mhurhangee/ep-ind-claims huggingface dataset:
A data processing method for a client, comprising: acquiring protocol data from a server, wherein the protocol data is formed by encapsulating transmission data in a set protocol by the server; parsing the protocol data to obtain the set protocol; identifying a protocol header, a protocol body and a protocol exception-processing part of the set protocol; and processing the protocol data according to the protocol header, the protocol body and the protocol exception-processing part; characterized in that, wherein the processing comprises: determining, according to the protocol header, whether the set protocol is applicable to the client; processing the protocol data according to the protocol body in response to determining that the set protocol is applicable to the client according to the protocol header and not processing the protocol exception-processing part; and processing the protocol data according to the protocol exception-processing part in response to determining that the set protocol is inapplicable to the client according to the protocol header and not processing the protocol body. acquiring protocol data from a server, wherein the protocol data is formed by encapsulating transmission data in a set protocol by the server; parsing the protocol data to obtain the set protocol; identifying a protocol header, a protocol body and a protocol exception-processing part of the set protocol; and processing the protocol data according to the protocol header, the protocol body and the protocol exception-processing part; characterized in that, wherein the processing comprises: determining, according to the protocol header, whether the set protocol is applicable to the client; processing the protocol data according to the protocol body in response to determining that the set protocol is applicable to the client according to the protocol header and not processing the protocol exception-processing part; and processing the protocol data according to the protocol exception-processing part in response to determining that the set protocol is inapplicable to the client according to the protocol header and not processing the protocol body. determining, according to the protocol header, whether the set protocol is applicable to the client; processing the protocol data according to the protocol body in response to determining that the set protocol is applicable to the client according to the protocol header and not processing the protocol exception-processing part; and processing the protocol data according to the protocol exception-processing part in response to determining that the set protocol is inapplicable to the client according to the protocol header and not processing the protocol body.
Method for saturation detection of a current transformer, wherein the converted current signal is sampled discretely in time and the sampled value per time step is stored by a computing unit in a measured value memory, the model parameters of a signal model having an alternating current element and an exponential direct current element are determined on the basis of a plurality of sampled values and the model parameters are stored in a parameter memory, characterised in that a continuous sum of the sampled values, the effective value of the alternating current element with its mean value and its variance, the base of the exponential direct current element with its mean value and the coefficient of the direct current element with its continuous sum are determined as calculation parameter in successive time steps and a saturation signal is output if the mean value of the base lies outside a base normal range, the mean value of the effective value lies above a first nominal current limit value, the variance of the effective value lies above a minimum variance and the sign of the sampled value coincides with the sign of the continuous sum of the sampled values and the continuous sum of the coefficients of the direct current element.
An antibody that inhibits the interaction between CLEC14A and MMRN2 and which selectively binds to the C-type lectin domain of the CLEC14A polypeptide (residues 32-173) at the region spanning amino acid residues 97-108 of human CLEC14A as set out in Figure 9 and in SEQ ID NO: 17.
An embolic protection system for isolating the cerebral vasculature, the system comprising: a first protection device having a proximal portion configured to remain outside the body and a distal portion, the distal portion comprising: an outer sheath; and a first self-expanding filter assembly radially within the outer sheath; and a second protection device having a proximal portion configured to remain outside the body and a distal portion, the distal portion comprising: a proximal sheath; a proximal self-expanding filter assembly radially within the proximal sheath; a distal sheath; and a distal self-expanding filter assembly radially within the distal sheath, characterized in that the first protection device further comprises a filter wire coupled to a proximal end of the first self-expanding filter and extending distally therefrom, wherein the second protection device further comprises a lumen configured to receive the filter wire of the first protection device. an outer sheath; and a first self-expanding filter assembly radially within the outer sheath; and a second protection device having a proximal portion configured to remain outside the body and a distal portion, the distal portion comprising: a proximal sheath; a proximal self-expanding filter assembly radially within the proximal sheath; a distal sheath; and a distal self-expanding filter assembly radially within the distal sheath, characterized in that the first protection device further comprises a filter wire coupled to a proximal end of the first self-expanding filter and extending distally therefrom, wherein the second protection device further comprises a lumen configured to receive the filter wire of the first protection device. a proximal sheath; a proximal self-expanding filter assembly radially within the proximal sheath; a distal sheath; and a distal self-expanding filter assembly radially within the distal sheath, characterized in that the first protection device further comprises a filter wire coupled to a proximal end of the first self-expanding filter and extending distally therefrom, wherein the second protection device further comprises a lumen configured to receive the filter wire of the first protection device.
