus a sortase motif followed by an endoplasmic reticulum retention signal, and c) a nucleic acid encoding a second binding entity comprising at its N-terminus at least a diglycine, a) a nucleic acid encoding a soluble S. aureus sortase A with a C-terminal endoplasmic reticulum retention signal, b) a nucleic acid encoding a first binding entity comprising at its C-terminus a sortase motif followed by an endoplasmic reticulum retention signal, and c) a nucleic acid encoding a second binding entity comprising at its N-terminus at least a diglycine,
An electrode comprising a metal wire and a metal coil, wherein the metal wire is arranged inside the metal coil and wherein the metal wire and the metal coil are in electrical contact, the metal coil having a plurality of turns forming an elongated coil body with a central channel along the central axis of the metal coil, wherein turns of the metal coil are separated by a gap, wherein the metal wire extends longitudinally inside the central channel, the metal wire extending through the entire coil from one end of the metal coil to the other end of the metal coil along the central axis of the metal coil, and wherein the metal coil and the metal wire are covered with a nanoporous structure comprising nickel.
A method for providing optotypes for a visual acuity determination for the distance, with the steps: - Providing a subject position for a subject, - Providing a presentation surface at a presentation position, - Detecting an individual test distance between the subject position and the presentation position, - Determining an individual target value for optotypes, which are tuned to the detected individual test distance according to a predetermined rule, - Providing digital optotype image data containing optotypes, which are scaled on the individual target size, and - Displaying the digital optotype image data on the display surface; characterized in that by means of a recording device, a digital test image is recorded, which is evaluated for detecting the individual test distance, comprising the steps: - Arranging a calibration object such that the calibration object is spaced from the recording device at the individual test distance, - Recording the test image such that the test image contains a recording of the calibration object, which is arranged in the individual test distance, and - Calculating and determining the individual test distance from the size of a distance of at least two prominent object points of the calibration object in the digital test image. - Providing a subject position for a subject, - Providing a presentation surface at a presentation position, - Detecting an individual test distance between the subject position and the presentation position, - Determining an individual target value for optotypes, which are tuned to the detected individual test distance according to a predetermined rule, - Providing digital optotype image data containing optotypes, which are scaled on the individual target size, and - Displaying the digital optotype image data on the display surface; - Arranging a calibration object such that the calibration object is spaced from the recording device at the individual test distance, - Recording the test image such that the test image contains a recording of the calibration object, which is arranged in the individual test distance, and - Calculating and determining the individual test distance from the size of a distance of at least two prominent object points of the calibration object in the digital test image.
A compound comprising SEQ ID NO:333 and variants thereof wherein each cysteine residue is replaced with an amino acid having a side chain containing a hydroxyl, thiol, amine, carboxylic acid or sulfonic acid moiety that can be used to cyclize the compound.
A method comprising: engrafting a second mouse with human hematopoietic cells isolated from a genetically modified first mouse, wherein the genetically modified first mouse is null for a RAG2 gene and null for the mouse interleukin 2 receptor gamma (IL-2Rg) gene, wherein the genetically modified first mouse comprises an engraftment of human hematopoietic cells and a replacement of each allele of the mouse thrombopoietin gene with a human TPO gene at the mouse TPO gene locus, and wherein the second mouse is null for a RAG2 gene and null for the mouse IL-2Rg gene.
A patch comprising: a backing, and an adhesive layer laminated on one side of the backing; wherein the adhesive layer comprises asenapine or a pharmaceutically acceptable salt thereof, an adhesive base and a low molecular weight amine, wherein the low molecular weight amine is one or more selected from the group consisting of monoethanolamine, diethanolamine, triethanolamine, isopropanolamine and diisopropanolamine, wherein the adhesive base is a rubber adhesive base. a backing, and an adhesive layer laminated on one side of the backing; wherein the adhesive layer comprises asenapine or a pharmaceutically acceptable salt thereof, an adhesive base and a low molecular weight amine, wherein the low molecular weight amine is one or more selected from the group consisting of monoethanolamine, diethanolamine, triethanolamine, isopropanolamine and diisopropanolamine, wherein the adhesive base is a rubber adhesive base.
A method for producing a hollow body glass product, comprising the steps of: - providing a hollow glass body having an outer surface; - forming the hollow body glass product so as to have a first end portion and a second end portion, the first end portion being sealed by a first bottom and the second end portion being sealed by a second bottom; - laser-based irradiating of the hollow glass body with focused laser radiation to produce a plurality of spaced apart filamentary defects in a predetermined arrangement in the outer surface of at least the first end portion, with at least part of the filamentary defects defining a plurality of open passages connecting the interior of the hollow glass body to the outer surface thereof, wherein the diameter of the passages is set to be between more than 0 and less than 50 micrometres, and wherein a plurality of the open passages provide gaseous communication to the interior. - providing a hollow glass body having an outer surface; - forming the hollow body glass product so as to have a first end portion and a second end portion, the first end portion being sealed by a first bottom and the second end portion being sealed by a second bottom; - laser-based irradiating of the hollow glass body with focused laser radiation to produce a plurality of spaced apart filamentary defects in a predetermined arrangement in the outer surface of at least the first end portion, with at least part of the filamentary defects defining a plurality of open passages connecting the interior of the hollow glass body to the outer surface thereof, wherein the diameter of the passages is set to be between more than 0 and less than 50 micrometres, and wherein a plurality of the open passages provide gaseous communication to the interior.
