mhurhangee/patent-ind-claim-en huggingface dataset:
A data transmission method, comprising: receiving, by a communications apparatus, from a session management function entity , a correspondence between a quality of service flow identifier of a service flow and an inter-packet time interval of the service flow; wherein the inter-packet time interval is a period during which a transmit end device periodically sends a data packet to a next-level receiving device of a transmission link; establishing (S204), by the communications apparatus based on the correspondence, a gate queue used to send a data packet, and establishing a mapping relationship between the gate queue and the quality of service flow identifier; and receiving, by the communications apparatus, a data packet from an upper-level sending device of a transmission link; and if the data packet comprises the quality of service flow identifier, periodically scheduling (S206), by the communications apparatus, the data packet based on the gate queue to which the quality of service flow identifier is mapped. receiving, by a communications apparatus, from a session management function entity , a correspondence between a quality of service flow identifier of a service flow and an inter-packet time interval of the service flow; wherein the inter-packet time interval is a period during which a transmit end device periodically sends a data packet to a next-level receiving device of a transmission link; establishing (S204), by the communications apparatus based on the correspondence, a gate queue used to send a data packet, and establishing a mapping relationship between the gate queue and the quality of service flow identifier; and receiving, by the communications apparatus, a data packet from an upper-level sending device of a transmission link; and if the data packet comprises the quality of service flow identifier, periodically scheduling (S206), by the communications apparatus, the data packet based on the gate queue to which the quality of service flow identifier is mapped.
A method of detecting a target analyte in a sample, the method comprising: a) providing a complex formed from: i) a first probe coupled to a particle and bound to said analyte if present, and ii) a second probe coupled to a solid support and bound to said analyte if present, so that if the target analyte is present in the sample, the particle is only indirectly coupled to the solid support via a complex formed by the target analyte and the first and second probes, and wherein the complex comprises an elongated region located on the first probe, the second probe, or the target analyte, or any combination thereof; and wherein the elongated region ranges from about 0.15 μm to about 20 μm in length; and b) either i) applying a force to the indirectly coupled particle or to the complex comprising the elongated region and measuring the amount of particle displacement or the length of the complex, wherein the amount of displacement or length of the complex indicates whether or not the target analyte is present in the sample, or ii) measuring the Brownian motion of the indirectly coupled particle, wherein the amount of Brownian motion indicates whether or not the target analyte is present in the sample. a) providing a complex formed from: i) a first probe coupled to a particle and bound to said analyte if present, and ii) a second probe coupled to a solid support and bound to said analyte if present, so that if the target analyte is present in the sample, the particle is only indirectly coupled to the solid support via a complex formed by the target analyte and the first and second probes, and wherein the complex comprises an elongated region located on the first probe, the second probe, or the target analyte, or any combination thereof; and wherein the elongated region ranges from about 0.15 μm to about 20 μm in length; and i) a first probe coupled to a particle and bound to said analyte if present, and ii) a second probe coupled to a solid support and bound to said analyte if present, b) either i) applying a force to the indirectly coupled particle or to the complex comprising the elongated region and measuring the amount of particle displacement or the length of the complex, wherein the amount of displacement or length of the complex indicates whether or not the target analyte is present in the sample, or ii) measuring the Brownian motion of the indirectly coupled particle, wherein the amount of Brownian motion indicates whether or not the target analyte is present in the sample.
