mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: generating a scrambling sequence based on pilot information for a terminal, the pilot information being used for the entire duration of a call by the terminal and for all sectors with which the terminal communicates during the call; generating pilot symbols based on the scrambling sequence for the terminal; mapping the pilot symbols to a time frequency block used for sending pilot on reverse link; and sending the mapped pilot symbols on the reverse link to at least one sector in a wireless communication system, such that the same pilot is sent even when the terminal moves and is handed from sector to sector. generating a scrambling sequence based on pilot information for a terminal, the pilot information being used for the entire duration of a call by the terminal and for all sectors with which the terminal communicates during the call; generating pilot symbols based on the scrambling sequence for the terminal; mapping the pilot symbols to a time frequency block used for sending pilot on reverse link; and sending the mapped pilot symbols on the reverse link to at least one sector in a wireless communication system, such that the same pilot is sent even when the terminal moves and is handed from sector to sector.
A gimbal pose correction method, wherein a gimbal is connected to a vertical compensation device configured to compensate for a movement of the gimbal in a vertical direction, a vision module and an inertial measurement unit, IMU, are provided at the vertical compensation device, the method comprising: obtaining a first pose of the gimbal based on the IMU; obtaining a second pose of the vertical compensation device based on the vision module; and correcting the first pose according to the second pose, characterized in that: the vertical compensation device includes a main body and an axis arm configured to be connected to the gimbal and compensate for the movement of the gimbal in the vertical direction via rotation; the IMU is arranged at the axis arm; and the vision module is arranged at the main body. obtaining a first pose of the gimbal based on the IMU; obtaining a second pose of the vertical compensation device based on the vision module; and correcting the first pose according to the second pose, characterized in that: the vertical compensation device includes a main body and an axis arm configured to be connected to the gimbal and compensate for the movement of the gimbal in the vertical direction via rotation; the IMU is arranged at the axis arm; and the vision module is arranged at the main body. the vertical compensation device includes a main body and an axis arm configured to be connected to the gimbal and compensate for the movement of the gimbal in the vertical direction via rotation; the IMU is arranged at the axis arm; and the vision module is arranged at the main body.
Device for vehicles for transmitting optical signals, for example infrared signals, comprising an optical radiation source having a predefined radiation characteristic with a preferred direction, comprising a deflection structure in the radiation path downstream of a radiation source, with which a deflection of the preferred direction of the radiation characteristic is achievable, characterized in that the deflection structure is embodied in a black-coloured, infrared-transmissive material, in that the deflection structure has an inclined surface relative to the radiation direction of the radiation source, in that a plurality of inclined surfaces are provided, and in that the surfaces are arranged in strip-shaped fashion, a multiplicity of strips lying alongside one another, and in that the device is designed for irradiation with optical signals of an individual position in a vehicle.
A breath-responsive metered dose inhaler having a trigger mechanism for triggering delivery of a medicament and a trigger mechanism chassis (101, 201) for locating the trigger mechanism within the inhaler, the trigger mechanism including: a breath responsive member (110, 210) moveable upon inhalation of the user from a primed position in which the inhaler is prevented from delivering medicament, to a triggered position in which the medicament is delivered to the user, a spring which is flexible along its longitudinal axis and comprises a pre-load bend along the longitudinal axis when the breath responsive member is in the primed position, wherein the spring is configured to bias the breath responsive member from its triggered position towards its primed position by flexure along its longitudinal axis, wherein one end of the spring is held in a sheath on the trigger mechanism chassis and the other end is located on a part of the breath responsive member (110, 210) such that the sheath applies load to the outer diameter of the spring. a breath responsive member (110, 210) moveable upon inhalation of the user from a primed position in which the inhaler is prevented from delivering medicament, to a triggered position in which the medicament is delivered to the user, a spring which is flexible along its longitudinal axis and comprises a pre-load bend along the longitudinal axis when the breath responsive member is in the primed position, wherein the spring is configured to bias the breath responsive member from its triggered position towards its primed position by flexure along its longitudinal axis, wherein one end of the spring is held in a sheath on the trigger mechanism chassis and the other end is located on a part of the breath responsive member (110, 210) such that the sheath applies load to the outer diameter of the spring.
