mhurhangee/ep-ind-claims huggingface dataset:
A method of determining one or more interaction parameters for the interaction between an analyte and a ligand using a biosensor, which comprises the steps of: A: providing a sensor surface having the ligand immobilized thereto, B: contacting the sensor surface with a control analyte, C: registering the sensor response from binding of the control analyte to binding sites of the ligand, D: determining the control saturation response (R maxC) for the interaction between the control analyte and the ligand, E: transforming the control saturation response (R maxC) to an analyte saturation response (R maxA) using the relative molar response contribution of the analyte and the control analyte. F: contacting the sensor surface with one or more samples containing respectively a concentration or different concentrations of the analyte, G: registering the sensor response from binding of the analyte to the binding sites, and H: fitting the registered sensor response to a predetermined interaction model using the analyte saturation response (R maxA) and the analyte concentration or concentrations to determine the interaction parameters. A: providing a sensor surface having the ligand immobilized thereto, B: contacting the sensor surface with a control analyte, C: registering the sensor response from binding of the control analyte to binding sites of the ligand, D: determining the control saturation response (R maxC) for the interaction between the control analyte and the ligand, E: transforming the control saturation response (R maxC) to an analyte saturation response (R maxA) using the relative molar response contribution of the analyte and the control analyte. F: contacting the sensor surface with one or more samples containing respectively a concentration or different concentrations of the analyte, G: registering the sensor response from binding of the analyte to the binding sites, and H: fitting the registered sensor response to a predetermined interaction model using the analyte saturation response (R maxA) and the analyte concentration or concentrations to determine the interaction parameters.
Method for controlling the use of a data stream transmitted during a communication that is set up between at least one transmitter device (15, 13) and a recipient terminal (12, 15), characterized in that in the course of a phase of negotiation of the parameters of the data stream of the communication, the method comprises: - a step of automatic determination of at least one rule of use by the recipient terminal of the data stream of the communication, according to the recipient terminal and at least one criterion chosen from among a history of communication with the recipient terminal, a link to the recipient terminal, a type of recipient terminal, a type of communication with the recipient terminal, a type of connectivity with the recipient terminal, and/or according to an address or an access network used by the recipient terminal to reach the transmitter device so as to set up the communication; - a step of insertion of the at least one determined rule of use into a message for negotiation of the parameters of the data stream of the communication, the message being intended to be transmitted to the recipient terminal (12, 15). - a step of automatic determination of at least one rule of use by the recipient terminal of the data stream of the communication, according to the recipient terminal and at least one criterion chosen from among a history of communication with the recipient terminal, a link to the recipient terminal, a type of recipient terminal, a type of communication with the recipient terminal, a type of connectivity with the recipient terminal, and/or according to an address or an access network used by the recipient terminal to reach the transmitter device so as to set up the communication; - a step of insertion of the at least one determined rule of use into a message for negotiation of the parameters of the data stream of the communication, the message being intended to be transmitted to the recipient terminal (12, 15).
A can end for a two-piece beverage container, the can end comprising: a curl positioned about a longitudinal axis and defining an outer perimeter of the can end having a diameter greater than 65mm and less than 70mm; a circumferential wall angled downwardly and radially inwardly relative to a radially inner portion of the curl wherein an angle of the circumferential wall is greater than about 10°; a countersink extending downwardly and radially inwardly relative to the circumferential wall; a center panel extending radially outwardly from the longitudinal axis towards the countersink, wherein the center panel has a diameter greater than 57mm and wherein the center panel further has a diameter greater than 87.7% of the overall diameter of the can end; a panel radius joining the center panel with the countersink; a frangible score and a hinge portion defining an openable tear panel in the center panel; and a stay-on tab attached to the center panel having a nose portion overlying the tear panel opposite a lift end of the tab. a curl positioned about a longitudinal axis and defining an outer perimeter of the can end having a diameter greater than 65mm and less than 70mm; a circumferential wall angled downwardly and radially inwardly relative to a radially inner portion of the curl wherein an angle of the circumferential wall is greater than about 10°; a countersink extending downwardly and radially inwardly relative to the circumferential wall; a center panel extending radially outwardly from the longitudinal axis towards the countersink, wherein the center panel has a diameter greater than 57mm and wherein the center panel further has a diameter greater than 87.7% of the overall diameter of the can end; a panel radius joining the center panel with the countersink; a frangible score and a hinge portion defining an openable tear panel in the center panel; and a stay-on tab attached to the center panel having a nose portion overlying the tear panel opposite a lift end of the tab.
