mhurhangee/ep-ind-claims huggingface dataset:
An information determining method, comprising: sending, by a first terminal device, first information to a first network element, wherein the first information comprises first indication information, and the first indication information is for determining a first access network device connected to the first terminal device; and receiving, by the first terminal device, second information from the first network element, wherein the second information is determined based on historical statistical information of a bandwidth of a media transmission link between the first access network device and the first terminal device; and determining, by the first terminal device, a first code rate based on the second information, and the first code rate indicates a code rate of media data of first media received by the first terminal device; wherein the first information further comprises one or more of the following information: a media identifier, an optional code rate, or state information of the first media, wherein the state information indicates a state of the media data of the first media buffered by the first terminal device. sending, by a first terminal device, first information to a first network element, wherein the first information comprises first indication information, and the first indication information is for determining a first access network device connected to the first terminal device; and receiving, by the first terminal device, second information from the first network element, wherein the second information is determined based on historical statistical information of a bandwidth of a media transmission link between the first access network device and the first terminal device; and determining, by the first terminal device, a first code rate based on the second information, and the first code rate indicates a code rate of media data of first media received by the first terminal device; wherein the first information further comprises one or more of the following information: a media identifier, an optional code rate, or state information of the first media, wherein the state information indicates a state of the media data of the first media buffered by the first terminal device.
An article of footwear having an upper and a sole structure secured to the upper, the sole structure comprising: a midsole formed from a foamed polymer material and positioned adjacent to the upper; a first impact-attenuating member located in a heel portion of the sole structure; an upper plate embedded within the midsole and formed from a non-foamed polymer material having an upper surface oriented toward the upper and an opposite lower surface oriented away from the upper; a first leg formed from a non-foamed polymer material extending downward from the lower surface of the upper plate away from the upper, a lower portion of the first leg forming a portion of the first impact-attenuating member; an outsole at a bottom portion of the article of footwear opposite the upper configured to engage the ground during use; and a lower plate formed from a non-foamed polymer material oriented generally parallel with the upper plate and forming an upper region of the outsole, the first impact-attenuating member being disposed between the upper plate and the lower plate; wherein an end portion of the first leg extends downward through the first impact-attenuating member and engages an upper region of the outsole; and characterized in that the end portion of the first leg is configured to resist compression when receiving a downward impact up to the point of buckling during a first phase and to bend and act as a living hinge after reaching the buckling point during a second stage. a midsole formed from a foamed polymer material and positioned adjacent to the upper; a first impact-attenuating member located in a heel portion of the sole structure; an upper plate embedded within the midsole and formed from a non-foamed polymer material having an upper surface oriented toward the upper and an opposite lower surface oriented away from the upper; a first leg formed from a non-foamed polymer material extending downward from the lower surface of the upper plate away from the upper, a lower portion of the first leg forming a portion of the first impact-attenuating member; an outsole at a bottom portion of the article of footwear opposite the upper configured to engage the ground during use; and a lower plate formed from a non-foamed polymer material oriented generally parallel with the upper plate and forming an upper region of the outsole, the first impact-attenuating member being disposed between the upper plate and the lower plate; wherein an end portion of the first leg extends downward through the first impact-attenuating member and engages an upper region of the outsole; and characterized in that the end portion of the first leg is configured to resist compression when receiving a downward impact up to the point of buckling during a first phase and to bend and act as a living hinge after reaching the buckling point during a second stage.
A packet transmission method, comprising: establishing, by a first station, a block acknowledgement connection by negotiating with a second station by using an access point; and if the block acknowledgement connection is successfully established, send a data packet to the access point for forwarding to the second station, wherein the access point is caused to forward the data packet to the second station by setting both frame fields that correspond to a To Distributed System domain and a From Distributed System domain and that are in a data packet header to 0, setting a destination address in a Media Access Control address domain as a Media Access Control address of the second station, setting a source address as a Media Access Control address of the first station, and setting a forwarding address as a Media Access Control address of the access point. establishing, by a first station, a block acknowledgement connection by negotiating with a second station by using an access point; and if the block acknowledgement connection is successfully established, send a data packet to the access point for forwarding to the second station, wherein the access point is caused to forward the data packet to the second station by setting both frame fields that correspond to a To Distributed System domain and a From Distributed System domain and that are in a data packet header to 0, setting a destination address in a Media Access Control address domain as a Media Access Control address of the second station, setting a source address as a Media Access Control address of the first station, and setting a forwarding address as a Media Access Control address of the access point.
