mhurhangee/patent-ind-claim-en huggingface dataset:
A method of transporting media data, the method comprising, by a file-based protocol sending unit of a source device: receiving a stream of data comprising Segments of media data from a segmenter of the source device that forms the Segments, each of the Segments comprising a respective individually retrievable file associated with a unique uniform resource locator, URL, or uniform resource identifier, URI; determining locations of media delivery events, MDEs, in the stream of media data, wherein the MDEs include data for at least a portion of one of the Segments; determining one or more transmission time requirements for the MDEs representing times at which the MDEs are to be sent to a client device; and providing the MDEs and data representing the transmission time requirements to a physical layer sending unit of the source device according to available delivery slots for the physical layer sending unit. receiving a stream of data comprising Segments of media data from a segmenter of the source device that forms the Segments, each of the Segments comprising a respective individually retrievable file associated with a unique uniform resource locator, URL, or uniform resource identifier, URI; determining locations of media delivery events, MDEs, in the stream of media data, wherein the MDEs include data for at least a portion of one of the Segments; determining one or more transmission time requirements for the MDEs representing times at which the MDEs are to be sent to a client device; and providing the MDEs and data representing the transmission time requirements to a physical layer sending unit of the source device according to available delivery slots for the physical layer sending unit.
An anode active material for a lithium secondary battery comprising lithium-silicon composite oxide particles, wherein the lithium-silicon composite oxide particles (i) comprise Li 2 SiO 3 , preferably in combination with Li 2 Si 2 O 5 , and (ii) have a phase fraction ratio defined by Equation 1 of 1.0 or less, and (iii) the content of the lithium-silicon composite oxide particles having a diameter of less than 3 μm is 5 vol% or less based on a total volume of the lithium-silicon composite oxide particles, wherein the particle diameter is measured by the method defined in the description: phase fraction ratio = I 225 / I 213 wherein, in Equation 1, I is a phase fraction of Li 2 Si 2 O 5 obtained by a Rietveld Refinement using an X-ray diffraction (XRD) analysis, and I is a phase fraction of Li 2 SiO 3 obtained by the Rietveld Refinement using the XRD analysis, wherein the XRD analysis is performed by the method defined in the description. wherein the lithium-silicon composite oxide particles (i) comprise Li 2 SiO 3 , preferably in combination with Li 2 Si 2 O 5 , and (ii) have a phase fraction ratio defined by Equation 1 of 1.0 or less, and (iii) the content of the lithium-silicon composite oxide particles having a diameter of less than 3 μm is 5 vol% or less based on a total volume of the lithium-silicon composite oxide particles, wherein the particle diameter is measured by the method defined in the description: phase fraction ratio = I 225 / I 213 (i) comprise Li 2 SiO 3 , preferably in combination with Li 2 Si 2 O 5 , and (ii) have a phase fraction ratio defined by Equation 1 of 1.0 or less, and (iii) the content of the lithium-silicon composite oxide particles having a diameter of less than 3 μm is 5 vol% or less based on a total volume of the lithium-silicon composite oxide particles, wherein the particle diameter is measured by the method defined in the description: phase fraction ratio = I 225 / I 213 wherein, in Equation 1, I is a phase fraction of Li 2 Si 2 O 5 obtained by a Rietveld Refinement using an X-ray diffraction (XRD) analysis, and I is a phase fraction of Li 2 SiO 3 obtained by the Rietveld Refinement using the XRD analysis, wherein the XRD analysis is performed by the method defined in the description.
