mhurhangee/ep-ind-claims huggingface dataset:
A wireless transmit/receive unit comprising at least one processor configured to: receive, from a network, configuration information comprising a set of non-orthogonal multiple access resources and a multiple access signature set, wherein the set of non-orthogonal multiple access resources comprises a first non-orthogonal multiple access zone associated with a first set of time-frequency resources and a second non-orthogonal multiple access zone associated with a second set of time-frequency resources; determine parameters related to service quality aspects of data payload for a non-orthogonal multiple access transmission by the wireless transmit/receive unit to the network, wherein the parameters comprise at least one of a reliability parameter or a latency parameter; determine a non-orthogonal multiple access zone from the received configuration information based on a measured signal to noise ratio, wherein the determined non-orthogonal multiple access zone comprises the first non-orthogonal multiple access zone or the second non-orthogonal multiple access zone; and send the non-orthogonal multiple access transmission using the set of time-frequency resources associated with the determined non-orthogonal multiple access zone and using a multiple access signature determined from the multiple access signature set for the determined non-orthogonal multiple access zone according to the at least one of a reliability parameter or a latency parameter. receive, from a network, configuration information comprising a set of non-orthogonal multiple access resources and a multiple access signature set, wherein the set of non-orthogonal multiple access resources comprises a first non-orthogonal multiple access zone associated with a first set of time-frequency resources and a second non-orthogonal multiple access zone associated with a second set of time-frequency resources; determine parameters related to service quality aspects of data payload for a non-orthogonal multiple access transmission by the wireless transmit/receive unit to the network, wherein the parameters comprise at least one of a reliability parameter or a latency parameter; determine a non-orthogonal multiple access zone from the received configuration information based on a measured signal to noise ratio, wherein the determined non-orthogonal multiple access zone comprises the first non-orthogonal multiple access zone or the second non-orthogonal multiple access zone; and send the non-orthogonal multiple access transmission using the set of time-frequency resources associated with the determined non-orthogonal multiple access zone and using a multiple access signature determined from the multiple access signature set for the determined non-orthogonal multiple access zone according to the at least one of a reliability parameter or a latency parameter.
A gas turbine engine defining a radial direction and an axial direction, the gas turbine engine comprising: a compressor section (210, 212) and a turbine section (216, 218) arranged in serial flow order, the compressor section and turbine section together defining a core air flowpath; a rotary component rotatable with at least a portion of the compressor section and with at least a portion of the turbine section; an electric machine coupled to the rotary component at least partially inward of the core air flowpath along the radial direction; and an electric communication bus electrically connected to the electric machine, at least a portion of the electric communication bus extending through the core air flowpath; wherein the electric communication bus comprises an intermediate section, the intermediate section comprising an electric cable positioned within a conduit containing a cooling fluid; and the cooling fluid is a lubricant. a compressor section (210, 212) and a turbine section (216, 218) arranged in serial flow order, the compressor section and turbine section together defining a core air flowpath; a rotary component rotatable with at least a portion of the compressor section and with at least a portion of the turbine section; an electric machine coupled to the rotary component at least partially inward of the core air flowpath along the radial direction; and an electric communication bus electrically connected to the electric machine, at least a portion of the electric communication bus extending through the core air flowpath; wherein the electric communication bus comprises an intermediate section, the intermediate section comprising an electric cable positioned within a conduit containing a cooling fluid; and the cooling fluid is a lubricant.
A computer-readable storage medium, wherein the computer-readable storage medium stores instructions, and when the instructions are run on a computer in an access point, the computer is enabled to perform a method for transmitting wireless local area network, WLAN data between an access point and at least one station, wherein a time domain of the WLAN includes a contention window and a scheduling window, wherein if the AP obtains a right to use a channel in the contention window the AP is configured to enter the scheduling window, wherein the scheduling window is a time length during which a communication between the AP and the at least one station is scheduled by the AP, and wherein the method comprises: within the scheduling window, sending a downlink, DL, subframe, wherein the DL subframe is configured to trigger a transmission of a UL subframe, and the DL subframe includes an IEEE 802.11ac preamble and a high efficiency WLAN/WiFi, HEW, preamble; and within the scheduling window, after sending the DL subframe, receivingthe UL subframe, wherein the UL subframe includes an IEEE 802.11ac preamble, a HEW preamble, and a UL multi-user, MU, part, wherein the UL MU part includes ACK information for the DL subframe and UL data payload. within the scheduling window, sending a downlink, DL, subframe, wherein the DL subframe is configured to trigger a transmission of a UL subframe, and the DL subframe includes an IEEE 802.11ac preamble and a high efficiency WLAN/WiFi, HEW, preamble; and within the scheduling window, after sending the DL subframe, receivingthe UL subframe, wherein the UL subframe includes an IEEE 802.11ac preamble, a HEW preamble, and a UL multi-user, MU, part, wherein the UL MU part includes ACK information for the DL subframe and UL data payload.
