mhurhangee/ep-ind-claims huggingface dataset:
A system for authentication, comprising: a token processor coupled to a token memory, said token memory storing shared secret key K and token counter value C, said token memory further storing instructions adapted to be executed by said processor to generate a one time password; a validation server coupled to a validation server memory, said validation server memory storing shared secret key K and validation server counter value C'; said token processor calculating a one time password by: generating a HMAC-SHA-1 value based upon a key K and a counter value C, truncating the HMAC-SHA-1 value modulo 10^ Digit to obtain a first value, where Digit is the number of digits in the one time password; and masking the highest-order bit of the first value to obtain the one time password, and sending the one time password to the validation server for validation, wherein the validation server authenticates the one time password by: calculating a one time password based upon the shared secret key K and the validation server counter value C'; and verifying a match between the one time password received from the token processor with the one time password calculated by the validation server for a successful validation. a token processor coupled to a token memory, said token memory storing shared secret key K and token counter value C, said token memory further storing instructions adapted to be executed by said processor to generate a one time password; a validation server coupled to a validation server memory, said validation server memory storing shared secret key K and validation server counter value C'; said token processor calculating a one time password by: generating a HMAC-SHA-1 value based upon a key K and a counter value C, truncating the HMAC-SHA-1 value modulo 10^ Digit to obtain a first value, where Digit is the number of digits in the one time password; and masking the highest-order bit of the first value to obtain the one time password, and generating a HMAC-SHA-1 value based upon a key K and a counter value C, truncating the HMAC-SHA-1 value modulo 10^ Digit to obtain a first value, where Digit is the number of digits in the one time password; and masking the highest-order bit of the first value to obtain the one time password, and sending the one time password to the validation server for validation, wherein the validation server authenticates the one time password by: calculating a one time password based upon the shared secret key K and the validation server counter value C'; and verifying a match between the one time password received from the token processor with the one time password calculated by the validation server for a successful validation. calculating a one time password based upon the shared secret key K and the validation server counter value C'; and verifying a match between the one time password received from the token processor with the one time password calculated by the validation server for a successful validation.
A method for initializing a mobile terminal using over-the-air, OTA, data, the method, performed by the mobile terminal, comprising: receiving OTA data from a wireless network entity; storing the received OTA data in a first database and a second database which are each included in the mobile terminal; receiving a reset request which requests initialization of parameters associated with the operation of the mobile terminal and which are stored in the first database; and responsive to the reset request, updating parameters of the first database with corresponding parameters of the second database, and updating any remaining parameters of the first database with default parameters. receiving OTA data from a wireless network entity; storing the received OTA data in a first database and a second database which are each included in the mobile terminal; receiving a reset request which requests initialization of parameters associated with the operation of the mobile terminal and which are stored in the first database; and responsive to the reset request, updating parameters of the first database with corresponding parameters of the second database, and updating any remaining parameters of the first database with default parameters.
A graphene dispersion liquid comprising graphene dispersed in an organic solvent and meeting both Equations and given below wherein D is the median diameter (μm) of the graphene measured by the laser diffraction/scattering type particle size distribution measurement method and S is the average size (μm) in the planar direction of the graphene calculated from the arithmetic mean of the longest diameter and shortest diameter of the graphene observed by a laser microscope: 0.5 μ m ≤ S ≤ 15 μm 1.0 ≤ D / S ≤ 3.0. wherein D and S are measured as described in the specification.