A Method for generating indexed single cell sequencing libraries from a cell population, comprising, distributing individual cells and/or individual nuclei from a cell suspension into a plurality of containers; and creating indexed single cell sequencing libraries from the single cells and/or the individual nuclei in one or more of the plurality of containers, wherein creating the indexed-single cell libraries comprises subjecting unamplified DNA from the single cells and/or individual nuclei to a transposase reaction, wherein the transposase reaction comprises fragmenting and tagging the unamplified DNA with a tagging sequence to generate tagmented DNA, subjecting the tagmented DNA to a minimal number of polymerase chain reaction (PCR) cycles to add unique single cell indices and sequencing adaptors to the tagmented DNA-, thereby generating indexed single cell sequencing libraries, wherein the minimal mumber of PCR cycles is from 9 to 15 PCR cycles. distributing individual cells and/or individual nuclei from a cell suspension into a plurality of containers; and creating indexed single cell sequencing libraries from the single cells and/or the individual nuclei in one or more of the plurality of containers, wherein creating the indexed-single cell libraries comprises subjecting unamplified DNA from the single cells and/or individual nuclei to a transposase reaction, wherein the transposase reaction comprises fragmenting and tagging the unamplified DNA with a tagging sequence to generate tagmented DNA, subjecting the tagmented DNA to a minimal number of polymerase chain reaction (PCR) cycles to add unique single cell indices and sequencing adaptors to the tagmented DNA-, thereby generating indexed single cell sequencing libraries, wherein the minimal mumber of PCR cycles is from 9 to 15 PCR cycles.
A method for determining a user plane security algorithm, comprising: receiving , by a second terminal UE 2, a direct communication request message from a first terminal UE 1, wherein the direct communication request message comprises a security capability of the UE 1 and a control plane security policy of the UE 1; determining , by the UE 2, a control plane security protection mode between the UE 2 and the UE 1 based on the control plane security policy of the UE 1 and a control plane security policy of the UE 2; and when the control plane security protection mode is that control plane integrity protection is enabled and control plane confidentiality protection is not enabled: sending , by the UE 2, a direct security mode command message to the UE 1, and when receiving a direct security mode complete message carrying a user plane security policy of the UE 1 from the UE 1, regardless of the user plane security policy of the UE 1 and a user plane security policy of the UE 2, determining, by the UE 2, that user plane confidentiality protection between the UE 2 and the UE 1 is not enabled, wherein the direct security mode command message comprises a non-null integrity protection algorithm and a null confidentiality protection algorithm. receiving , by a second terminal UE 2, a direct communication request message from a first terminal UE 1, wherein the direct communication request message comprises a security capability of the UE 1 and a control plane security policy of the UE 1; determining , by the UE 2, a control plane security protection mode between the UE 2 and the UE 1 based on the control plane security policy of the UE 1 and a control plane security policy of the UE 2; and when the control plane security protection mode is that control plane integrity protection is enabled and control plane confidentiality protection is not enabled: sending , by the UE 2, a direct security mode command message to the UE 1, and when receiving a direct security mode complete message carrying a user plane security policy of the UE 1 from the UE 1, regardless of the user plane security policy of the UE 1 and a user plane security policy of the UE 2, determining, by the UE 2, that user plane confidentiality protection between the UE 2 and the UE 1 is not enabled, wherein the direct security mode command message comprises a non-null integrity protection algorithm and a null confidentiality protection algorithm. sending , by the UE 2, a direct security mode command message to the UE 1, and when receiving a direct security mode complete message carrying a user plane security policy of the UE 1 from the UE 1, regardless of the user plane security policy of the UE 1 and a user plane security policy of the UE 2, determining, by the UE 2, that user plane confidentiality protection between the UE 2 and the UE 1 is not enabled, wherein the direct security mode command message comprises a non-null integrity protection algorithm and a null confidentiality protection algorithm.