A process for detecting peroxidic explosives, comprising the phlegmatization of a powdery sample that may contain peroxidic explosives by including it in a mixture of at least one ionic liquid selected from tetrafluoroborate, triflitimide, perfluoroalkylsulfate, alkylsulfonate, arylsulfonate, perfluoroalkylsulfonate, bis(perfluoroalkyl)sulfonimide, acetate, alkylcarboxylate, isocyanate, isothiocyanate, thiosulfate, halide, borate, phosphate, nitrate, and perchlorate salts of N-alkylsubstituted nitrogen heterocycles and at least one volatile organic solvent; and analytical detection of the peroxidic explosive phlegmatized in the IL sample solution obtained.
A pneumatic tire, comprising a belt formed of two inclined belt layers (4a, 4b) formed of a rubberized layer of cords extending in a manner inclined with respect to a tire circumferential direction, the cords crossing each other between the layers (4a, 4b), wherein: at an unloaded condition, when the pneumatic tire is mounted to an applicable rim and is applied with a prescribed internal pressure, the two inclined belt layers (4a, 4b) have different tire widthwise widths (W1, W2); a tire radial outer side of the belt further includes a reinforcing belt formed of circumferential belt layers (6a, 6b) formed of a rubberized layer of cords extending along the tire circumferential direction; a circumferential rigidity of the reinforcing belt in a tire widthwise region between an end of one inclined belt layer and an end of the other inclined belt layer is higher than a circumferential rigidity of the reinforcing belt in a tire widthwise inner side of the region; characterised in that: among the two inclined belt layers, when W1 (mm) is a tire widthwise width of the one inclined belt layer having a larger tire widthwise width, W2 (mm) is a tire widthwise width of the other inclined belt layer, a ratio W2/W1 satisfies a relation expression 0.25 ≤ W 2 / W 1 ≤ 0.8; and in that the reinforcing belt is formed of two circumferential belt layers (6a, 6b), wherein one circumferential belt layer is formed in a manner covering the entire belt and the other circumferential belt layer is separated with a tire equatorial plane as the boundary and disposed in merely a tire widthwise region between an end of the one inclined belt layer and an end of the other inclined belt layer. at an unloaded condition, when the pneumatic tire is mounted to an applicable rim and is applied with a prescribed internal pressure, the two inclined belt layers (4a, 4b) have different tire widthwise widths (W1, W2); a tire radial outer side of the belt further includes a reinforcing belt formed of circumferential belt layers (6a, 6b) formed of a rubberized layer of cords extending along the tire circumferential direction; a circumferential rigidity of the reinforcing belt in a tire widthwise region between an end of one inclined belt layer and an end of the other inclined belt layer is higher than a circumferential rigidity of the reinforcing belt in a tire widthwise inner side of the region;
A method for switching voice call services, comprising: when a calling terminal initiates a call aiming at a called terminal through a Public Land Mobile Network, PLMN, sending, by the calling terminal, an IP service query message containing identification information of the calling terminal and the called terminal to an Internet Protocol, IP, network service server; querying, by the IP network service server, states of the calling terminal and the called terminal, and sending a switching selection prompt message to the calling terminal and the called terminal when the states of the casting terminal and the called terminal meet a preset call switching condition; establishing, by the IP network service server, an IP network connection path between the calling terminal and the called terminal when the calling terminal and the called terminal both select to switch the call, and notifying the calling terminal and the called terminal of establishing the IP network connection path; after the notifying, breaking, by the calling terminal, a call connection with the PLMN network, and making an IP network call with the called terminal by using the IP network connection path. when a calling terminal initiates a call aiming at a called terminal through a Public Land Mobile Network, PLMN, sending, by the calling terminal, an IP service query message containing identification information of the calling terminal and the called terminal to an Internet Protocol, IP, network service server; querying, by the IP network service server, states of the calling terminal and the called terminal, and sending a switching selection prompt message to the calling terminal and the called terminal when the states of the casting terminal and the called terminal meet a preset call switching condition; establishing, by the IP network service server, an IP network connection path between the calling terminal and the called terminal when the calling terminal and the called terminal both select to switch the call, and notifying the calling terminal and the called terminal of establishing the IP network connection path; after the notifying, breaking, by the calling terminal, a call connection with the PLMN network, and making an IP network call with the called terminal by using the IP network connection path.