A droplet forming device for discharging a droplet in a flying fashion from a nozzle (32, 36), the device comprising a liquid chamber that is communicated with the nozzle (32, 36) and is supplied with a liquid material; a plunger rod having a tip that is moved to advance and retreat within the liquid chamber; a spring that applies a biasing force to the plunger rod; a pressurization chamber that is supplied with a pressurized gas acting to retreat the plunger rod; a pressure source that supplies the pressurized gas to the pressurization chamber; a controller, characterized in that the droplet forming device further comprises a magnetic field generating mechanism (21, 22, 24, 25, 26, 28) that generates an attraction force to act in an advancing direction when the plunger rod approaches a most advanced position thereof, the magnetic field generating mechanism (21, 22, 24, 25, 26, 28) is constituted by a magnetic member disposed on the plunger rod, and a solenoid disposed to face the magnetic member, and the controller energizes the solenoid to generate a magnetic field when the plunger rod is operated to advance, the droplet forming device further comprises an adjustment mechanism that adjusts a fixed position of the magnetic member or the solenoid, wherein the most advanced position of the plunger rod is specified by abutment between the magnetic member and the solenoid, and wherein, in use, the droplet of the liquid material is formed in a state where the tip of the plunger rod does not abut against the valve seat. a liquid chamber that is communicated with the nozzle (32, 36) and is supplied with a liquid material; a plunger rod having a tip that is moved to advance and retreat within the liquid chamber; a spring that applies a biasing force to the plunger rod; a pressurization chamber that is supplied with a pressurized gas acting to retreat the plunger rod; a pressure source that supplies the pressurized gas to the pressurization chamber; a controller, characterized in that the droplet forming device further comprises a magnetic field generating mechanism (21, 22, 24, 25, 26, 28) that generates an attraction force to act in an advancing direction when the plunger rod approaches a most advanced position thereof, the magnetic field generating mechanism (21, 22, 24, 25, 26, 28) is constituted by a magnetic member disposed on the plunger rod, and a solenoid disposed to face the magnetic member, and the controller energizes the solenoid to generate a magnetic field when the plunger rod is operated to advance, the droplet forming device further comprises an adjustment mechanism that adjusts a fixed position of the magnetic member or the solenoid, wherein the most advanced position of the plunger rod is specified by abutment between the magnetic member and the solenoid, and wherein, in use, the droplet of the liquid material is formed in a state where the tip of the plunger rod does not abut against the valve seat.
A semiconductor structure, comprising: a graphene material; and a graphene-lattice matching material over at least a portion of the graphene material, wherein the semiconductor structure has an energy band gap of at least 0.5 eV, and characterized in that: the graphene-lattice matching material is magnesium carbonate. a graphene material; and a graphene-lattice matching material over at least a portion of the graphene material, wherein the semiconductor structure has an energy band gap of at least 0.5 eV, and characterized in that: the graphene-lattice matching material is magnesium carbonate.
A method performed by a network controller in a wireless local area network, WLAN, comprising a plurality of access points, the method comprising: determining radio resource management, RRM, configuration parameters for each of the plurality of access points; transmitting the determined RRM configuration parameters to each of the plurality of access points; obtaining a channel capacity of each of the plurality of access points, wherein the channel capacity is determined as being equal to data throughput scaled by a channel usage factor, wherein the data throughput is determined using data transmission measurements obtained during a predetermined time period, and wherein the channel usage factor is a function of a ratio between a channel idle time measurement determined during the predetermined time period and a channel busy time measurement determined during the predetermined time period; and determining at least one network performance statistic for the WLAN based at least in part on the channel capacity of each of the plurality of access points. determining radio resource management, RRM, configuration parameters for each of the plurality of access points; transmitting the determined RRM configuration parameters to each of the plurality of access points; obtaining a channel capacity of each of the plurality of access points, wherein the channel capacity is determined as being equal to data throughput scaled by a channel usage factor, wherein the data throughput is determined using data transmission measurements obtained during a predetermined time period, and wherein the channel usage factor is a function of a ratio between a channel idle time measurement determined during the predetermined time period and a channel busy time measurement determined during the predetermined time period; and determining at least one network performance statistic for the WLAN based at least in part on the channel capacity of each of the plurality of access points.
An antenna comprising: a substrate having first and second opposing surfaces with the first surface having a cavity provided therein, the cavity having a ramp portion, a base portion, a sidewall portion, and a back wall portion; a ground plane disposed over selected portions of the first surface away from the cavity; a first electromagnetic band gap, EBG, structure disposed about the base portion of the cavity, the EBG structure having a plurality of unit cells; and a radiating element disposed above the first EBG structure. a substrate having first and second opposing surfaces with the first surface having a cavity provided therein, the cavity having a ramp portion, a base portion, a sidewall portion, and a back wall portion; a ground plane disposed over selected portions of the first surface away from the cavity; a first electromagnetic band gap, EBG, structure disposed about the base portion of the cavity, the EBG structure having a plurality of unit cells; and a radiating element disposed above the first EBG structure.
