mhurhangee/ep-ind-claims huggingface dataset:
A method for validating that a first application installed on a first end-user device is authentic, the method comprising the steps of: a credentialing application server of a service controller receiving a request for a device credential from the first end-user device of a plurality of end-user devices, the request including a device identifier and a subscriber identifier, the credentialing application server generating the device credential based on the request received from the first end-user device, storing the device credential in a database; and sending the device credential to the first end-user device, wherein the first end-user device stores the device credential and thereafter uses the device credential for secure communication with the service controller; the service controller obtaining a first application credential from a trusted source, the first application credential being associated with the first application installed on the first end-user device, the service controller generating, using the first application credential and the device credential stored in the database, a signed application credential, and sending the signed application credential to the first end-user device, the signed application credential being generated based on a combination of the first application credential and the device credential. a credentialing application server of a service controller receiving a request for a device credential from the first end-user device of a plurality of end-user devices, the request including a device identifier and a subscriber identifier, the credentialing application server generating the device credential based on the request received from the first end-user device, storing the device credential in a database; and sending the device credential to the first end-user device, wherein the first end-user device stores the device credential and thereafter uses the device credential for secure communication with the service controller; the service controller obtaining a first application credential from a trusted source, the first application credential being associated with the first application installed on the first end-user device, the service controller generating, using the first application credential and the device credential stored in the database, a signed application credential, and sending the signed application credential to the first end-user device, the signed application credential being generated based on a combination of the first application credential and the device credential.
An electric taxi system comprising: An AC power source or a generator configured to provide an AC power source; a main controller configured to generate one or more pulse width modulated control signals; a plurality of motor controllers connected in parallel to the generator or AC power source, wherein each of the plurality of motor controllers receives one of the one or more PWM control signals in the form of a rectangular pulse waveform having a frequency of 10 kHz and a 100 microsecond period; and a plurality of motors, wherein each of the plurality of motors are coupled to one of the plurality of motor controllers, each of the plurality of motors receiving a respective one or more PWM control signals in the form of a rectangular pulse waveform having a frequency of 10 kHz and a 100 microsecond period with the center of the respective PWM pulses having a predetermined delay relative to a prior PWM control signal associated with the plurality of motors.. An AC power source or a generator configured to provide an AC power source; a main controller configured to generate one or more pulse width modulated control signals; a plurality of motor controllers connected in parallel to the generator or AC power source, wherein each of the plurality of motor controllers receives one of the one or more PWM control signals in the form of a rectangular pulse waveform having a frequency of 10 kHz and a 100 microsecond period; and a plurality of motors, wherein each of the plurality of motors are coupled to one of the plurality of motor controllers, each of the plurality of motors receiving a respective one or more PWM control signals in the form of a rectangular pulse waveform having a frequency of 10 kHz and a 100 microsecond period with the center of the respective PWM pulses having a predetermined delay relative to a prior PWM control signal associated with the plurality of motors..
A method for reporting a data volume of data duplication, applied to user equipment, and the method comprising: sending information about data volumes of to-be-reported duplicated data and non-duplicated data to a network side, wherein the information about the data volumes of the duplicated data and the non-duplicated data is distinguished by using at least one of the following information: a logical channel, and a logical channel group, characterized in that, the method further comprises: receiving configuration information from the network side, wherein the configuration information comprises correspondences, that are configured by the network side, between different logical channels or logical channel groups and data reliability requirement information, wherein the data reliability requirement information comprises at least one of the following: whether the logical channels or the logical channel groups correspond to a reliability requirement; and a specific value of the reliability requirement information that corresponds to the logical channels or the logical channel groups. sending information about data volumes of to-be-reported duplicated data and non-duplicated data to a network side, wherein the information about the data volumes of the duplicated data and the non-duplicated data is distinguished by using at least one of the following information: a logical channel, and a logical channel group, characterized in that, the method further comprises: receiving configuration information from the network side, wherein the configuration information comprises correspondences, that are configured by the network side, between different logical channels or logical channel groups and data reliability requirement information, receiving configuration information from the network side, wherein the configuration information comprises correspondences, that are configured by the network side, between different logical channels or logical channel groups and data reliability requirement information, wherein the data reliability requirement information comprises at least one of the following: whether the logical channels or the logical channel groups correspond to a reliability requirement; and a specific value of the reliability requirement information that corresponds to the logical channels or the logical channel groups. whether the logical channels or the logical channel groups correspond to a reliability requirement; and a specific value of the reliability requirement information that corresponds to the logical channels or the logical channel groups.