Method for controlling a multi-level AC/DC converter which comprises n power cells Ci, where i goes from 1 to n and n is greater than or equal to 2, and wherein: - each power cell comprises an input converter (In_i) of the AC/DC type with at least two voltage levels and an insulated DC/DC converter (Conv i) connected to said input converter, - each input converter (In_i) of a cell Ci being connected in series to the input converter (In_i+1) of the cell Ci + 1 so as to form an input stage (IN) intended to be connected to a source of alternating voltage supplying an input current and controlled to convert an alternating voltage to n intermediate direct voltages (Uint_i) distributed in each power cell, - the DC/DC converter (Conv i) of each cell Ci being connected in parallel to the DC/DC converter (Conv_i+1) of the cell Ci+1 so as to form an output stage (OUT) intended to supply a direct output voltage (Uout) to an electrical load , - characterised in that : - the input stage (IN) is controlled to regulate said output voltage (Uout) to a reference value (Uout_ref) by controlling said input current (lac), - each DC/DC converter (Conv i) is controlled in a first operating mode (DAB) in a closed loop so as to regulate the intermediate voltage (Uint_i) of its power cell or in a second operating mode (SAB) in an open loop without regulation. - each power cell comprises an input converter (In_i) of the AC/DC type with at least two voltage levels and an insulated DC/DC converter (Conv i) connected to said input converter, - each input converter (In_i) of a cell Ci being connected in series to the input converter (In_i+1) of the cell Ci + 1 so as to form an input stage (IN) intended to be connected to a source of alternating voltage supplying an input current and controlled to convert an alternating voltage to n intermediate direct voltages (Uint_i) distributed in each power cell, - the DC/DC converter (Conv i) of each cell Ci being connected in parallel to the DC/DC converter (Conv_i+1) of the cell Ci+1 so as to form an output stage (OUT) intended to supply a direct output voltage (Uout) to an electrical load , - characterised in that : - the input stage (IN) is controlled to regulate said output voltage (Uout) to a reference value (Uout_ref) by controlling said input current (lac), - each DC/DC converter (Conv i) is controlled in a first operating mode (DAB) in a closed loop so as to regulate the intermediate voltage (Uint_i) of its power cell or in a second operating mode (SAB) in an open loop without regulation.
A blood test kit for analyzing a concentration of a target component in a blood sample using a normal component homeostatically present in blood, the kit comprising: a blood collection instrument for collecting the blood sample; a diluent solution for diluting the collected blood sample; and a storing instrument for storing the diluted blood sample, wherein the blood collection instrument is a capillary inside which the blood sample can be collected by a capillary phenomenon, wherein the capillary has a shape for collecting a predetermined volume of the blood sample, and in which the inner diameter of the capillary is rapidly increased from a certain position so that the capillary phenomenon is unlikely to occur if the collected blood exceeds that position, characterized in that the normal component homeostatically present in blood is sodium ions, and the diluent solution is a buffer solution that does not contain the normal component homeostatically present in blood. a blood collection instrument for collecting the blood sample; a diluent solution for diluting the collected blood sample; and a storing instrument for storing the diluted blood sample, wherein the blood collection instrument is a capillary inside which the blood sample can be collected by a capillary phenomenon, wherein the capillary has a shape for collecting a predetermined volume of the blood sample, and in which the inner diameter of the capillary is rapidly increased from a certain position so that the capillary phenomenon is unlikely to occur if the collected blood exceeds that position, characterized in that the normal component homeostatically present in blood is sodium ions, and the diluent solution is a buffer solution that does not contain the normal component homeostatically present in blood.