A method of evaluating a part, wherein a resonance inspection comprises exciting a part-under-test at a plurality of input frequencies and obtaining a frequency response of said part-under-test at each of said plurality of input frequencies, wherein a surface vibration inspection comprises vibrating said part-under-test and assessing surface vibrations of said part-under test, and wherein said method comprises the steps of: conducting a first inspection of a first part-under-test, wherein said first inspection comprises performing said resonance inspection on said first part-under-test; conducting a second inspection of said first part-under-test, wherein said second inspection comprises performing said surface vibration inspection on said first part-under-test; and evaluating said first part-under-test based upon each of said first and second inspections, the method being characterised in that: said first part-under-test comprises a plurality of similarly configured/sized fins, or a plurality of similarly configured/sized blades mounted on a common body, wherein said evaluating step comprises conducting a separate said resonance inspection on each of said fins or blades in response to at least one of said first and second inspections identifying an anomaly in results from said first and second inspections. conducting a first inspection of a first part-under-test, wherein said first inspection comprises performing said resonance inspection on said first part-under-test; conducting a second inspection of said first part-under-test, wherein said second inspection comprises performing said surface vibration inspection on said first part-under-test; and evaluating said first part-under-test based upon each of said first and second inspections, the method being characterised in that: said first part-under-test comprises a plurality of similarly configured/sized fins, or a plurality of similarly configured/sized blades mounted on a common body, wherein said evaluating step comprises conducting a separate said resonance inspection on each of said fins or blades in response to at least one of said first and second inspections identifying an anomaly in results from said first and second inspections.
A bispecific antibody specifically binding to the extracellular domain of human BCMA and human CD3ε, for use in the treatment of a patient suffering from multiple myeloma, wherein the ratio of T cells (effector cells) to target cells (E:T ratio) in an isolated body fluid sample of said patient is 0.5: 1 or higher, wherein the target cells express BCMA on their surface.
A composite pull tab comprising an electrostatic eliminating unit, characterized in that the pull tab comprises two metal decoration parts (2, 4) spaced from each other, namely a first metal decoration part and a second metal decoration part; connecting through holes are respectively provided on inner leg portions (21, 41) of the two metal decoration parts (2, 4); the electrostatic eliminating unit is electrically connected between the inner leg portions (21, 41) of the two metal decoration parts (2, 4); the pull tab further comprises a plastic encapsulation part; the plastic encapsulation part is welded on the inner leg portions (21, 41) of the two metal decoration parts (2, 4) and fills the connecting through holes so as to fixedly connect the two metal decoration parts (2, 4) as a whole; the electrostatic eliminating unit is accommodated in the plastic encapsulation part; and outer leg portions (20, 40)_of the two metal decoration parts (2, 4) are respectively exposed outside the plastic encapsulation part.
A process for operating a burner of a rotary kiln, wherein the gas streams supplied to the rotary kiln comprise in total more than 50% by volume of oxygen, wherein the burner has a burner orifice from which a fuel-gas mixture is discharged and wherein at least one state variable of the burner flame, in particular the ignition distance, the flame shape, the flame length and/or the flame width, is determined, characterized in that the flow velocity, the amount and/or the momentum of the fuel-gas mixture and/or the fuel properties is under open-loop/closed-loop control in accordance with the determined state variable, wherein the exhaust gas from the rotary kiln is supplied at least in part to the burner. wherein the gas streams supplied to the rotary kiln comprise in total more than 50% by volume of oxygen, wherein the burner has a burner orifice from which a fuel-gas mixture is discharged and wherein at least one state variable of the burner flame, in particular the ignition distance, the flame shape, the flame length and/or the flame width, is determined, characterized in that the flow velocity, the amount and/or the momentum of the fuel-gas mixture and/or the fuel properties is under open-loop/closed-loop control in accordance with the determined state variable, wherein the exhaust gas from the rotary kiln is supplied at least in part to the burner.
A method for receiving control signaling and for determining information, comprising: receiving a first signal and a second signal, determining a quasi co-location, QCL, parameter of the first signal based on a QCL parameter of the second signal, wherein the first signal and the second signal are received at a same time-domain position, the first signal comprising a first aperiodic downlink measurement reference signal and the second signal comprising a second aperiodic downlink measurement reference signal, and wherein a time interval is greater than or equal to a predetermined threshold X2, the time interval being between the second signal and a second control signaling scheduling the second signal, and X2 being real number. receiving a first signal and a second signal, determining a quasi co-location, QCL, parameter of the first signal based on a QCL parameter of the second signal, wherein the first signal and the second signal are received at a same time-domain position, the first signal comprising a first aperiodic downlink measurement reference signal and the second signal comprising a second aperiodic downlink measurement reference signal, and wherein a time interval is greater than or equal to a predetermined threshold X2, the time interval being between the second signal and a second control signaling scheduling the second signal, and X2 being real number.