A sea tunnel, comprising a body, wherein the body has a hollow cavity extending from one end to the other end, the cavity is divided into mutually independent first cavity and second cavity by a passage pavement, the first cavity is wholly or partly protruded out of the sea level, the second cavity is immersed in the seawater, water holes are formed in the second cavity, the second cavity is communicated with the seawater through the water holes, and the bottom end of the body is connected with the seabed through anchor rods, characterized in that the second cavity is symmetrically arranged by taking a vertical axis of the body as the axis of symmetry, and two side walls of the second cavity around the axis of symmetry are provided with the water holes; in that an outer wall of a shell of the body has a bilayer solid structure, and the water holes simultaneously penetrate the bilayer solid structure and communicate the second cavity with the seawater; and in that the first cavity is formed by an outer wall and an inner wall, which are arranged at an interval, the inner wall has a multilayer structure, a plurality of stabilizing mechanisms in a passage direction of the body are respectively arranged between the outer wall and a layer of the inner wall and between adjacent two layers of the inner wall, each stabilizing mechanism comprises a guide rail arranged in a width direction of the body, a plurality of rollers are arranged in the guide rail, each roller is fixed in the guide rail by utilizing a rotating shaft, the rotating shaft is arranged in the passage direction of the body (101, and the roller is respectively butted against the outer wall, the layer of the inner wall and the adjacent two layers of the inner wall. the second cavity is symmetrically arranged by taking a vertical axis of the body as the axis of symmetry, and two side walls of the second cavity around the axis of symmetry are provided with the water holes; in that an outer wall of a shell of the body has a bilayer solid structure, and the water holes simultaneously penetrate the bilayer solid structure and communicate the second cavity with the seawater; and in that the first cavity is formed by an outer wall and an inner wall, which are arranged at an interval, the inner wall has a multilayer structure, a plurality of stabilizing mechanisms in a passage direction of the body are respectively arranged between the outer wall and a layer of the inner wall and between adjacent two layers of the inner wall, each stabilizing mechanism comprises a guide rail arranged in a width direction of the body, a plurality of rollers are arranged in the guide rail, each roller is fixed in the guide rail by utilizing a rotating shaft, the rotating shaft is arranged in the passage direction of the body (101, and the roller is respectively butted against the outer wall, the layer of the inner wall and the adjacent two layers of the inner wall.
A communication device comprising circuitry to: receive packets, corresponding to a single radio bearer, from network devices (120, 130) corresponding to distinct radio access technologies, RATs; identify, based on the packets, sequence numbers, SNs, of missed packets that were not received by the device; create, based on the SNs, a report that identifies the missed packets; and communicate the report to one of the network devices; wherein to create the report, the circuitry is to: include a SN of the first packet in the report; and characterized in that to create the report the circuitry is further to: determine a number of packets between a first packet of the missed packets and a last packet of the missed packets, determine, based on the number of packets between the first packet of the missed packets and a last packet of the missed packets, a number of bits to be used for each missed packet after the first packet of the missed packets to represent the number of packets between the first packet and that missed packet, and for each of the remainder of the missed packets, use the determined number of bits to indicate the number of packets between the first packet and that missed packet. receive packets, corresponding to a single radio bearer, from network devices (120, 130) corresponding to distinct radio access technologies, RATs; identify, based on the packets, sequence numbers, SNs, of missed packets that were not received by the device; create, based on the SNs, a report that identifies the missed packets; and communicate the report to one of the network devices; wherein to create the report, the circuitry is to: include a SN of the first packet in the report; and characterized in that to create the report the circuitry is further to: determine a number of packets between a first packet of the missed packets and a last packet of the missed packets, determine, based on the number of packets between the first packet of the missed packets and a last packet of the missed packets, a number of bits to be used for each missed packet after the first packet of the missed packets to represent the number of packets between the first packet and that missed packet, and for each of the remainder of the missed packets, use the determined number of bits to indicate the number of packets between the first packet and that missed packet. determine a number of packets between a first packet of the missed packets and a last packet of the missed packets, determine, based on the number of packets between the first packet of the missed packets and a last packet of the missed packets, a number of bits to be used for each missed packet after the first packet of the missed packets to represent the number of packets between the first packet and that missed packet, and for each of the remainder of the missed packets, use the determined number of bits to indicate the number of packets between the first packet and that missed packet.