A high strength steel plate for a sour-resistant line pipe, comprising: a chemical composition containing, by mass%, C: 0.02 % to 0.08 %, Si: 0.01 % to 0.50 %, Mn: 0.50 % to 1.80 %, P: 0.001 % to 0.015 %, S: 0.0002 % to 0.0015 %, Al: 0.01 % to 0.08 %, Mo: 0.01 % to 0.50 %, Ca: 0.0005 % to 0.005 %, at least one selected from the group consisting of Nb: 0.005 % to 0.1 % and Ti: 0.005 % to 0.1 %, and optionally one or more of Cu: 0.50 % or less, Ni: 0.10 % or less, Cr: 0.50 % or less, V: 0.005 % to 0.1 %, Zr: 0.0005 % to 0.02 %, Mg: 0.0005 % to 0.02 %, and REM: 0.0005 % to 0.02 %, with the balance being Fe and inevitable impurities; a steel microstructure at 0.25 mm below a surface of the steel plate being a bainite microstructure having a dislocation density of 1.0 × 10 14 to 7.0 × 10 14 m -2 ; a variation in Vickers hardness at 0.25 mm below the surface of the steel plate being 30 HV or less at 3σ, where σ is a standard deviation; and a tensile strength being 520 MPa or more, where the tensile strength is measured using a full-thickness test piece collected in a direction perpendicular to the rolling direction and the Vickers hardness HV 0.1 is measured for a cross section perpendicular to the rolling direction according to JIS Z 2244 as defined in the description. a chemical composition containing, by mass%, C: 0.02 % to 0.08 %, Si: 0.01 % to 0.50 %, Mn: 0.50 % to 1.80 %, P: 0.001 % to 0.015 %, S: 0.0002 % to 0.0015 %, Al: 0.01 % to 0.08 %, Mo: 0.01 % to 0.50 %, Ca: 0.0005 % to 0.005 %, at least one selected from the group consisting of Nb: 0.005 % to 0.1 % and Ti: 0.005 % to 0.1 %, and optionally one or more of Cu: 0.50 % or less, Ni: 0.10 % or less, Cr: 0.50 % or less, V: 0.005 % to 0.1 %, Zr: 0.0005 % to 0.02 %, Mg: 0.0005 % to 0.02 %, and REM: 0.0005 % to 0.02 %, with the balance being Fe and inevitable impurities; a steel microstructure at 0.25 mm below a surface of the steel plate being a bainite microstructure having a dislocation density of 1.0 × 10 14 to 7.0 × 10 14 m -2 ; a variation in Vickers hardness at 0.25 mm below the surface of the steel plate being 30 HV or less at 3σ, where σ is a standard deviation; and a tensile strength being 520 MPa or more, where the tensile strength is measured using a full-thickness test piece collected in a direction perpendicular to the rolling direction and the Vickers hardness HV 0.1 is measured for a cross section perpendicular to the rolling direction according to JIS Z 2244 as defined in the description.
A method of rendering an output video , comprising: obtaining a source video ; obtaining parameters encoding respective input time intervals within a time range of the source video for pixels in the source video , where a respective input time interval for a particular pixel includes a per-pixel loop period of a loop at the particular pixel within the time range of the source video , wherein obtaining the parameters comprises generating the parameters, and wherein generating the parameters comprises performing an optimization to solve for the per-pixel loop period and a per-pixel start time, wherein said optimization comprises determining the respective input time intervals within the time range of the source video for the pixels that optimize an objective function, wherein the objective function comprises a spatial consistency term, a temporal consistency term, and a dynamism term that penalizes assignment of static loops at the pixels based upon temporal variances of neighborhoods of the pixels in the source video ; receiving a selection of a level of dynamism that causes one or more spatial regions of the output video to respectively be either static or looping; and creating the output video based on the source video, the parameters, and the selection causing the output video to be rendered on a display screen. obtaining a source video ; obtaining parameters encoding respective input time intervals within a time range of the source video for pixels in the source video , where a respective input time interval for a particular pixel includes a per-pixel loop period of a loop at the particular pixel within the time range of the source video , wherein obtaining the parameters comprises generating the parameters, and wherein generating the parameters comprises performing an optimization to solve for the per-pixel loop period and a per-pixel start time, wherein said optimization comprises determining the respective input time intervals within the time range of the source video for the pixels that optimize an objective function, wherein the objective function comprises a spatial consistency term, a temporal consistency term, and a dynamism term that penalizes assignment of static loops at the pixels based upon temporal variances of neighborhoods of the pixels in the source video ; receiving a selection of a level of dynamism that causes one or more spatial regions of the output video to respectively be either static or looping; and creating the output video based on the source video, the parameters, and the selection causing the output video to be rendered on a display screen.