Method for operating a machine tool and/or production machine, having a spindle and a tool for processing a workpiece, wherein the tool, when the spindle rotates and the feed rate of the tool is below a defined feed rate, is moved to a retracted position such that the tool no longer touches the workpiece.
Method for producing pulverized coal, the method comprising the steps of: - heating a drying gas in a hot gas generator to a predefined temperature; - feeding the heated drying gas into a pulverizer; - introducing raw coal into the pulverizer, the pulverizer turning the raw coal into pulverized coal; - collecting a mixture of drying gas and pulverized coal from the pulverizer and feeding the mixture to a filter, the filter separating the dried pulverized coal from the drying gas; - collecting the dried pulverized coal for further use and feeding part of the drying gas from the filter to a recirculation line for returning at least part of the drying gas to the hot gas generator wherein the method comprises - a startup cycle wherein heated drying gas is fed through the pulverizer without introducing raw coal, and - a grinding cycle wherein heated drying gas is fed through the pulverizer and raw coal is introduced into the pulverizer, characterized in that an exit temperature of the mixture of drying gas and pulverized coal exiting the pulverizer is controlled by controlling a volume of water injected into the heated drying gas before feeding it into the pulverizer, wherein - during the startup cycle, said drying gas is heated to a temperature above a first temperature threshold and a volume of water is injected into the heated drying gas, the volume of water being calculated so as to reduce the temperature of the heated drying gas to obtain an exit temperature below the first temperature threshold; and - at the beginning of the grinding cycle, the volume of water injected into the heated drying gas is reduced so as to compensate for the drop in exit temperature and regulate the exit temperature to a preferred working temperature. - heating a drying gas in a hot gas generator to a predefined temperature; - feeding the heated drying gas into a pulverizer; - introducing raw coal into the pulverizer, the pulverizer turning the raw coal into pulverized coal; - collecting a mixture of drying gas and pulverized coal from the pulverizer and feeding the mixture to a filter, the filter separating the dried pulverized coal from the drying gas; - collecting the dried pulverized coal for further use and feeding part of the drying gas from the filter to a recirculation line for returning at least part of the drying gas to the hot gas generator - a startup cycle wherein heated drying gas is fed through the pulverizer without introducing raw coal, and - a grinding cycle wherein heated drying gas is fed through the pulverizer and raw coal is introduced into the pulverizer, - during the startup cycle, said drying gas is heated to a temperature above a first temperature threshold and a volume of water is injected into the heated drying gas, the volume of water being calculated so as to reduce the temperature of the heated drying gas to obtain an exit temperature below the first temperature threshold; and - at the beginning of the grinding cycle, the volume of water injected into the heated drying gas is reduced so as to compensate for the drop in exit temperature and regulate the exit temperature to a preferred working temperature.
A nucleic acid molecule comprising a polynucleotide encoding an RNA-guided nuclease polypeptide, wherein said polynucleotide comprises a nucleotide sequence encoding an RGN polypeptide comprising an amino acid sequence having at least 95% sequence identity to SEQ ID NOs: 11 or 27; wherein said RGN polypeptide binds a target DNA sequence in an RNA-guided sequence specific manner when bound to a guide RNA (gRNA) capable of hybridizing to said target DNA sequence.
An electrical connector for connecting to a flange portion of an automotive fluid circulation system and to a cover portion of the automotive fluid circulation system comprising a conduit for the automotive fluid, the electrical connector comprising one or more heating elements, a rotatable hinge part configured to include the one or more heating elements for providing heat, when in an assembled position, to the automotive fluid within the conduit of the cover portion and configured to be manipulated from a first position to the assembled position via one or more other positions, a first locking part comprising a raised projection configured to contact with the rotatable hinge part such that the rotatable hinge part is kept substantially stable in the first position before the connector is inserted into the flange portion, a plurality of second locking parts (811, 812, 813) each comprising a raised projection configured to contact with the rotatable hinge part such that the rotatable hinge part is kept substantially vertical in one of the other positions during the mating between the connector and the cover portion, and a truncated circular locking part configured to contact with the rotatable hinge part such that the rotatable hinge part is prevented from substantial lateral movement when in the vertical position and such that the rotatable hinge part can move laterally when in the assembled position, wherein the rotatable hinge part of the connector portion is configured to rotate to the assembled position at which the one or more heating elements can provide heat to the automotive fluid after the connector has been inserted into the flange portion and mated with the cover portion.