A method for obtaining a three-dimensional mesh from two dimensional images, the method comprising: obtaining a series of 2D images using a camera array; calculating a depth map using the obtained series of 2D images; identifying portions of the calculated depth map that need additional detail; applying a texture based algorithm to the identified portions of the calculated depth map to obtain the additional detail in the depth map; and combining the calculated depth map with the obtained additional detail to provide a more accurate 3D mesh, wherein at least one of the obtaining, calculating, identifying, applying and combining are implemented by at least one processor; wherein identifying portions of the calculated depth map comprises marking regions in the depth map having a distance greater than d, where d is the distance into the depth map defining when the additional detail is needed; wherein applying a texture based algorithm comprises applying a texture based algorithm to the regions marked to obtain an improved mesh for the marked regions; and wherein combining is preceded by: assigning a higher weight to the improved mesh for the marked regions of the depth map for regions with a distance greater than d; and assigning a higher weight to calculated depth map for regions in the depth map having a distance less than d. obtaining a series of 2D images using a camera array; calculating a depth map using the obtained series of 2D images; identifying portions of the calculated depth map that need additional detail; applying a texture based algorithm to the identified portions of the calculated depth map to obtain the additional detail in the depth map; and combining the calculated depth map with the obtained additional detail to provide a more accurate 3D mesh, wherein at least one of the obtaining, calculating, identifying, applying and combining are implemented by at least one processor; wherein identifying portions of the calculated depth map comprises marking regions in the depth map having a distance greater than d, where d is the distance into the depth map defining when the additional detail is needed; wherein applying a texture based algorithm comprises applying a texture based algorithm to the regions marked to obtain an improved mesh for the marked regions; and wherein combining is preceded by: assigning a higher weight to the improved mesh for the marked regions of the depth map for regions with a distance greater than d; and assigning a higher weight to calculated depth map for regions in the depth map having a distance less than d. assigning a higher weight to the improved mesh for the marked regions of the depth map for regions with a distance greater than d; and assigning a higher weight to calculated depth map for regions in the depth map having a distance less than d.
A method of triggering and synchronizing a machine type communication, MTC, wireless transmit/receive unit, WTRU, the method comprising: attaching to a core network and establishing a packet data network, PDN, connection; establishing a connection with an MTC server; receiving, from the MTC server, a scheduling message that includes reporting period information and control period information that are associated with an extended discontinuous reception, DRX, cycle; wherein during a control period, the MTC WTRU is configured to monitor at least one of a paging channel or a broadcast channel for triggering and wherein during a reporting period the MTC WTRU is configured to establish a connection and transmit reporting information; and entering idle/offline mode based on the received scheduling message. attaching to a core network and establishing a packet data network, PDN, connection; establishing a connection with an MTC server; receiving, from the MTC server, a scheduling message that includes reporting period information and control period information that are associated with an extended discontinuous reception, DRX, cycle; wherein during a control period, the MTC WTRU is configured to monitor at least one of a paging channel or a broadcast channel for triggering and wherein during a reporting period the MTC WTRU is configured to establish a connection and transmit reporting information; and entering idle/offline mode based on the received scheduling message.
A compound having the structure: Dexamethasone Carbamate Chloroalkane OR Dasatinib bis-carbamate Dexamethasone Carbamate Chloroalkane OR Dasatinib bis-carbamate
A gate drive circuit, comprising: an output transistor which supplies a constant current to the gate of a switching element and drives the switching element on; a pre-driver of a CMOS configuration, formed of a p-channel MOS-FET and n-channel MOS-FET, to which a gate control signal (HDRV) is inputted and which drives the output transistor on/off; a reference current source which controls the gate voltage of a constant current transistor and makes constant a current (Icont) flowing through the constant current transistor; a buffer amplifier which applies the gate voltage of the constant current transistor as the operating reference voltage of the pre-driver; a capacitor which selectively holds the gate voltage of the constant current transistor via a switch element (SW1, SW2), and applies the held gate voltage to the buffer amplifier, wherein the reference current source is driven on/off together with a further switch element. an output transistor which supplies a constant current to the gate of a switching element and drives the switching element on; a pre-driver of a CMOS configuration, formed of a p-channel MOS-FET and n-channel MOS-FET, to which a gate control signal (HDRV) is inputted and which drives the output transistor on/off; a reference current source which controls the gate voltage of a constant current transistor and makes constant a current (Icont) flowing through the constant current transistor; a buffer amplifier which applies the gate voltage of the constant current transistor as the operating reference voltage of the pre-driver; a capacitor which selectively holds the gate voltage of the constant current transistor via a switch element (SW1, SW2), and applies the held gate voltage to the buffer amplifier, wherein the reference current source is driven on/off together with a further switch element.