A computer-implemented method comprising: generating a partition table used to cluster a plurality of data points based on attribute values associated with the plurality of data points by mapping the data points to an ordered range of values associated with the partition table, the partition table including a first set of partitions defining a first segmentation of a total range of the ordered range of values; receiving a data point including an attribute value; determining that the first set of partitions does not include a partition mapped to the attribute value and that there is not a partition of the first set of partitions to which no attribute value is currently assigned, to which the attribute value can be mapped; generating a second set of partitions having more partitions than the first set of partitions, the second set of partitions defining a second segmentation of the total range of the ordered range of values, wherein generating the second set of partitions comprises bifurcating each partition of the first set of partitions; mapping the attribute value to a particular partition of the second set of partitions to which no attribute value is currently assigned; mapping the particular partition of the second set of partitions to one or more physical storage resources ; and storing the data point at the one or more physical storage resources, wherein generating the partition table used to cluster the plurality of data points is performed during ingestion of the plurality of data points. generating a partition table used to cluster a plurality of data points based on attribute values associated with the plurality of data points by mapping the data points to an ordered range of values associated with the partition table, the partition table including a first set of partitions defining a first segmentation of a total range of the ordered range of values; receiving a data point including an attribute value; determining that the first set of partitions does not include a partition mapped to the attribute value and that there is not a partition of the first set of partitions to which no attribute value is currently assigned, to which the attribute value can be mapped; generating a second set of partitions having more partitions than the first set of partitions, the second set of partitions defining a second segmentation of the total range of the ordered range of values, wherein generating the second set of partitions comprises bifurcating each partition of the first set of partitions; mapping the attribute value to a particular partition of the second set of partitions to which no attribute value is currently assigned; mapping the particular partition of the second set of partitions to one or more physical storage resources ; and storing the data point at the one or more physical storage resources,
A system for providing industrial data to a cloud-based remote monitoring application, comprising: a collection component configured to collect data from one or more industrial devices (108_1, ..., 108_N, 110_1, ..., 110_N; 210, ..., 222) and store the industrial data in a compressed file ; a queue processing component configured to package the compressed file into a data packet (320; 502) and assign the compressed file to a message queue from a plurality of message queues maintained on a cloud platform (102; 308) based on at least one of a data type or a priority associated with the industrial data, wherein the data packet (320; 502) comprises a header that identifies the message queue; and a communication component configured to send the data packet to the cloud platform. a collection component configured to collect data from one or more industrial devices (108_1, ..., 108_N, 110_1, ..., 110_N; 210, ..., 222) and store the industrial data in a compressed file ; a queue processing component configured to package the compressed file into a data packet (320; 502) and assign the compressed file to a message queue from a plurality of message queues maintained on a cloud platform (102; 308) based on at least one of a data type or a priority associated with the industrial data, wherein the data packet (320; 502) comprises a header that identifies the message queue; and a communication component configured to send the data packet to the cloud platform.
A process for wet press process manufacturing of cementitious units , comprising: introducing, into a concrete mold having a plurality of corners to define transverse edges of a molded unit, a concrete mixture comprising a hydratable cement binder, aggregates, and water in an amount sufficient (i) to hydrate the cement binder and (ii) to enable the mixture to flow into corners within the mold ; wet-pressing the concrete mixture within the mold , using hydraulic pressure of 2758 to 20684 kPa (400 to 3000 pounds per square inch), to consolidate the mixture into a shape having at least two edges defining therebetween a width dimension and at least two edges defining therebetween a thickness dimension, wherein the width dimension is at least five times greater than the thickness dimension, and removing excess water from the concrete mixture while in the mold ; removing the wet-pressed concrete from the mold while in a green state; standing the pressed, green state concrete unit , upon removal from the mold , onto the at least two edges which define the thickness dimension of the concrete unit; and repeating the foregoing steps such that at least three standing pressed, green state concrete units removed from molds are standing, during a curing period, adjacent to each other at a distance apart which is less than their individual width dimension; wherein the blended concrete mix being introduced into and removed from the mold further comprises: (a) colloidal silica having silica particles with an average particle size of 1 nm to 100 nm; (b) at least one alkanolamine; and (c) optionally, a rheology modifying agent. introducing, into a concrete mold having a plurality of corners to define transverse edges of a molded unit, a concrete mixture comprising a hydratable cement binder, aggregates, and water in an amount sufficient (i) to hydrate the cement binder and (ii) to enable the mixture to flow into corners within the mold ; wet-pressing the concrete mixture within the mold , using hydraulic pressure of 2758 to 20684 kPa (400 to 3000 pounds per square inch), to consolidate the mixture into a shape having at least two edges defining therebetween a width dimension and at least two edges defining therebetween a thickness dimension, wherein the width dimension is at least five times greater than the thickness dimension, and removing excess water from the concrete mixture while in the mold ; removing the wet-pressed concrete from the mold while in a green state; standing the pressed, green state concrete unit , upon removal from the mold , onto the at least two edges which define the thickness dimension of the concrete unit; and repeating the foregoing steps such that at least three standing pressed, green state concrete units removed from molds are standing, during a curing period, adjacent to each other at a distance apart which is less than their individual width dimension; wherein the blended concrete mix being introduced into and removed from the mold further comprises: (a) colloidal silica having silica particles with an average particle size of 1 nm to 100 nm; (b) at least one alkanolamine; and (c) optionally, a rheology modifying agent.