A method performed using one or more processors for securing data in a storage grid, comprising: generating a storage key from key shares of at least two storage clusters of a storage grid having at least three storage clusters; generating a grid key from at least one of the storage key and an external secret; encrypting data with the grid key to yield once encrypted data, wherein the grid key is applied to encrypt the data; encrypting the once encrypted data with the storage key to yield twice encrypted data; storing the twice encrypted data in a first storage cluster of the storage grid; and storing a replicated version of the twice encrypted data in a second storage cluster of the storage grid. generating a storage key from key shares of at least two storage clusters of a storage grid having at least three storage clusters; generating a grid key from at least one of the storage key and an external secret; encrypting data with the grid key to yield once encrypted data, wherein the grid key is applied to encrypt the data; encrypting the once encrypted data with the storage key to yield twice encrypted data; storing the twice encrypted data in a first storage cluster of the storage grid; and storing a replicated version of the twice encrypted data in a second storage cluster of the storage grid.
A method for performing sidelink, SL, communication by a first apparatus, the method including: transmitting, to a second apparatus through a physical sidelink control channel, PSCCH, a first sidelink control information including (i) reserved bits with a value set to zero, (ii) format information regarding a second sidelink control information, (iii) resource information regarding the second sidelink control information, and (iv) code rate information regarding the second sidelink control information; and transmitting, to the second apparatus through a physical sidelink shared channel, PSSCH, related to the PSCCH, the second sidelink control information including (i) information regarding a destination identifier, ID, and (ii) hybrid automatic repeat request, HARQ, feedback-related information. transmitting, to a second apparatus through a physical sidelink control channel, PSCCH, a first sidelink control information including (i) reserved bits with a value set to zero, (ii) format information regarding a second sidelink control information, (iii) resource information regarding the second sidelink control information, and (iv) code rate information regarding the second sidelink control information; and transmitting, to the second apparatus through a physical sidelink shared channel, PSSCH, related to the PSCCH, the second sidelink control information including (i) information regarding a destination identifier, ID, and (ii) hybrid automatic repeat request, HARQ, feedback-related information.
An in vitro method of diagnosing an elevated level of α-synuclein in the brain of a human subject comprising: (a) assaying the level of α-synuclein in a blood plasma sample or cerebrospinal fluid sample obtained from the human subject at a specified time interval following peripheral administration to the human subject of an anti-α-synuclein antibody or antigen-binding fragment thereof, wherein the antibody or fragment thereof can bind α-synuclein with sufficient affinity to alter the net efflux of α-synuclein from brain to blood or CSF; (b) comparing the assayed level of the α-synuclein in the blood plasma sample or CSF sample to a reference standard; wherein the difference or similarity between the level of α-synuclein in the blood plasma sample or CSF sample and the reference standard correlates with the level of α-synuclein in the brain of the human subject. (a) assaying the level of α-synuclein in a blood plasma sample or cerebrospinal fluid sample obtained from the human subject at a specified time interval following peripheral administration to the human subject of an anti-α-synuclein antibody or antigen-binding fragment thereof, wherein the antibody or fragment thereof can bind α-synuclein with sufficient affinity to alter the net efflux of α-synuclein from brain to blood or CSF; (b) comparing the assayed level of the α-synuclein in the blood plasma sample or CSF sample to a reference standard; wherein the difference or similarity between the level of α-synuclein in the blood plasma sample or CSF sample and the reference standard correlates with the level of α-synuclein in the brain of the human subject.