A method performed by a terminal in a communication system, the method comprising: receiving, from a base station, multicast broadcast single frequency network, MBSFN, area configuration information including a list of physical multicast channels, PMCHs; receiving, from the base station, configuration information including at least one MBSFN area information used to indicate logging of multimedia broadcast multicast service, MBMS, measurement on a radio resource control, RRC, layer, the at least one MBSFN area information including an MBSFN area identifier that specifies an MBSFN area to be measured and frequency information that specifies a frequency of the MBSFN area to be measured; identifying the MBSFN area identifier and the frequency information included in the at least one MBSFN area information; logging the MBMS measurement for the MBSFN area based on the identified MBSFN area identifier and the frequency information; and transmitting, to the base station, a result of the logged MBMS measurement, wherein the result of the logged MBMS measurement includes a reference signal received power, RSRP, and a reference signal received quality, RSRQ, for the MBSFN area, and wherein the result of the logged MBMS measurement includes a block error rate, BLER, result list including a BLER result per multicast channel, MCH, among a list of MCHs corresponding to the list of PMCHs, on subframes using a modulation coding scheme, MCS, for data and at least one MCH index associated with the BLER result in case that the BLER result is available. receiving, from a base station, multicast broadcast single frequency network, MBSFN, area configuration information including a list of physical multicast channels, PMCHs; receiving, from the base station, configuration information including at least one MBSFN area information used to indicate logging of multimedia broadcast multicast service, MBMS, measurement on a radio resource control, RRC, layer, the at least one MBSFN area information including an MBSFN area identifier that specifies an MBSFN area to be measured and frequency information that specifies a frequency of the MBSFN area to be measured; identifying the MBSFN area identifier and the frequency information included in the at least one MBSFN area information; logging the MBMS measurement for the MBSFN area based on the identified MBSFN area identifier and the frequency information; and transmitting, to the base station, a result of the logged MBMS measurement, wherein the result of the logged MBMS measurement includes a reference signal received power, RSRP, and a reference signal received quality, RSRQ, for the MBSFN area, and wherein the result of the logged MBMS measurement includes a block error rate, BLER, result list including a BLER result per multicast channel, MCH, among a list of MCHs corresponding to the list of PMCHs, on subframes using a modulation coding scheme, MCS, for data and at least one MCH index associated with the BLER result in case that the BLER result is available.
Method for identifying cognate pairs of a ligand species and a receptor species, comprising the following steps: - providing a set of ligands, in which each ligand is represented multiple times; - providing a set of receptors, in which each receptor is preferably represented multiple times; - co-compartmentalizing ligand species and receptor species to form a set of microreactors, each microreactor comprising at least one ligand species and preferably no more than one receptor species; - assaying the recognition between ligands and receptors in said microreactor and based on this assay, - classifying said microreactor either as positive when at least one ligand species and the receptor species in said microreactor recognize one with the other, or negative when none of the ligand species and no receptor species recognize in said microreactor; - identifying the most frequent ligand species present in the positive ligand sub-sets interacting with the same receptor, wherein identifying the ligand-receptor species recognizing one with the other is carried out by sequencing. - providing a set of ligands, in which each ligand is represented multiple times; - providing a set of receptors, in which each receptor is preferably represented multiple times; - co-compartmentalizing ligand species and receptor species to form a set of microreactors, each microreactor comprising at least one ligand species and preferably no more than one receptor species; - assaying the recognition between ligands and receptors in said microreactor and based on this assay, - classifying said microreactor either as positive when at least one ligand species and the receptor species in said microreactor recognize one with the other, or negative when none of the ligand species and no receptor species recognize in said microreactor; - identifying the most frequent ligand species present in the positive ligand sub-sets interacting with the same receptor, wherein identifying the ligand-receptor species recognizing one with the other is carried out by sequencing.