An all-optical orthogonal frequency division multiplexing (OFDM) transmitter for generating an OFDM output signal from an input Nyquist optical time domain multiplexing (N-OTDM) signal, the transmitter comprising a first time-domain optical Fourier transform assembly, the first OFT assembly being of a K-D-K configuration and comprising in said order - a first phase modulator, the first phase modulator being configurable for exercising a parabolic phase modulation so as to substantially linearly frequency chirp an optical signal to have a chirp rate K M 311 - a dispersive element with a dispersion parameter D M 31, and - a second phase modulator also being configurable for exercising a parabolic phase modulation so as to substantially linearly frequency chirp an optical signal to have a chirp rate K M 312, wherein the phase modulators are configurable to provide nominally identical chirp rates, K M 311 = K M 312 = K M 31, and the OFT assembly is further configurable such that D M 31 = 1/ K M 31. - a first phase modulator, the first phase modulator being configurable for exercising a parabolic phase modulation so as to substantially linearly frequency chirp an optical signal to have a chirp rate K M 311 - a dispersive element with a dispersion parameter D M 31, and - a second phase modulator also being configurable for exercising a parabolic phase modulation so as to substantially linearly frequency chirp an optical signal to have a chirp rate K M 312, wherein the phase modulators are configurable to provide nominally identical chirp rates, K M 311 = K M 312 = K M 31, and the OFT assembly is further configurable such that D M 31 = 1/ K M 31.
A secondary base station, BS, for performing a modification procedure with a master BS, comprising: a storage device; and a processing circuit, coupled to the storage device, wherein the storage device stores, and the processing circuit is configured to execute, instructions of: transmitting a first message comprising a first radio resource control, RRC, message and a secondary BS configuration to the master BS, wherein the first RRC message comprises a plurality of configurations for a communication device and the secondary BS configuration comprises a plurality of configuration parameters for the master BS to check or understand information in the first RRC message; modifying the secondary BS configuration to a modified secondary BS configuration according to a master BS configuration, when receiving a second message comprising the master BS configuration from the master BS in response to the first message; and transmitting the modified secondary BS configuration to the master BS; wherein the secondary BS and the master BS are adapted to operate in different cellular radio access technologies, RATs. a storage device; and a processing circuit, coupled to the storage device, wherein the storage device stores, and the processing circuit is configured to execute, instructions of: transmitting a first message comprising a first radio resource control, RRC, message and a secondary BS configuration to the master BS, wherein the first RRC message comprises a plurality of configurations for a communication device and the secondary BS configuration comprises a plurality of configuration parameters for the master BS to check or understand information in the first RRC message; modifying the secondary BS configuration to a modified secondary BS configuration according to a master BS configuration, when receiving a second message comprising the master BS configuration from the master BS in response to the first message; and transmitting the modified secondary BS configuration to the master BS; wherein the secondary BS and the master BS are adapted to operate in different cellular radio access technologies, RATs. transmitting a first message comprising a first radio resource control, RRC, message and a secondary BS configuration to the master BS, wherein the first RRC message comprises a plurality of configurations for a communication device and the secondary BS configuration comprises a plurality of configuration parameters for the master BS to check or understand information in the first RRC message; modifying the secondary BS configuration to a modified secondary BS configuration according to a master BS configuration, when receiving a second message comprising the master BS configuration from the master BS in response to the first message; and transmitting the modified secondary BS configuration to the master BS; wherein the secondary BS and the master BS are adapted to operate in different cellular radio access technologies, RATs.
A compound of formula, formula, or formula: wherein Ar is optionally substituted C 6 -C 14 aryl, X is O or S, R 1 is hydrogen, C 1 -C 6 alkyl, or CF 3, A is or wherein n is an integer of 1 to 3, o is 0 or 1, Y is CR 9 R 10 or O, R 2 and R 3 are independently C 1 or C 2 alkyl, R 4 is di(C 1 -C 6 alkylamino)C 2 -C 6 alkyl or a 5- or 6-membered N-containing heterocyclic ring, and R 5 -R 14 are independently hydrogen or C 1 -C 6 alkyl, or a pharmaceutically acceptable salt thereof, stereoisomer thereof, or mixture comprising stereoisomers thereof. wherein Ar is optionally substituted C 6 -C 14 aryl, X is O or S, R 1 is hydrogen, C 1 -C 6 alkyl, or CF 3, A is or wherein n is an integer of 1 to 3, o is 0 or 1, Y is CR 9 R 10 or O, R 2 and R 3 are independently C 1 or C 2 alkyl, R 4 is di(C 1 -C 6 alkylamino)C 2 -C 6 alkyl or a 5- or 6-membered N-containing heterocyclic ring, and R 5 -R 14 are independently hydrogen or C 1 -C 6 alkyl,
A method of fabricating a heterostructure system, comprising: epitaxially growing a crystalline layer of a first substance on a crystalline base layer by surface catalysis in a solution, wherein said growth is self-terminated once a monolayer of said first substance is formed on said base layer; and epitaxially growing an additional crystalline layer of a second substance on said monolayer, thereby forming a heterostructure system comprising said base layer said monolayer and said additional layer, characterised in that the solution is an anhydrous solution. epitaxially growing a crystalline layer of a first substance on a crystalline base layer by surface catalysis in a solution, wherein said growth is self-terminated once a monolayer of said first substance is formed on said base layer; and epitaxially growing an additional crystalline layer of a second substance on said monolayer, thereby forming a heterostructure system comprising said base layer said monolayer and said additional layer, characterised in that the solution is an anhydrous solution.