A recombinant adeno-associated vector (rAAV) comprising a genetic construct comprising, in a 5' to 3' orientation, a promoter operably linked to a first coding sequence, which encodes the tyrosine kinase receptor B (TrkB), and a second coding sequence, which encodes an agonist of the TrkB receptor, wherein the agonist is mature BDNF, wherein the second coding sequence comprises a nucleotide sequence encoding a signal peptide for the agonist of the TrkB receptor, such that when expressed, the signal peptide is conjugated to the N-terminus of mature BDNF, and wherein the genetic construct comprises a spacer sequence disposed between the first and second coding sequences, which spacer sequence encodes a peptide spacer that is configured to be digested to thereby produce the TrkB receptor and agonist as separate molecules.
A composition for treating a surface, the composition having a pH in the range 5 to 8 and comprising a pro-fragrance compound having an unsaturated bond and an iodine value greater than 100, that releases an aroma compound on ozonolysis of said unsaturated bond, wherein the remainder of the composition does not contain more than 1wt% compounds having an iodine value greater than 10 and further contains an aroma compound having an iodine value of less than 10, wherein the pro-fragrance compound is β-ionone.
A mounting bracket for a door actuator, namely a door closer or door drive, comprising • at least one first mounting element and a second mounting element, wherein one of the two mounting elements is designed for fastening to a mounting surface, in particular a door, frame or wall, and the other mounting element is designed for receiving the door actuator, • at least one connecting arrangement which holds the two mounting elements (3, 4) together in a holding position and does not hold the two mounting elements (3, 4) together in a release position, • and at least one shape memory arrangement with at least one shape memory element made of shape memory material, wherein the shape memory arrangement moves the connecting arrangement into the release position upon thermal activation. • at least one first mounting element and a second mounting element, wherein one of the two mounting elements is designed for fastening to a mounting surface, in particular a door, frame or wall, and the other mounting element is designed for receiving the door actuator, • at least one connecting arrangement which holds the two mounting elements (3, 4) together in a holding position and does not hold the two mounting elements (3, 4) together in a release position, • and at least one shape memory arrangement with at least one shape memory element made of shape memory material, wherein the shape memory arrangement moves the connecting arrangement into the release position upon thermal activation.
A storage method of image data, which is used to compress and store the image data, comprising: obtaining long integer type image data; extracting data from the long integer type image data by using N data masks in a "bitwise AND" operation, wherein the extraction step comprises: extracting M points from every M*N points of each row and extracting one point from every L points of each column, wherein N is an integer greater than or equal to 2, L and M are integers greater than or equal to 1; and performing a "bitwise OR" operation for the data extracted respectively by the N data masks, so as to obtain and store coded image data. obtaining long integer type image data; extracting data from the long integer type image data by using N data masks in a "bitwise AND" operation, wherein the extraction step comprises: extracting M points from every M*N points of each row and extracting one point from every L points of each column, wherein N is an integer greater than or equal to 2, L and M are integers greater than or equal to 1; and performing a "bitwise OR" operation for the data extracted respectively by the N data masks, so as to obtain and store coded image data.
An expression vector comprising a transcription cassette for use in the treatment of a neurodegenerative disease caused by polymorphic G4C2 expansion in the first intron of the C9ORF72 gene wherein said expression vector comprises: i) an antisense nucleic acid, an inhibitory RNA or shRNA that is complementary to and inhibits the expression of a nucleic acid encoding a Serine/Arginine-Rich Splice Factor [SRSF1]; ii) a nucleic acid molecule encoding a peptide that comprise or consists of an amino acid sequence as set forth in SEQ ID NO: 15; or iii) a nucleic acid molecule encoding a dominant negative protein that comprises or consists of an amino acid sequence as set forth in SEQ ID NO: 16 or 17; wherein said nucleic acid molecule is operably linked to a promoter adapted to express the agent according to i), ii) or iii). i) an antisense nucleic acid, an inhibitory RNA or shRNA that is complementary to and inhibits the expression of a nucleic acid encoding a Serine/Arginine-Rich Splice Factor [SRSF1]; ii) a nucleic acid molecule encoding a peptide that comprise or consists of an amino acid sequence as set forth in SEQ ID NO: 15; or iii) a nucleic acid molecule encoding a dominant negative protein that comprises or consists of an amino acid sequence as set forth in SEQ ID NO: 16 or 17;
A method of determining whether an image is monochrome through detecting representative colour content in the image by analysing the skew of the statistical distribution of first colour difference values of pixels derived from the said image; and by analysing the skew of the statistical distribution of second colour difference values of pixels derived from the said image, where the extent to which the colour difference values are skewed distinguishes images in which the colour content is representative.