Operating system for a vehicle , comprising a plurality of touch-sensitive control elements , each of which is designed to generate a status signal , characterized in that the control elements are operatively connected to one another via a discrete electrical interface and are designed to transmit their status signal via the discrete electrical interface to the other control elements , wherein, if an operator touches at least one control element , a status signal corresponding thereto can be generated, and at least one other control element is designed to transition into a blocked state (S) as a result of the corresponding status signal .
A device for combustion analysis, comprising an induction furnace with a furnace chamber , in which carrier gas can flow during operation via at least one gas inlet to a gas outlet (33; 88), and in which a sample to be analyzed can be arranged and burned in a sample container , wherein a hollow protective element is provided and is in the intended state of operation of the device arranged in the furnace chamber directly above the sample, characterized in that the end of the protective element facing towards the sample forms, together with the sample container, a constriction that guides the carrier gas flow to the sample, wherein the protective element is designed for guiding gases produced during the combustion of the sample through the protective element towards the gas outlet (33; 88).
A method for detecting neutrophilic granulocytes (nGRC) in a biological sample derived from a mammal, comprising epigenetically detecting blood cells in a biological sample, and quantifying said blood cells as detected using a normalization standard, wherein said normalization standard is a nucleic acid molecule comprising at least one marker-region being specific for the nGRC to be detected, and at least one control-region being cell-unspecific, wherein said regions are present in the same number of copies on said molecule and/or a natural blood cell sample of known composition, and wherein said epigenetically detecting comprises determining a bisulfite conversion of at least one CpG position within a sequence according to any one of SEQ ID No 518, or 686, wherein a bisulfite conversion of at least one CpG position in said gene region is indicative for an nGRC, when compared to a non-nGRC.
A method of wireless communication utilizing hybrid automatic repeat request, HARQ, the method comprising: generating a first polar code block utilizing polar coding; transmitting the first polar code block; receiving a negative acknowledgment, NACK, or no response, in response to the first code block; if a code rate of the first polar code block is greater than a code rate threshold, generating and transmitting a second polar code block utilizing incremental redundancy HARQ, HARQ-IR; and if the code rate of the first polar code block is not greater than the code rate threshold, generating and transmitting the second polar code block utilizing chase combining HARQ, HARQ-CC. generating a first polar code block utilizing polar coding; transmitting the first polar code block; receiving a negative acknowledgment, NACK, or no response, in response to the first code block; if a code rate of the first polar code block is greater than a code rate threshold, generating and transmitting a second polar code block utilizing incremental redundancy HARQ, HARQ-IR; and if the code rate of the first polar code block is not greater than the code rate threshold, generating and transmitting the second polar code block utilizing chase combining HARQ, HARQ-CC.
A data processing method, comprising: receiving N data streams sent by a network-side device, wherein the data stream carries a user identity ID, and N is an integer greater than a quantity of demodulation reference signal, DMRS, ports of a base station; generating a DMRS corresponding to each of the N data streams; acquiring first information of each of the N data streams according to the user ID, wherein the first information is related information used for grouping the DMRSs; grouping DMRSs corresponding to the N data streams into M groups; mapping each group of DMRSs of the M groups to corresponding resource element RE locations, and acquiring port-related information corresponding to each group of DMRSs; sending the port-related information corresponding to each group of DMRSs to a terminal device; and adding each group of DMRSs of the M groups to data streams, and sending the data streams to which the DMRSs are added to the terminal device; wherein the grouping DMRSs corresponding to the N data streams into M groups comprises: grouping the DMRSs corresponding to the N data streams into the M groups according to the first information of each data stream, and wherein when a network side sends data streams to a terminal device, the network side sends the data streams to a base station that serves the terminal device, and the base station sends the data streams to the terminal device. receiving N data streams sent by a network-side device, wherein the data stream carries a user identity ID, and N is an integer greater than a quantity of demodulation reference signal, DMRS, ports of a base station; generating a DMRS corresponding to each of the N data streams; acquiring first information of each of the N data streams according to the user ID, wherein the first information is related information used for grouping the DMRSs; grouping DMRSs corresponding to the N data streams into M groups; mapping each group of DMRSs of the M groups to corresponding resource element RE locations, and acquiring port-related information corresponding to each group of DMRSs; sending the port-related information corresponding to each group of DMRSs to a terminal device; and adding each group of DMRSs of the M groups to data streams, and sending the data streams to which the DMRSs are added to the terminal device; wherein the grouping DMRSs corresponding to the N data streams into M groups comprises: grouping the DMRSs corresponding to the N data streams into the M groups according to the first information of each data stream, and wherein when a network side sends data streams to a terminal device, the network side sends the data streams to a base station that serves the terminal device, and the base station sends the data streams to the terminal device. grouping the DMRSs corresponding to the N data streams into the M groups according to the first information of each data stream, and wherein when a network side sends data streams to a terminal device, the network side sends the data streams to a base station that serves the terminal device, and the base station sends the data streams to the terminal device.