Method for drying painted objects, in particular vehicle bodies, that are transported through a closed dryer after being painted, in which the exhaust air from the dryer is supplied to a thermal post-combustion system via electromotively operated exhaust air blowers and is heated in said system and is guided as clean gas through separately arranged circulation gas recuperators (10, 12) and at least one separately arranged fresh air recuperator, in which the circulation gas removed from the dryer and the fresh air are heated and subsequently supplied into the dryer via electromotively operated circulation gas and fresh air blowers, wherein the hot clean gas exiting the thermal post-combustion system is guided in a clean gas pipeline through the dryer and supplied to a first circulation gas recuperator for heating the circulation gas, afterwards in a clean gas pipeline further through the dryer, and is then supplied to at least a second circulation gas recuperator and is subsequently supplied via a clean gas pipeline again through the dryer and finally to a fresh air recuperator for heating the fresh air to be supplied to the dryer particularly in the inlet and outlet region of the drying objects, and wherein the fresh air is guided - prior to the entry into the fresh air recuperator - through an annular gap enclosed between the outer skin and an outer housing of the thermal post-combustion system, and wherein a pollutant concentration C-total of organic solvents is set to a control variable and monitored by a PID-regulator, wherein the PID regulator gives a controlled variable to the frequency inverter of the electric motors of the fresh air blowers and exhaust gas blowers (18, 19) upon increasing C-total values, whereby a change of the revolutions of the electric motors is effected and the desired C-total concentration in the dryer is reset again.
A transmission arrangement for an agricultural vehicle, the transmission arrangement comprising a range gearbox having an input shaft driveably connectable to a prime mover of a vehicle in which the transmission is mounted and an output shaft driveably connected to the input shaft to provide a number of drive ratios and operable in use to provide drive to at least one ground engaging member of the vehicle, the transmission also comprising an auxiliary drive shaft driveably connectable to the prime mover independently of the range gearbox input shaft, wherein the transmission comprises a torque fill drive system (16; 16'; 16", 16′′′) operative between the auxiliary drive shaft and the range gearbox output shaft, the torque fill drive system comprising a torque fill clutch (74; 74'; 74"; 74′′′) and configured, in use, to transmit torque from the auxiliary drive shaft to the range gearbox output shaft when the torque fill clutch is engaged characterized in that the torque fill drive system (16; 16'; 16", 16′′′) is configured, in use, to engage the torque fill clutch (74; 74'; 74"; 74′′′) so as to transmit torque from the auxiliary drive shaft to the range gearbox output shaft during a change in the range gearbox.
A method of estimating a location of a mobile device within an environment based on an arrangement of wireless reference nodes, each of the reference nodes being a device for transmitting or receiving wireless signals; the method comprising: obtaining a respective measurement (M(b)) of a beacon signal transmitted wirelessly between the mobile device and each of a plurality (b = 1... B) of said reference nodes; for each of a plurality (p = 1...P) of different pre-determined reference locations within the environment, distinct from the reference nodes, obtaining a corresponding measurement (F(p, b)) of a test signal previously transmitted or modelled to have been transmitted wirelessly between the pre-determined reference location and each of the plurality of reference nodes (b = 1... B); for each of the pre-determined reference locations (p = 1...P), determining for each of said plurality of beacon nodes (b = 1... B) a difference between the respective measurement of the beacon signal and the measurement of the test signal; for each of the pre-determined reference locations, determining a value of a measure of statistical spread in said differences, wherein said measure of statistical spread is a measure of deviation from an average of said differences; and estimating the location of the mobile device from a comparison of the values of said measure of statistical spread determined for the different pre-determined reference locations. obtaining a respective measurement (M(b)) of a beacon signal transmitted wirelessly between the mobile device and each of a plurality (b = 1... B) of said reference nodes; for each of a plurality (p = 1...P) of different pre-determined reference locations within the environment, distinct from the reference nodes, obtaining a corresponding measurement (F(p, b)) of a test signal previously transmitted or modelled to have been transmitted wirelessly between the pre-determined reference location and each of the plurality of reference nodes (b = 1... B); for each of the pre-determined reference locations (p = 1...P), determining for each of said plurality of beacon nodes (b = 1... B) a difference between the respective measurement of the beacon signal and the measurement of the test signal; for each of the pre-determined reference locations, determining a value of a measure of statistical spread in said differences, wherein said measure of statistical spread is a measure of deviation from an average of said differences; and estimating the location of the mobile device from a comparison of the values of said measure of statistical spread determined for the different pre-determined reference locations.