A powder coating composition, comprising: (a) a flexible dihydrazide amine of an averaged particle size less than 10 microns, represented by the following general structure: where n = 4 - 20; and (b) a dual catalyst package comprising a principal catalyst and an additive catalyst, wherein the principal catalyst can be selected from the group consisting of 2-methyl imidazole, dimethylaminopyridine, an amine adduct, or an imidazole adduct; and the additive catalyst can be selected from an imidazole amine group; and (c) an epoxy binder resin system comprising: a. 7.5 wt% to 22.5 wt% of a toughening resin; and b. 77.5 wt% to 92.5 wt% of a bulk epoxy resin package comprising a blend of epoxy resins having an EEW of between 800 and 2000; all wt% based on the total weight of the resins, corresponding to a resin-to-crosslinker stoichiometric molar ratio of 1.0:1 to 6.0:1. (a) a flexible dihydrazide amine of an averaged particle size less than 10 microns, represented by the following general structure: where n = 4 - 20; and (b) a dual catalyst package comprising a principal catalyst and an additive catalyst, wherein the principal catalyst can be selected from the group consisting of 2-methyl imidazole, dimethylaminopyridine, an amine adduct, or an imidazole adduct; and the additive catalyst can be selected from an imidazole amine group; and (c) an epoxy binder resin system comprising: a. 7.5 wt% to 22.5 wt% of a toughening resin; and b. 77.5 wt% to 92.5 wt% of a bulk epoxy resin package comprising a blend of epoxy resins having an EEW of between 800 and 2000; a. 7.5 wt% to 22.5 wt% of a toughening resin; and b. 77.5 wt% to 92.5 wt% of a bulk epoxy resin package comprising a blend of epoxy resins having an EEW of between 800 and 2000;
An apparatus (100, 200) arranged to heat aerosolisable material to volatilise at least one component of the aerosolisable material, the apparatus comprising: a conductive coil (102, 202) defining an elongate receiving portion arranged to receive a consumable article comprising aerosolisable material, the conductive coil comprising a first end (102a, 202a) and a second end (102b, 202b) opposite the first end; and a clamping structure comprising a first engagement portion arranged to apply a first force to the first end and a second engagement portion arranged to apply a second force, opposing the first force, to the second end, thereby providing a tension in the conductive coil. a conductive coil (102, 202) defining an elongate receiving portion arranged to receive a consumable article comprising aerosolisable material, the conductive coil comprising a first end (102a, 202a) and a second end (102b, 202b) opposite the first end; and a clamping structure comprising a first engagement portion arranged to apply a first force to the first end and a second engagement portion arranged to apply a second force, opposing the first force, to the second end, thereby providing a tension in the conductive coil.
A robot cleaner comprising: a body having an opening (21 a); a dust box provided at the body, to store dust through the opening (21 a); and a brush unit provided at the opening (21 a) of the body to sweep dust on a floor into the dust box through the opening, characterized in that the dust stored in the dust box is caused to be in motion by introducing a flow of air into the dust box through the opening (21 a), and the dust in motion is discharged from the dust box through the opening (21 a) of the body by applying suction thereto during a dust discharge operation. a body having an opening (21 a); a dust box provided at the body, to store dust through the opening (21 a); and a brush unit provided at the opening (21 a) of the body to sweep dust on a floor into the dust box through the opening, characterized in that the dust stored in the dust box is caused to be in motion by introducing a flow of air into the dust box through the opening (21 a), and the dust in motion is discharged from the dust box through the opening (21 a) of the body by applying suction thereto during a dust discharge operation.