A stator for a permanent magnet motor, comprising: a yoke comprising an outer support and forming an opening; a first tooth extending into the opening and comprising a first stem portion and a first arc portion, wherein the first arc portion and the first stem portion form a first receiving region configured to receive a first number of turns N1 of a first stator coil, wherein the first arc portion extends from the first stem portion over a first extension length; and a second tooth extending into the opening adjacent the first tooth and comprising a second stem portion and a second arc portion, wherein the second arc portion and the second stem portion form a second receiving region configured to receive a second number of turns N2 of a second stator coil, wherein the second arc portion extends from the second stem portion over a second extension length; wherein the first extension length is different than the second extension length, and wherein the difference is based on a turn ratio between the first number of turns N1 to the second number of turns N2, characterized in that the dimensions of the first receiving region and the second receiving region are in a proportion equal to the turn ratio, wherein the turn ratio between the first number of turns N1 to the second number of turns N2 is at least 2:1. a yoke comprising an outer support and forming an opening; a first tooth extending into the opening and comprising a first stem portion and a first arc portion, wherein the first arc portion and the first stem portion form a first receiving region configured to receive a first number of turns N1 of a first stator coil, wherein the first arc portion extends from the first stem portion over a first extension length; and a second tooth extending into the opening adjacent the first tooth and comprising a second stem portion and a second arc portion, wherein the second arc portion and the second stem portion form a second receiving region configured to receive a second number of turns N2 of a second stator coil, wherein the second arc portion extends from the second stem portion over a second extension length; wherein the first extension length is different than the second extension length, and wherein the difference is based on a turn ratio between the first number of turns N1 to the second number of turns N2, characterized in that the dimensions of the first receiving region and the second receiving region are in a proportion equal to the turn ratio, wherein the turn ratio between the first number of turns N1 to the second number of turns N2 is at least 2:1.
A vehicular liquid storage system comprising: - a liquid storage tank, - a pump arranged for pumping liquid from said liquid storage tank, through a flow path comprising a calibrated flow restriction, - means for assessing a pressure characteristic and a flow characteristic pertaining to said calibrated flow restriction when said liquid runs through said flow path, and processing means configured to determine a viscosity-related quality characteristic of said liquid as a function of said pressure characteristic and said flow characteristic, wherein said flow path further comprises an orifice, wherein said calibrated flow restriction is a separate calibrated flow restriction device, said system being characterized in that: - said calibrated flow restriction comprises a section of fixed length and diameter optimized to amplify the pressure drop across said flow path as a function of the viscosity of said liquid, and that - said means for assessing said pressure characteristic comprise a first pressure sensor at the outlet of said pump, and a second pressure sensor between said orifice and said separate calibrated flow restriction device. - a liquid storage tank, - a pump arranged for pumping liquid from said liquid storage tank, through a flow path comprising a calibrated flow restriction, - means for assessing a pressure characteristic and a flow characteristic pertaining to said calibrated flow restriction when said liquid runs through said flow path, and processing means configured to determine a viscosity-related quality characteristic of said liquid as a function of said pressure characteristic and said flow characteristic, wherein said flow path further comprises an orifice, wherein said calibrated flow restriction is a separate calibrated flow restriction device, - said calibrated flow restriction comprises a section of fixed length and diameter optimized to amplify the pressure drop across said flow path as a function of the viscosity of said liquid, and that - said means for assessing said pressure characteristic comprise a first pressure sensor at the outlet of said pump, and a second pressure sensor between said orifice and said separate calibrated flow restriction device.
An apparatus for a distributed antenna system, DAS, configured to communicate with a plurality of remote antenna units to extend coverage for at least one base station, the apparatus comprising: transceiver circuitry to receive downlink signals from the at least one base station for communications to the remote antenna units (20d, 22d, 20a, 22a) and to transmit uplink signals to the at least one base station based on signals received from the remote antenna units; and controller circuitry operatively coupled to the remote antenna units and configured to control multiple transmissions of the downlink signals from the transceiver circuitry to the remote antenna units via a common downlink signal, including controlling downlink transmission power levels of the remote antenna units, using the common downlink signal and based, at least in part, on signal information received from at least one of the remote antenna units, wherein the downlink signals are transmitted by the transceiver circuitry to multiple antenna units of the remote antenna units, and the remote antenna units are to provide coverage within a service area of the distributed antenna system. transceiver circuitry to receive downlink signals from the at least one base station for communications to the remote antenna units (20d, 22d, 20a, 22a) and to transmit uplink signals to the at least one base station based on signals received from the remote antenna units; and controller circuitry operatively coupled to the remote antenna units and configured to control multiple transmissions of the downlink signals from the transceiver circuitry to the remote antenna units via a common downlink signal, including controlling downlink transmission power levels of the remote antenna units, using the common downlink signal and based, at least in part, on signal information received from at least one of the remote antenna units, wherein the downlink signals are transmitted by the transceiver circuitry to multiple antenna units of the remote antenna units, and the remote antenna units are to provide coverage within a service area of the distributed antenna system.
An EM receiver for underwater electric field measurements comprising; a dipole antenna for detecting a low frequency electrical field signal; means for applying AM modulation to the low frequency electrical field signal to shift the low frequency electrical field signal to a high frequency signal in the kHz range; a fibre-optic voltage sensor and; means for applying AM demodulation to the high frequency signal in the kHz range, resulting in a low frequency output signal that is proportional to the detected low frequency electrical signal.