A positive electrode composition for nonaqueous electrolyte secondary battery comprising: a lithium transition metal complex oxide represented by a general formula Li a Ni 1-x-y Co x M 1 y W z M 2 w O 2, wherein 1.0≤a≤1.5, 0≤x≤0.5, 0≤y≤0.5, 0.002≤z≤0.03, 0≤w≤0.02, 0≤x+y≤0.7, M 1 represents at least one selected from the group consisting of Mn and Al, M 2 represents at least one selected from the group consisting of Zr, Ti, Mg, Ta, Nb and Mo; and a raw material compound of a boron compound, wherein at least a portion of the lithium transition metal complex oxide and the raw material compound of the boron compound form a chemical and/or physical bonding by at least mixing the lithium transition metal complex oxide and the raw material compound of the boron compound, wherein the raw material compound of the boron compound is at least one selected from the group consisting of oxo-acids of boron and oxo-acid salts of boron, and wherein a ratio of boron element to the lithium transition metal complex oxide is from 0.5 mol% to 1.5 mol%. a lithium transition metal complex oxide represented by a general formula Li a Ni 1-x-y Co x M 1 y W z M 2 w O 2, wherein 1.0≤a≤1.5, 0≤x≤0.5, 0≤y≤0.5, 0.002≤z≤0.03, 0≤w≤0.02, 0≤x+y≤0.7, M 1 represents at least one selected from the group consisting of Mn and Al, M 2 represents at least one selected from the group consisting of Zr, Ti, Mg, Ta, Nb and Mo; and a raw material compound of a boron compound, wherein at least a portion of the lithium transition metal complex oxide and the raw material compound of the boron compound form a chemical and/or physical bonding by at least mixing the lithium transition metal complex oxide and the raw material compound of the boron compound, wherein the raw material compound of the boron compound is at least one selected from the group consisting of oxo-acids of boron and oxo-acid salts of boron, and wherein a ratio of boron element to the lithium transition metal complex oxide is from 0.5 mol% to 1.5 mol%.
A user equipment, UE, for wireless communication, comprising: a memory; and one or more processors configured to: generate a request to overwrite a communication mode of a symbol in a slot of a communication with a base station based at least in part on interference in communications with the base station on one or more frequency bands used for carrier aggregation, wherein the communication mode is an uplink communication mode, and the request is to overwrite the uplink communication mode of the symbol with a downlink communication mode, or wherein the communication mode is a downlink communication mode, and the request is to overwrite the downlink communication mode of the symbol with an uplink communication mode; and transmit the request to the base station, and communicate with the base station using another communication mode for the symbol in the slot. a memory; and one or more processors configured to: generate a request to overwrite a communication mode of a symbol in a slot of a communication with a base station based at least in part on interference in communications with the base station on one or more frequency bands used for carrier aggregation, wherein the communication mode is an uplink communication mode, and the request is to overwrite the uplink communication mode of the symbol with a downlink communication mode, or wherein the communication mode is a downlink communication mode, and the request is to overwrite the downlink communication mode of the symbol with an uplink communication mode; and transmit the request to the base station, and communicate with the base station using another communication mode for the symbol in the slot. generate a request to overwrite a communication mode of a symbol in a slot of a communication with a base station based at least in part on interference in communications with the base station on one or more frequency bands used for carrier aggregation, wherein the communication mode is an uplink communication mode, and the request is to overwrite the uplink communication mode of the symbol with a downlink communication mode, or wherein the communication mode is a downlink communication mode, and the request is to overwrite the downlink communication mode of the symbol with an uplink communication mode; and wherein the communication mode is an uplink communication mode, and the request is to overwrite the uplink communication mode of the symbol with a downlink communication mode, or wherein the communication mode is a downlink communication mode, and the request is to overwrite the downlink communication mode of the symbol with an uplink communication mode; and transmit the request to the base station, and communicate with the base station using another communication mode for the symbol in the slot.
A method of detecting ovarian cancer in a subject, of screening for early stage ovarian cancer in a subject, or of assessing progression or recurrence of ovarian cancer in a subject, the method including the step of detecting the presence of an ovarian cancer-associated autoantibody in a sample obtained from the subject, wherein the ovarian cancer-associated autoantibody is an autoantibody to ANXA1.
A sintered friction material for a high speed railway vehicle, comprising Cu as a base material in an amount of from 20 to 50% by volume, 1% by volume to 20% by volume of FeCr, 5% by volume to 20% by volume of a metal oxide, and 30% by volume to 60% by volume of a lubricant, optionally comprising at least one of Sn and Zn in an amount of 15% by volume or less, and wherein the metal oxide is MgO, ZrO 2 and Al 2 O 3.