A memory interleaving method, comprising: dividing an access capacity into P partial access capacities based on N pieces of configuration information, wherein the P partial access capacities have a same size, the N pieces of configuration information are configuration information of N memory channels, one piece of configuration information corresponds to one memory channel, the configuration information is used to indicate a quantity of capacities mapped to the memory channel, and two capacities are mapped to at least one of the N memory channels, wherein N represents a total quantity of memory channels, and N is an integer greater than or equal to 2; and mapping the P partial access capacities to the N memory channels according to a configuration mapping table, wherein the configuration mapping table is used to indicate a mapping relationship between the capacity and the memory channel; and wherein the N pieces of configuration information comprise M pieces of first configuration information, the first configuration information comprises a memory channel identifier and a first indication identifier, and the first indication identifier is used to indicate that a memory channel corresponding to the memory channel identifier maps two capacities, wherein M is an integer, and M is greater than or equal to 1 and less than N. dividing an access capacity into P partial access capacities based on N pieces of configuration information, wherein the P partial access capacities have a same size, the N pieces of configuration information are configuration information of N memory channels, one piece of configuration information corresponds to one memory channel, the configuration information is used to indicate a quantity of capacities mapped to the memory channel, and two capacities are mapped to at least one of the N memory channels, wherein N represents a total quantity of memory channels, and N is an integer greater than or equal to 2; and mapping the P partial access capacities to the N memory channels according to a configuration mapping table, wherein the configuration mapping table is used to indicate a mapping relationship between the capacity and the memory channel; and wherein the N pieces of configuration information comprise M pieces of first configuration information, the first configuration information comprises a memory channel identifier and a first indication identifier, and the first indication identifier is used to indicate that a memory channel corresponding to the memory channel identifier maps two capacities, wherein M is an integer, and M is greater than or equal to 1 and less than N.
A hydraulic control device for automatic transmission including an electronically controlled throttle device for changing a throttle valve opening of a prime mover by an electric actuator on the basis of an accelerator pedal opening and configured to supply a hydraulic pressure to a friction engaging element (32, 33, 34) of a transmission on the basis of the throttle valve opening, comprising: accelerator pedal opening detection means configured to detect the accelerator pedal opening; throttle valve opening detection means configured to detect the throttle valve opening; shift lever positon detection means configured to detect a position of a shift lever; and hydraulic control means, characterizied in that the hydraulic control means is configured to control a start timing of a supply of the hydraulic pressure to the friction engaging element (32, 33, 34) on the basis of the accelerator pedal opening and the throttle valve opening if the shift lever is changed from an advance position to a reverse position or from the reverse position to the advance position. accelerator pedal opening detection means configured to detect the accelerator pedal opening; throttle valve opening detection means configured to detect the throttle valve opening; shift lever positon detection means configured to detect a position of a shift lever; and hydraulic control means, characterizied in that the hydraulic control means is configured to control a start timing of a supply of the hydraulic pressure to the friction engaging element (32, 33, 34) on the basis of the accelerator pedal opening and the throttle valve opening if the shift lever is changed from an advance position to a reverse position or from the reverse position to the advance position.
A method comprising: hardware logic receiving a first latency tolerance report "LTR" corresponding to an intellectual property "IP" core; the hardware logic receiving a second LTR corresponding to the IP core, the second LTR having a lower latency tolerance than the first LTR; in response to receiving the second LTR, the hardware logic beginning a predetermined timed session having a start time and an end time; the hardware logic determining a firmware has completed processing the second LTR before occurrence of the end time; in response to determining the firmware has completed processing the second LTR before occurrence of the end time, the hardware logic increasing a latency state corresponding to a resource; the hardware logic receiving a third LTR corresponding to the IP core, the third LTR having a lower latency tolerance than the first LTR; in response to receiving the third LTR, the hardware logic beginning an additional predetermined timed session having an additional start time and an additional end time; the hardware logic determining the firmware has not completed processing the third LTR before occurrence of the additional end time; in response to determining the firmware has not completed processing the third LTR before occurrence of the additional end time, the hardware logic decreasing the latency state corresponding to the resource. hardware logic receiving a first latency tolerance report "LTR" corresponding to an intellectual property "IP" core; the hardware logic receiving a second LTR corresponding to the IP core, the second LTR having a lower latency tolerance than the first LTR; in response to receiving the second LTR, the hardware logic beginning a predetermined timed session having a start time and an end time; the hardware logic determining a firmware has completed processing the second LTR before occurrence of the end time; in response to determining the firmware has completed processing the second LTR before occurrence of the end time, the hardware logic increasing a latency state corresponding to a resource; the hardware logic receiving a third LTR corresponding to the IP core, the third LTR having a lower latency tolerance than the first LTR; in response to receiving the third LTR, the hardware logic beginning an additional predetermined timed session having an additional start time and an additional end time; the hardware logic determining the firmware has not completed processing the third LTR before occurrence of the additional end time; in response to determining the firmware has not completed processing the third LTR before occurrence of the additional end time, the hardware logic decreasing the latency state corresponding to the resource.