Biocompatible polymer constituted by a sequence of identical or different components of the following general formula AaXxYyZz wherein: A is a glucose monomer, X is CH 2 COOH or CH 2 COO - Na +, Y is -SO 3 H or -SO 3 - Na +, Z represents functional chemical groups, except benzylamine and sulfonate benzylamine, which are different from X and Y, selected from amino acids, fatty acids, fatty alcohols, ceramides or derivatives thereof, nucleotide addressing sequences, therapeutical agents and diagnostic agents, the groups X, Y being fixed on the monomer A, a represents the number of monomers A, the mass of said polymers of formula AaXxYy being greater than 5,000 Daltons, x represents a substitution rate of all the monomers A by X groups, which is between 20 and 150%, and y represents a substitution rate of all the monomers A by Y groups, which is between 30 and 150%, Z represents the substitution rate of the all monomers A by Z groups, wherein 0<z≤50%. A is a glucose monomer, X is CH 2 COOH or CH 2 COO - Na +, Y is -SO 3 H or -SO 3 - Na +, Z represents functional chemical groups, except benzylamine and sulfonate benzylamine, which are different from X and Y, selected from amino acids, fatty acids, fatty alcohols, ceramides or derivatives thereof, nucleotide addressing sequences, therapeutical agents and diagnostic agents, the groups X, Y being fixed on the monomer A, a represents the number of monomers A, the mass of said polymers of formula AaXxYy being greater than 5,000 Daltons, x represents a substitution rate of all the monomers A by X groups, which is between 20 and 150%, and y represents a substitution rate of all the monomers A by Y groups, which is between 30 and 150%, Z represents the substitution rate of the all monomers A by Z groups, wherein 0<z≤50%.
A system comprising: a vehicle; a light source being part of a LIDAR device of the vehicle, wherein the light source is configured to emit at least one light pulse toward an environment of the vehicle; and a controller operable to: determine an emission vector of the at least one light pulse; determine an elevation angle component of the emission vector; dynamically determine a ground-skimming beam elevation angle based on a predetermined height above a roadway at a predetermined distance away from the vehicle; compare the elevation angle component to the ground-skimming beam elevation angle; and dynamically adjust a per pulse energy of at least one subsequent light pulse based on the comparison. a vehicle; a light source being part of a LIDAR device of the vehicle, wherein the light source is configured to emit at least one light pulse toward an environment of the vehicle; and a controller operable to: determine an emission vector of the at least one light pulse; determine an elevation angle component of the emission vector; dynamically determine a ground-skimming beam elevation angle based on a predetermined height above a roadway at a predetermined distance away from the vehicle; compare the elevation angle component to the ground-skimming beam elevation angle; and dynamically adjust a per pulse energy of at least one subsequent light pulse based on the comparison. determine an emission vector of the at least one light pulse; determine an elevation angle component of the emission vector; dynamically determine a ground-skimming beam elevation angle based on a predetermined height above a roadway at a predetermined distance away from the vehicle; compare the elevation angle component to the ground-skimming beam elevation angle; and dynamically adjust a per pulse energy of at least one subsequent light pulse based on the comparison.
Moulded shoe bottom, of the type provided with a lower tread, a heel and an upper plant with a dense series of protuberances that project from the bottom wall of a first cavity, having the same surface as the half plant of the bottom, each protuberance having a vertical stem with a circular hollow section, bottom characterised in that each protuberance has a mushroom configuration that includes an enlarged head and the heel is provided with a second cavity, from which a collar with basically rectangular section and rounded corners projects in central position.
A process for extracting uranium from a saline acidic uranium, chloride, iron and sulphate containing solution, having > 5 g/L chloride, including the steps: a. contacting the solution with an organic phase containing a trialkylphosphine oxide as an extractant to form a uranium loaded organic phase; b. scrubbing the uranium loaded organic phase with a scrubbing solution comprising a sulfuric acid based aqueous solution to remove any impurities and form a scrubbed organic phase; c. stripping uranium from the scrubbed organic phase with a concentrated sulphate solution having a sulphate concentration greater than 1 M to produce an aqueous uranium strip solution; and d. precipitating a uranium product from the aqueous uranium strip solution. a. contacting the solution with an organic phase containing a trialkylphosphine oxide as an extractant to form a uranium loaded organic phase; b. scrubbing the uranium loaded organic phase with a scrubbing solution comprising a sulfuric acid based aqueous solution to remove any impurities and form a scrubbed organic phase; c. stripping uranium from the scrubbed organic phase with a concentrated sulphate solution having a sulphate concentration greater than 1 M to produce an aqueous uranium strip solution; and d. precipitating a uranium product from the aqueous uranium strip solution.