A microstructured optical fiber (10, 30) for generating incoherent supercontinuum light upon feeding of pump light, said microstructured optical fiber having a length and a longitudinal axis along its length and comprising, along its length, a core region that is capable of guiding light along the length of said microstructured optical fiber, and a first cladding region surrounding said core region, said first cladding region comprising a microstructure having a plurality of microstructure elements, wherein said microstructured optical fiber, along its length, comprises: - a first section (12, 31) with a first length L 1, wherein the microstructure elements of said optical fiber at least at a first cross-section through the first section perpendicularly to the longitudinal axis has a first pitch Λ 1, a first microstructure diameter d 1 and a first relative size d 1 /Λ 1 of microstructure elements, wherein the microstructured optical fiber at least in said first cross-section has a first zero dispersion wavelength ZDW1 1 in the range from about 920 to about 1120 nm - a second section(14, 32) with a second length L 2, wherein the microstructure elements of said optical fiber at least at a second cross-section through the second section perpendicularly to the longitudinal axis has a second pitch Λ 2, a second microstructure diameter d 2 and a second relative size d 2 /Λ 2 of microstructure elements, wherein said microstructured optical fiber at least in said second cross-section through the microstructured optical fiber has a first zero dispersion wavelength ZDW2 1 and a second zero dispersion wavelength ZDW2 2, said second zero dispersion wavelength being about 2200 nm or shorter, wherein the sum of the first length L 1 and the second length L 2 is about 1 meter or larger, such as about 3 meter or larger, such as about 5 meter or larger, such as about 10 meter or larger. - a first section (12, 31) with a first length L 1, wherein the microstructure elements of said optical fiber at least at a first cross-section through the first section perpendicularly to the longitudinal axis has a first pitch Λ 1, a first microstructure diameter d 1 and a first relative size d 1 /Λ 1 of microstructure elements, wherein the microstructured optical fiber at least in said first cross-section has a first zero dispersion wavelength ZDW1 1 in the range from about 920 to about 1120 nm - a second section(14, 32) with a second length L 2, wherein the microstructure elements of said optical fiber at least at a second cross-section through the second section perpendicularly to the longitudinal axis has a second pitch Λ 2, a second microstructure diameter d 2 and a second relative size d 2 /Λ 2 of microstructure elements, wherein said microstructured optical fiber at least in said second cross-section through the microstructured optical fiber has a first zero dispersion wavelength ZDW2 1 and a second zero dispersion wavelength ZDW2 2, said second zero dispersion wavelength being about 2200 nm or shorter,
A method for disassembly of textile articles, wherein the textile articles can be disassembled and thus recycled or reused automatically or semi-automatically, wherein said textile article is composed of individual pieces, in which at least some of said individual pieces are attached to each other by means of stitching and wherein for said stitching a twined thermoplastic polymer melt thread is used, said polymer is a thermoplastic polymer selected from the group of polyolefins, polyesters, polyoxymethylene, polypropylene, polyurethane, polyamids, polylactic acid and co-polymers thereof, said melt thread has a melting temperature between 80°C and 200°C, allowing the melt thread to transition from a solid phase to a liquid or semi-liquid phase at a temperature that is equal to or higher than the melting temperature of the thread, characterised in that the disassembly of said textile article is realized by subjecting the article to hot air of a temperature that is equal to or higher than the melting temperature in a heating unit provided with heating elements.
A channel state information, CSI, feedback method, characterized by comprising: acquiring a code identifier, wherein the code identifier is determined according to at least one of hybrid automatic repeat request, HARQ, information and a current uplink channel state of a base station, and the HARQ information is acquired according to a current data receiving result of a user equipment, UE; acquiring a code parameter group corresponding to the code identifier from multiple preset code parameter groups; compressing an initial CSI according to the code parameter group to generate a compressed CSI, wherein the initial CSI is acquired by measuring a current downlink channel of the base station; and feeding back the compressed CSI to the base station, wherein the compressed CSI is used for reestablishment according to the code parameter group by the base station to obtain an initial CSI for next data sending of the base station. acquiring a code identifier, wherein the code identifier is determined according to at least one of hybrid automatic repeat request, HARQ, information and a current uplink channel state of a base station, and the HARQ information is acquired according to a current data receiving result of a user equipment, UE; acquiring a code parameter group corresponding to the code identifier from multiple preset code parameter groups; compressing an initial CSI according to the code parameter group to generate a compressed CSI, wherein the initial CSI is acquired by measuring a current downlink channel of the base station; and feeding back the compressed CSI to the base station, wherein the compressed CSI is used for reestablishment according to the code parameter group by the base station to obtain an initial CSI for next data sending of the base station.