Method for producing a bone cement from at least two starting components in a device comprising a first hollow cylindrical container and a second hollow cylindrical container , wherein the second container comprises a first interior and a second interior , a vessel arranged in the first container , wherein the vessel stores a monomer liquid , a dispensing plunger arranged between the first container and the second interior , comprising the steps of: a. opening the vessel by means of a first movement of the vessel relative to the second container , b. the monomer liquid flowing into the second interior , while the dispensing plunger is designed to be permeable to gases and liquids, c. conveying the monomer liquid into a bone cement powder stored in the first interior by means of a first axial displacement of the first container into the second container , wherein the dispensing plunger for conveying the monomer liquid undergoes a transformation from being permeable to gases and liquids to being impermeable to liquids and solids, and d. squeezing the bone cement formed from the monomer liquid and the bone cement powder out of the device by means of a second axial displacement of the first container into the second container . a first hollow cylindrical container and a second hollow cylindrical container , wherein the second container comprises a first interior and a second interior , a vessel arranged in the first container , wherein the vessel stores a monomer liquid , a dispensing plunger arranged between the first container and the second interior , comprising the steps of: a. opening the vessel by means of a first movement of the vessel relative to the second container , b. the monomer liquid flowing into the second interior , while the dispensing plunger is designed to be permeable to gases and liquids, c. conveying the monomer liquid into a bone cement powder stored in the first interior by means of a first axial displacement of the first container into the second container , wherein the dispensing plunger for conveying the monomer liquid undergoes a transformation from being permeable to gases and liquids to being impermeable to liquids and solids, and d. squeezing the bone cement formed from the monomer liquid and the bone cement powder out of the device by means of a second axial displacement of the first container into the second container . a. opening the vessel by means of a first movement of the vessel relative to the second container , b. the monomer liquid flowing into the second interior , while the dispensing plunger is designed to be permeable to gases and liquids, c. conveying the monomer liquid into a bone cement powder stored in the first interior by means of a first axial displacement of the first container into the second container , wherein the dispensing plunger for conveying the monomer liquid undergoes a transformation from being permeable to gases and liquids to being impermeable to liquids and solids, and d. squeezing the bone cement formed from the monomer liquid and the bone cement powder out of the device by means of a second axial displacement of the first container into the second container .
An in-vehicle computing system of a first vehicle , the system comprising: a user input interface configured to receive an input from a user; an inter-vehicle communication system capable of communicating with a navigation system of a second vehicle ; a processor ; and a storage device storing instructions executable by the processor to: receive a first separation from the user of the first vehicle , the first separation being input via the user input interface ; and responsive to receiving a first separation from the user of the first vehicle , determine a space cushion between the second vehicle and the first vehicle , the space cushion is determined either based on a second separation communicated from the second vehicle via the inter-vehicle communication system , or on the first separation and the second separation; and control a distance between the first vehicle and the second vehicle based on the space cushion. a user input interface configured to receive an input from a user; an inter-vehicle communication system capable of communicating with a navigation system of a second vehicle ; a processor ; and a storage device storing instructions executable by the processor to: receive a first separation from the user of the first vehicle , the first separation being input via the user input interface ; and responsive to receiving a first separation from the user of the first vehicle , determine a space cushion between the second vehicle and the first vehicle , the space cushion is determined either based on a second separation communicated from the second vehicle via the inter-vehicle communication system , or on the first separation and the second separation; and control a distance between the first vehicle and the second vehicle based on the space cushion. receive a first separation from the user of the first vehicle , the first separation being input via the user input interface ; and responsive to receiving a first separation from the user of the first vehicle , determine a space cushion between the second vehicle and the first vehicle , the space cushion is determined either based on a second separation communicated from the second vehicle via the inter-vehicle communication system , or on the first separation and the second separation; and control a distance between the first vehicle and the second vehicle based on the space cushion.