A method of in vitro expanding primary TCR alpha deficient T-cells comprising: (a) Introducing into said primary T-cells at least a pTalpha or a functional variant thereof to support CD3 surface expression; (b) Expanding said cells. (a) Introducing into said primary T-cells at least a pTalpha or a functional variant thereof to support CD3 surface expression; (b) Expanding said cells.
A continuous fiber composite comprising: a continuous fiber layer; a modified polyolefin layer formed on at least one surface of the continuous fiber layer and containing 50 wt% or more of a modified polyolefin resin grafted with a dicarboxylic acid component or an acid anhydride thereof; and a polyolefin resin layer containing a polyolefin resin formed on the modified polyolefin layer, wherein the modified polyolefin resin grafted with the dicarboxylic acid component or an acid anhydride thereof has a melt index of 100 g/10 min at 230 °C to 300 g/10 min at 230 °C (ASTM D1238), and includes a modified polypropylene grafted with maleic acid or maleic anhydride.
An inorganic, organic or organometal compound comprising a cation M of valency m (1≤m≤3), and m anions fitting the formula: wherein R f is a group -CFZ' Z" wherein: - Z' is F or a perfluoroalkyl group having 1 to 3 carbon atoms, - Z" is a group H, F, Cl, an optionally fluorinated or perfluorinated alkoxy group having from 1 to 5 carbon atoms, an optionally fluorinated or perfluorinated oxaalkoxy group having from 1 to 5 carbon atoms, or an optionally fluorinated or perfluorinated alkyl group having from 1 to 5 carbon atoms; Z" being different from F when Z' is F and M is Li. - Z' is F or a perfluoroalkyl group having 1 to 3 carbon atoms, - Z" is a group H, F, Cl, an optionally fluorinated or perfluorinated alkoxy group having from 1 to 5 carbon atoms, an optionally fluorinated or perfluorinated oxaalkoxy group having from 1 to 5 carbon atoms, or an optionally fluorinated or perfluorinated alkyl group having from 1 to 5 carbon atoms; Z" being different from F when Z' is F and M is Li.
A Reed-Solomon encoding method comprising: appending N zeros to a data block to generate a polynomial P x = ∑ i = 0 2 n − 1 a i x i, wherein the coefficients a i are data of the data block including the appended N zeros; successively performing a Horner reduction with α i of the polynomial P ( x) to produce a plurality of remainders β ( i), wherein each remainder β ( i) is produced by Horner reduction with polynomial x + α i thereby successively reducing P(x) by x + α i, wherein i = 0 to N -1; multiplying the remainders β ( i) with corresponding polynomials D i x = ∏ k = 0 N − i − 1 x + α k to generate polynomials β ( i) D ( i) ( x), wherein the coefficients of D ( i) ( x) are stored in a memory, and calculating the sum of all the generated polynomials ∑ i = 0 N − 1 β i D i x representing the remainder coefficients of a division of the polynomial P(x) by a generator polynomial g x = ∏ i = 0 N − 1 x + α i; and appending the remainder coefficients to the data block as parity symbols to form a codeword. appending N zeros to a data block to generate a polynomial P x = ∑ i = 0 2 n − 1 a i x i, wherein the coefficients a i are data of the data block including the appended N zeros; successively performing a Horner reduction with α i of the polynomial P ( x) to produce a plurality of remainders β ( i), wherein each remainder β ( i) is produced by Horner reduction with polynomial x + α i thereby successively reducing P(x) by x + α i, wherein i = 0 to N -1; multiplying the remainders β ( i) with corresponding polynomials D i x = ∏ k = 0 N − i − 1 x + α k to generate polynomials β ( i) D ( i) ( x), wherein the coefficients of D ( i) ( x) are stored in a memory, and calculating the sum of all the generated polynomials ∑ i = 0 N − 1 β i D i x representing the remainder coefficients of a division of the polynomial P(x) by a generator polynomial g x = ∏ i = 0 N − 1 x + α i; and appending the remainder coefficients to the data block as parity symbols to form a codeword.
A non-therapeutic method for improving learning and/or memory behavior in a human infant comprising administering to the infant casein glycomacropeptide in an amount sufficient to improve learning and/or memory behavior in the infant, wherein the amount sufficient to improve learning and/or memory behavior in the infant provides at least 100 mg/kg/day of sialic acid to the infant.