A toy system comprising one or more separate toy elements adapted for placement on a substrate with mutual distance if there are more than one element, each of the separate toy elements comprising an acoustic sound emitter for emitting an individual sound, the toy system further comprising a sound reception means as well as means capable of recognizing the individual sound emitted, characterized by said acoustic sound emitter comprising a mechano-acoustical component for emitting an identifying acoustic signature in response to an event, wherein said identifying acoustic signature comprises several tones with non-harmonically related fundamental frequencies, and said sound reception means being equipped with a microphone and means for analyzing sound picked up by said microphone in order to distinguish said identifying acoustic signature from other sounds in the environment.
A pharmaceutical composition for the treatment of presbyopia, comprising a pharmaceutically acceptable salt of 0.1-10% by weight of lipoic acid choline ester, 0.1-2% by weight of a tonicity adjusting agent, 0.003-0.01% by weight of a preservative, a buffer selected from the group consisting of acetate, borate and acetate/boric acid buffers, 0.05%-1.0% by weight of a biochemical energy source that is alanine, and water.
A method for forecasting available parking spaces, comprising the following steps performed with the aid of a computing unit: - a traffic structure analysis, in which significant cells are selected from cells of a cell matrix based on a static dataset formed by traffic data from a first time period, wherein a forecast with sufficient statistical probability can be prepared for the other cells of the cell matrix based on the significant cells, wherein the selection of the significant cells is carried out based on a principal component analysis of the static dataset or another mathematical dimensionality reduction method; - a calculation in which a statistical parking space situation, in particular a statistical parking space probability is calculated for at least one of the cells of the cell matrix based on a realtime dataset formed by traffic data of the significant cells from a second time period, and - in which a sensor parking space situation, in particular a sensor parking space probability is calculated for at least the one of the cells of the cell matrix based on a sensor dataset formed by sensor data of the cells from a third time period; and - a probability forecast in which a forecast of available parking spaces is carried out for at least the one of the cells of the cell matrix based on the statistical parking space situation, in particular the statistical parking space probability, and the sensor parking space situation, in particular the sensor parking space probability. - a traffic structure analysis, in which significant cells are selected from cells of a cell matrix based on a static dataset formed by traffic data from a first time period, wherein a forecast with sufficient statistical probability can be prepared for the other cells of the cell matrix based on the significant cells, wherein the selection of the significant cells is carried out based on a principal component analysis of the static dataset or another mathematical dimensionality reduction method; - a calculation in which a statistical parking space situation, in particular a statistical parking space probability is calculated for at least one of the cells of the cell matrix based on a realtime dataset formed by traffic data of the significant cells from a second time period, and - in which a sensor parking space situation, in particular a sensor parking space probability is calculated for at least the one of the cells of the cell matrix based on a sensor dataset formed by sensor data of the cells from a third time period; and - a probability forecast in which a forecast of available parking spaces is carried out for at least the one of the cells of the cell matrix based on the statistical parking space situation, in particular the statistical parking space probability, and the sensor parking space situation, in particular the sensor parking space probability.
A method of wireless communication utilizing hybrid automatic repeat request, HARQ, the method comprising: generating (702; 802) a first information block (502; 602) comprising first information bits (504, 506; 604) that comprise a first subset of information bits and a second subset of information bits; encoding (704; 804) the first information block (502; 602) utilizing polar coding to generate a first polar code block; transmitting (706; 806) the first polar code block; receiving a negative acknowledgment, NACK, or receiving no HARQ feedback in response to the first polar code block; generating (710; 810) a second information block (510; 608) for a first HARQ retransmission, the second information block (510; 608) comprising second information bits (506; 610) and third information bits (512; 612), wherein the second information bits (506; 610) comprise the second subset of information bits, and wherein the third information bits (512; 612) comprise first new information bits different from the first information bits (504, 506; 604); encoding (712; 812) the second information block (510; 608) utilizing polar coding to generate a second polar code block; and transmitting (714; 814) the second polar code block, characterized in that the number of bits in the third information bits is selected in accordance with a target block error rate, BLER, and the sum of the number of bits in the second information bits and the number of bits in the third information bits is equal to the number of bits in the first subset of information bits. generating (702; 802) a first information block (502; 602) comprising first information bits (504, 506; 604) that comprise a first subset of information bits and a second subset of information bits; encoding (704; 804) the first information block (502; 602) utilizing polar coding to generate a first polar code block; transmitting (706; 806) the first polar code block; receiving a negative acknowledgment, NACK, or receiving no HARQ feedback in response to the first polar code block; generating (710; 810) a second information block (510; 608) for a first HARQ retransmission, the second information block (510; 608) comprising second information bits (506; 610) and third information bits (512; 612), wherein the second information bits (506; 610) comprise the second subset of information bits, and wherein the third information bits (512; 612) comprise first new information bits different from the first information bits (504, 506; 604); encoding (712; 812) the second information block (510; 608) utilizing polar coding to generate a second polar code block; and transmitting (714; 814) the second polar code block, characterized in that the number of bits in the third information bits is selected in accordance with a target block error rate, BLER, and the sum of the number of bits in the second information bits and the number of bits in the third information bits is equal to the number of bits in the first subset of information bits.