Drivable torsion beam axle of a vehicle having two trailing arms and a transverse profile which is connected to the trailing arms , the trailing arms having in each case one housing for at least one electric machine and in each case one trailing arm region which is attached to the housing , via which housings the torsion beam axle can be attached to a vehicle body, characterized in that - the housings have in each case one fastening base which is prepared for attaching different trailing arm regions , and in that a trailing arm region is attached in each case to a fastening base in order to complete the torsion beam axle , which trailing arm region is selected from a group of at least two trailing arm regions which are of different formation at least with regard to the attachment of the torsion beam axle in each case to a vehicle body and/or with regard to an attachment of the trailing arms to the transverse profile , but have the same connector dimensions, - the housings have in each case one fastening base which is prepared for attaching different spring support regions , and in that a spring support region is attached in each case to a fastening base in order to complete the torsion beam axle , which spring support region is selected from a group of at least two spring support regions which are in each case of different formation at least with regard to the attachment of a spring, but have the same connector dimensions, - the fastening base for attaching different trailing arm regions and the fastening base for attaching different spring support regions are of different configuration. - the housings have in each case one fastening base which is prepared for attaching different trailing arm regions , and in that a trailing arm region is attached in each case to a fastening base in order to complete the torsion beam axle , which trailing arm region is selected from a group of at least two trailing arm regions which are of different formation at least with regard to the attachment of the torsion beam axle in each case to a vehicle body and/or with regard to an attachment of the trailing arms to the transverse profile , but have the same connector dimensions, - the housings have in each case one fastening base which is prepared for attaching different spring support regions , and in that a spring support region is attached in each case to a fastening base in order to complete the torsion beam axle , which spring support region is selected from a group of at least two spring support regions which are in each case of different formation at least with regard to the attachment of a spring, but have the same connector dimensions, - the fastening base for attaching different trailing arm regions and the fastening base for attaching different spring support regions are of different configuration.
A floor cleaner comprising: a supply tank configured to store a fluid; a distribution nozzle in fluid communication with the supply tank , the distribution nozzle configured to spray the fluid onto a surface to be cleaned; an electrically powered component ; and a power switch operable to control a supply of electrical power to the electrically powered component , the power switch including, a button including, an actuator surface pressed by a user to operate the power switch , and a wall that extends away from the actuator surface , a frame , the button movable relative to the frame to operate the power switch to control the supply of electrical power, the frame including, an inner wall that defines an inner button aperture , the button extending into the inner button aperture , an outer wall , a fluid outlet , and a fluid collection surface between the inner wall and the outer wall that directs fluid on the fluid collection surface toward the fluid outlet , wherein the wall of the button is received in a gap between the inner wall and the outer wall of the frame so that fluid is directed along the wall of the button to the fluid collection surface and inhibited from passing through the button aperture . a supply tank configured to store a fluid; a distribution nozzle in fluid communication with the supply tank , the distribution nozzle configured to spray the fluid onto a surface to be cleaned; an electrically powered component ; and a power switch operable to control a supply of electrical power to the electrically powered component , the power switch including, a button including, an actuator surface pressed by a user to operate the power switch , and a wall that extends away from the actuator surface , a frame , the button movable relative to the frame to operate the power switch to control the supply of electrical power, the frame including, an inner wall that defines an inner button aperture , the button extending into the inner button aperture , an outer wall , a fluid outlet , and a fluid collection surface between the inner wall and the outer wall that directs fluid on the fluid collection surface toward the fluid outlet , wherein the wall of the button is received in a gap between the inner wall and the outer wall of the frame so that fluid is directed along the wall of the button to the fluid collection surface and inhibited from passing through the button aperture .
A method of preparing a liposomal Wnt polypeptide, comprising contacting a sample comprising functionally active Wnt3a polypeptides to an aqueous solution of liposomes, wherein the liposomes comprise a phospholipid that is 1,2-dimyristoyl-sn-glycero-3-phosphocholine (DMPC), wherein the liposomes comprise cholesterol, and wherein the concentration of DMPC and cholesterol is defined by a ratio of between 70:30 and 90:10.