A method for manufacturing a solar cell module in which a first encapsulant and a second encapsulant are provided between two protective members (10, 26), and solar cells are provided between the first encapsulant and the second encapsulant, the method comprising: laminating a plurality of solar cells over a surface of the first encapsulant; fixing a connecting tab wire cover and a connecting tab wire encapsulant with a first adhesive tape, wherein said first tape has an adhesive surface on which an adhesive is applied and wherein said adhesive surface is stuck on the connecting tab wire cover and the connecting tab wire encapsulant through a slit formed in the connecting tab wire encapsulant, said connecting tab wire encapsulant having a wider size than the connecting tab wire cover; inserting the connecting tab wire cover and the connecting tab wire encapsulant thus fixed between the first encapsulant and a connecting tab wire for connecting a plurality of solar cells, with the connecting tab wire cover on the first encapsulant side; and fixing the connecting tab wire cover fixed to the connecting tab wire encapsulant and the connecting tab wire with a second adhesive tape, said second adhesive tape having an adhesive surface on which an adhesive is applied, the adhesive surface being stuck on the first adhesive tape which is already stuck, and the connecting tab wire. laminating a plurality of solar cells over a surface of the first encapsulant; fixing a connecting tab wire cover and a connecting tab wire encapsulant with a first adhesive tape, wherein said first tape has an adhesive surface on which an adhesive is applied and wherein said adhesive surface is stuck on the connecting tab wire cover and the connecting tab wire encapsulant through a slit formed in the connecting tab wire encapsulant, said connecting tab wire encapsulant having a wider size than the connecting tab wire cover; inserting the connecting tab wire cover and the connecting tab wire encapsulant thus fixed between the first encapsulant and a connecting tab wire for connecting a plurality of solar cells, with the connecting tab wire cover on the first encapsulant side; and fixing the connecting tab wire cover fixed to the connecting tab wire encapsulant and the connecting tab wire with a second adhesive tape, said second adhesive tape having an adhesive surface on which an adhesive is applied, the adhesive surface being stuck on the first adhesive tape which is already stuck, and the connecting tab wire.
A method comprising: identifying client events and control events for a network session; replaying the client events and control events for the network session; and characterised by: monitoring the client events and control events during the replaying of the network session; identifying the client events that cannot be successfully applied to the control events; queuing the client events that cannot be successfully applied to the control events; delaying execution of the queued client events until the control events are ready to process the queued client events; and applying the queued client events to the control events when the control events are ready to process the queued client events. identifying client events and control events for a network session; replaying the client events and control events for the network session; and characterised by: monitoring the client events and control events during the replaying of the network session; identifying the client events that cannot be successfully applied to the control events; queuing the client events that cannot be successfully applied to the control events; delaying execution of the queued client events until the control events are ready to process the queued client events; and applying the queued client events to the control events when the control events are ready to process the queued client events. monitoring the client events and control events during the replaying of the network session; identifying the client events that cannot be successfully applied to the control events; queuing the client events that cannot be successfully applied to the control events; delaying execution of the queued client events until the control events are ready to process the queued client events; and applying the queued client events to the control events when the control events are ready to process the queued client events.
A method of wireless communication performed by a transmitter, comprising: determining a first modulation order for a first layer of a communication and a second modulation order for a second layer of the communication, wherein the first modulation order and the second modulation order are different; interleaving bits for one or more of the first layer or the second layer based at least in part on the first modulation order and the second modulation order, wherein the bits are interleaved based at least in part on one or more gaps where a bit is not mapped to a modulated symbol, wherein the one or more gaps are used to prevent a corresponding one or more bits from being mapped to a layer, of the first layer or the second layer, that has a lower modulation order of the first modulation order or the second modulation order, and wherein the size of the one or more gaps is equal to the difference in size between the first modulation order and the second modulation order; and transmitting the interleaved bits via the one or more of the first layer or the second layer. determining a first modulation order for a first layer of a communication and a second modulation order for a second layer of the communication, wherein the first modulation order and the second modulation order are different; interleaving bits for one or more of the first layer or the second layer based at least in part on the first modulation order and the second modulation order, wherein the bits are interleaved based at least in part on one or more gaps where a bit is not mapped to a modulated symbol, wherein the one or more gaps are used to prevent a corresponding one or more bits from being mapped to a layer, of the first layer or the second layer, that has a lower modulation order of the first modulation order or the second modulation order, and wherein the size of the one or more gaps is equal to the difference in size between the first modulation order and the second modulation order; and transmitting the interleaved bits via the one or more of the first layer or the second layer.