A battery pre-heating apparatus for hybrid electric vehicle, the apparatus comprising: a battery comprised of a plurality of battery cells; a power relay assembly including a first main relay connected to both electrode sides for charge/discharge control of the battery; and a pre-heater including at least one plane heater formed through a heat generating paste composition to pre-heat the battery to a predetermined temperature using a power generated from regenerative braking by being connected between an output terminal of the first main relay and an output terminal of the second main relay, characterized in, that the heat generating paste composition includes a carbon nano tube particle 3∼6 parts by weight, a carbon nanoparticle 0.5∼30 parts by weight, a mixed binder 10∼30 parts by weight, an organic solvent 29∼83 parts by weight and a dispersant 0.5∼5 parts by weight, against a heat generating paste composition 100 parts by weight, and that the mixed binder is a mixture of epoxy acrylate, polyvinyl acetal and phenolic resin, or is a mixture of hexamethylene diisocyanate, polyvinyl acetal and phenolic resin. a battery comprised of a plurality of battery cells; a power relay assembly including a first main relay connected to both electrode sides for charge/discharge control of the battery; and a pre-heater including at least one plane heater formed through a heat generating paste composition to pre-heat the battery to a predetermined temperature using a power generated from regenerative braking by being connected between an output terminal of the first main relay and an output terminal of the second main relay, characterized in, that the heat generating paste composition includes a carbon nano tube particle 3∼6 parts by weight, a carbon nanoparticle 0.5∼30 parts by weight, a mixed binder 10∼30 parts by weight, an organic solvent 29∼83 parts by weight and a dispersant 0.5∼5 parts by weight, against a heat generating paste composition 100 parts by weight, and that the mixed binder is a mixture of epoxy acrylate, polyvinyl acetal and phenolic resin, or is a mixture of hexamethylene diisocyanate, polyvinyl acetal and phenolic resin.
A method for adaptive streaming of multimedia data, the method comprising: receiving, by a media device, a request for streaming a multimedia data, wherein the multimedia data is divided into a plurality of data packets; identifying, by the media device, network interfaces available in the media device for streaming the multimedia data; calculating a bandwidth speed of each of the network interfaces based on sample data received by the media device from the network interface and time taken by the sample data to reach the media device, wherein calculating the bandwidth speed is carried out by dividing sample data received by the media device from the network interface by the time taken by the sample data to reach the media device; determining a bandwidth speed required for receiving the multimedia data on each of the network interfaces based on the calculated bandwidth speeds, wherein determining the bandwidth speed required for receiving the multimedia data on each of the network interfaces comprises multiplying the calculated bandwidth speed of the network interface by a total bandwidth speed required to receive the multimedia data and divided by a summation of the calculated bandwidth speeds of the network interfaces; allocating, by the media device, data packets from the plurality of data packets among the network interfaces (101 1, 101 2, 101 3) based on the determined bandwidth speeds; and requesting, by the media device, the data packets of the multimedia data over the allocated interfaces (101 1, 101 2, 101 3), for adaptively streaming the multimedia data on the media device. receiving, by a media device, a request for streaming a multimedia data, wherein the multimedia data is divided into a plurality of data packets; identifying, by the media device, network interfaces available in the media device for streaming the multimedia data; calculating a bandwidth speed of each of the network interfaces based on sample data received by the media device from the network interface and time taken by the sample data to reach the media device, wherein calculating the bandwidth speed is carried out by dividing sample data received by the media device from the network interface by the time taken by the sample data to reach the media device; determining a bandwidth speed required for receiving the multimedia data on each of the network interfaces based on the calculated bandwidth speeds, wherein determining the bandwidth speed required for receiving the multimedia data on each of the network interfaces comprises multiplying the calculated bandwidth speed of the network interface by a total bandwidth speed required to receive the multimedia data and divided by a summation of the calculated bandwidth speeds of the network interfaces; allocating, by the media device, data packets from the plurality of data packets among the network interfaces (101 1, 101 2, 101 3) based on the determined bandwidth speeds; and requesting, by the media device, the data packets of the multimedia data over the allocated interfaces (101 1, 101 2, 101 3), for adaptively streaming the multimedia data on the media device.
Piston cooling nozzle having a cylinder housing, having a piston and a spring, wherein the piston is disposed in the cylinder housing so as to be displaceable counter to the pressure of a compressed oil, wherein the piston by means of the spring is pre-loaded in relation to a valve seat, wherein the valve seat interacts with a piston head, wherein a cavity is configured downstream of the valve seat, wherein, proceeding from the cavity, a transverse line extends at least partially in the piston, wherein the transverse line opens into a longitudinal line, characterized in that the piston has a shank, wherein the longitudinal line extends within the shank, wherein the shank is encompassed by the spring, wherein the shank penetrates an opening in a base part.