A filter device having at least one filter element that can be accommodated in a filter housing which has at least one connection device for forming a fluid connection to the filter element, the connection device being provided for the supply of the fluid to be cleaned to the unfiltered side of the filter element and being a component of the element receiver with which the filter element which is in the operating position interacts, a valve arrangement, or at least parts of the same, being able to be moved by means of the connection device as a component of the filter housing or of the parts which can be assigned to the filter housing such that when the filter device is shut off by removing the filter element from the filter housing the valve arrangement moves into its closed position, and when the filter device is started up by inserting the filter element into its operating position within the filter housing, the valve arrangement moves into its open position, the filter element through which flow can take place from its inner filter cavity to the outside of its filter medium during filtration being provided with at least one end cap, the lower end cap in the operating position of the filter element for the interaction with the element receiver having an inlet fitting which projects into the filter cavity, to which the valve arrangement (61, 67, 69) is attached and which, in the operating position, the connection fitting of the connection device engages as a component of the element receiver with sealing, characterised in that in order to form the valve arrangement, the end of the inlet fitting is spanned by a cap made of elastomer material which is provided with notches such that the connection fitting of the connection device which penetrates the inlet fitting in the operating position by mechanical action on the cap opens its notches to form flow slots.
A non-invasive method for collecting a sample of intestinal or bowel cells or cell fragments the method consisting of: (a) taking a swab of mucocellular layer material which originates from said bowel or intestine and is excreted during defaecation, from the surface of the anal area in the vicinity of the exterior opening of the anal canal, wherein said swab is taken following defaecation before cleaning the area; and (b) placing said swab of mucocellular layer material into a medium for sample storage or lysis; (a) taking a swab of mucocellular layer material which originates from said bowel or intestine and is excreted during defaecation, from the surface of the anal area in the vicinity of the exterior opening of the anal canal, wherein said swab is taken following defaecation before cleaning the area; and (b) placing said swab of mucocellular layer material into a medium for sample storage or lysis;
An implantable pulse generator, comprising: a conductive housing comprising a feedthrough between a first cavity and a second cavity, wherein the housing comprises a conductive top cover and a conductive bottom cover, wherein the first cavity is defined between the top cover and the feedthrough, and wherein the second cavity is defined between the bottom cover and the feedthrough, wherein the feedthrough, the top cover and the bottom cover lie in planes that are parallel; a plurality of feedthrough pins passing through the feedthrough between the first cavity and the second cavity; a circuit board comprising electronic circuitry in the second cavity connected to each of the plurality of feedthrough pins; at least one electrode wire cable (142a, 142b) extending outwardly from the housing, wherein each electrode wire cable (142a, 142b) comprises a plurality of electrode wires coupled by electrical connections in the first cavity to some of the feedthrough pins; and a connector block connected to each at least one electrode wire cable (142a, 142b), wherein each connector block comprises an opening configured to receive a lead for stimulating a patient's tissue, wherein each of the plurality of electrode wires in an electrode wire cable connected to a connector block are coupled to contacts in that connector block. a conductive housing comprising a feedthrough between a first cavity and a second cavity, wherein the housing comprises a conductive top cover and a conductive bottom cover, wherein the first cavity is defined between the top cover and the feedthrough, and wherein the second cavity is defined between the bottom cover and the feedthrough, wherein the feedthrough, the top cover and the bottom cover lie in planes that are parallel; a plurality of feedthrough pins passing through the feedthrough between the first cavity and the second cavity; a circuit board comprising electronic circuitry in the second cavity connected to each of the plurality of feedthrough pins; at least one electrode wire cable (142a, 142b) extending outwardly from the housing, wherein each electrode wire cable (142a, 142b) comprises a plurality of electrode wires coupled by electrical connections in the first cavity to some of the feedthrough pins; and a connector block connected to each at least one electrode wire cable (142a, 142b), wherein each connector block comprises an opening configured to receive a lead for stimulating a patient's tissue, wherein each of the plurality of electrode wires in an electrode wire cable connected to a connector block are coupled to contacts in that connector block.