A motor powered by linear actuators, comprising: - a base plane (π); - a plurality of linear actuators (2, 2', 2") having a reciprocating action in said plane (π) along respective action lines (X, X', X"); - an elastic conversion member, designed to move in said plane (π) and to be connected to a drive shaft; wherein said linear actuators (2, 2', 2") are operatively connected with said conversion member for converting the reciprocating motion of said linear actuators (2, 2', 2") into a substantially continuous motion of said conversion member; stationary constraint means which are adapted to locally deform said conversion member and promote sliding and movement thereof in said plane (π) along a predetermined axis and in a predetermined direction in response to the action of said linear actuators (2, 2', 2"), said conversion member has a substantially annular shape and is adapted to rotate about a central axis of rotation substantially orthogonal to said base plane (π). - a base plane (π); - a plurality of linear actuators (2, 2', 2") having a reciprocating action in said plane (π) along respective action lines (X, X', X"); - an elastic conversion member, designed to move in said plane (π) and to be connected to a drive shaft;
A network element in a radio access network, comprising: at least one processor; and at least one memory including computer program code, the at least one memory and the computer program code configured to, with the at least one processor, cause the network element at least to perform: receive a set of initial uplink power control parameters provided by a trained neural network; utilise the set of initial uplink power control parameters in an operating radio access network and select from the received set the parameters giving best performance as the uplink power control parameters to be applied in the radio access network wherein when utilising the set of initial uplink power control parameters in an operating radio access network, apply each uplink power control parameter of the set a predetermined amount of time. at least one processor; and at least one memory including computer program code, the at least one memory and the computer program code configured to, with the at least one processor, cause the network element at least to perform: receive a set of initial uplink power control parameters provided by a trained neural network; utilise the set of initial uplink power control parameters in an operating radio access network and select from the received set the parameters giving best performance as the uplink power control parameters to be applied in the radio access network wherein when utilising the set of initial uplink power control parameters in an operating radio access network, apply each uplink power control parameter of the set a predetermined amount of time. receive a set of initial uplink power control parameters provided by a trained neural network; utilise the set of initial uplink power control parameters in an operating radio access network and select from the received set the parameters giving best performance as the uplink power control parameters to be applied in the radio access network wherein when utilising the set of initial uplink power control parameters in an operating radio access network, apply each uplink power control parameter of the set a predetermined amount of time.
A cutting table, comprising: a polycrystalline hard material; and characterised by: at least one rhenium-containing structure embedded within the polycrystalline hard material and comprising greater than or equal to about 10 weight percent rhenium, wherein the at least one rhenium-containing structure exhibits a geometric configuration permitting the cutting table to fail at or proximate the at least one rhenium-containing structure after the cutting table is subjected to a predetermined amount of wear.
An optical fiber temperature distribution measurement system configured to enable a light pulse to be incident on an optical fiber and to measure a temperature distribution in units of spatial resolution zones, which are temperature measurement zones delimited by the spatial resolution, based on a return light from the optical fiber, the system comprising: a data processor configured: to calculate a temperature distribution of first temperatures, which is obtained by a return light from a first optical fiber part laid down along a roller row (320, 321), and a temperature distribution of second temperatures, which is obtained by a return light from a second optical fiber part laid down side by side with the first optical fiber part at a position more distant from the roller row (320, 321) than the first optical fiber part, characterized in that it is also configured: to calculate a temperature difference for evaluation for each spatial resolution zone, the temperature difference for evaluation being a difference between a sum of the first temperature of each spatial resolution zone and the first temperatures of the spatial resolution zones adjacent thereto and a sum of the second temperature of each spatial resolution zone and the second temperatures of the spatial resolution zones adjacent thereto, and to determine that an abnormality has occurred in a roller near the spatial resolution zone when the calculated temperature difference for evaluation exceeds a reference value. to calculate a temperature difference for evaluation for each spatial resolution zone, the temperature difference for evaluation being a difference between a sum of the first temperature of each spatial resolution zone and the first temperatures of the spatial resolution zones adjacent thereto and a sum of the second temperature of each spatial resolution zone and the second temperatures of the spatial resolution zones adjacent thereto, and to determine that an abnormality has occurred in a roller near the spatial resolution zone when the calculated temperature difference for evaluation exceeds a reference value.