mhurhangee/ep-ind-claims huggingface dataset:
A method in a user equipment (2,600) being in an idle mode camped on a first cell of a first frequency comprising the steps of: - receiving (32, 72, 82), from a second cell being a femto cell, data indicating an identification of the second cell of a second frequency being the same frequency as the first frequency, - determining (34, 74, 84) that the user equipment (2,600) is not allowed to access the second cell, being a forbidden femto cell, - performing (36, 76, 86), upon determination that the user equipment (2,600) is not allowed to access the second cell, a cell selection process to attempt to find a third cell to access, of a third frequency, being different than the first frequency, in order to avoid interference between the user equipment (2,600) and the second cell, wherein the step of performing a cell selection process comprises to take into account that the user equipment (2,600) is too close to the second cell indicated by a predetermined threshold value of signal measurement of the second cell that needs to be exceeded in order to initiate the cell selection process, and - searching for allowed femto cells on the second frequency, whereby the user equipment (2,600) may approach an allowed femtocell. - receiving (32, 72, 82), from a second cell being a femto cell, data indicating an identification of the second cell of a second frequency being the same frequency as the first frequency, - determining (34, 74, 84) that the user equipment (2,600) is not allowed to access the second cell, being a forbidden femto cell, - performing (36, 76, 86), upon determination that the user equipment (2,600) is not allowed to access the second cell, a cell selection process to attempt to find a third cell to access, of a third frequency, being different than the first frequency, in order to avoid interference between the user equipment (2,600) and the second cell, wherein the step of performing a cell selection process comprises to take into account that the user equipment (2,600) is too close to the second cell indicated by a predetermined threshold value of signal measurement of the second cell that needs to be exceeded in order to initiate the cell selection process, and - searching for allowed femto cells on the second frequency, whereby the user equipment (2,600) may approach an allowed femtocell.
Method for processing measurement values of a sensor of a motor vehicle, having the steps of: - measuring a measurement value by way of the sensor; - signing the measured measurement value using a certificate which is assigned to the sensor and is stored in an internal memory of the sensor in a protected manner; and - transferring the signed measurement value from the sensor to a network; characterized by: - replacing the certificate, which is stored in the internal memory and is assigned to the sensor, by means of a software update. - measuring a measurement value by way of the sensor; - signing the measured measurement value using a certificate which is assigned to the sensor and is stored in an internal memory of the sensor in a protected manner; and - transferring the signed measurement value from the sensor to a network; - replacing the certificate, which is stored in the internal memory and is assigned to the sensor, by means of a software update.
Process for preparing acrolein by catalytic gas phase oxidation, said process comprising the following steps: a) providing a reaction gas comprising propylene and molecular oxygen, and b) contacting the reaction gas with an oxidation catalyst to form a gas mixture comprising acrolein, wherein the oxidation catalyst is a mixed oxide catalyst comprising or consisting of one or more base components selected from molybdenum, vanadium and tungsten, characterized in that not less than 125 ppm by weight of sulphur in the form of any sulphur components is present in the reaction gas provided, but not more than 5000 ppm by weight of sulphur in the form of any sulphur components and not more than 5000 ppm by weight of unsaturated hydrocarbons selected from the group consisting of C 2 H 4, C 3 H 4, C 4 H 8, C 4 H 6, C 5 H 10, C 5 H 8 and mixtures thereof is present in each case in the reaction gas provided. a) providing a reaction gas comprising propylene and molecular oxygen, and b) contacting the reaction gas with an oxidation catalyst to form a gas mixture comprising acrolein, wherein the oxidation catalyst is a mixed oxide catalyst comprising or consisting of one or more base components selected from molybdenum, vanadium and tungsten, characterized in that not less than 125 ppm by weight of sulphur in the form of any sulphur components is present in the reaction gas provided, but not more than 5000 ppm by weight of sulphur in the form of any sulphur components and not more than 5000 ppm by weight of unsaturated hydrocarbons selected from the group consisting of C 2 H 4, C 3 H 4, C 4 H 8, C 4 H 6, C 5 H 10, C 5 H 8 and mixtures thereof is present in each case in the reaction gas provided.
A method of wireless communication performed by a first wireless device, the method comprising: monitoring at least one predetermined symbol period of a subframe for an indication that a second wireless device has obtained access to a shared radio frequency spectrum; determining a starting symbol period among a number of possible symbol periods for a downlink transmission by the second wireless device over the shared radio frequency spectrum based on detecting the indication, wherein the downlink transmission is a physical downlink shared channel, PDSCH, or an enhanced physical downlink control channel, EPDCCH, transmission and the number of possible symbol periods in which the starting symbol can be transmitted is similar to a number of possible downlink pilot time slot, DwPTS, lengths for an LTE/LTE-A TDD subframe, and wherein the possible starting symbol periods exclude at least a second symbol period of paired DM-RS symbol periods, as to not break a time-domain code division multiplexing pairing of the DM-RS symbol periods; and receiving the downlink transmission from the second wireless device over the shared radio frequency spectrum based on the determined starting symbol period. monitoring at least one predetermined symbol period of a subframe for an indication that a second wireless device has obtained access to a shared radio frequency spectrum; determining a starting symbol period among a number of possible symbol periods for a downlink transmission by the second wireless device over the shared radio frequency spectrum based on detecting the indication, wherein the downlink transmission is a physical downlink shared channel, PDSCH, or an enhanced physical downlink control channel, EPDCCH, transmission and the number of possible symbol periods in which the starting symbol can be transmitted is similar to a number of possible downlink pilot time slot, DwPTS, lengths for an LTE/LTE-A TDD subframe, and wherein the possible starting symbol periods exclude at least a second symbol period of paired DM-RS symbol periods, as to not break a time-domain code division multiplexing pairing of the DM-RS symbol periods; and receiving the downlink transmission from the second wireless device over the shared radio frequency spectrum based on the determined starting symbol period.
A method for adjusting time advance, TA, comprising: receiving, by a terminal, a notification message sent by a primary base station, wherein the notification message comprises a serial number of a random access preamble code and a serial number of a physical random access channel mask code; sending, by the terminal, a random access request message to a secondary base station by using a sending resource that is determined according to the serial number of the physical random access channel mask code, wherein the random access request message comprises the random access preamble code that is determined according to the serial number of the random access preamble code; receiving, by the terminal, a random access response message sent by the secondary base station, wherein the random access response message comprises a time advance command TAC that is determined by the secondary base station according to the random access request message; and adjusting, by the terminal according to the TAC, the TA of the terminal on a secondary serving cell corresponding to the secondary base station. receiving, by a terminal, a notification message sent by a primary base station, wherein the notification message comprises a serial number of a random access preamble code and a serial number of a physical random access channel mask code; sending, by the terminal, a random access request message to a secondary base station by using a sending resource that is determined according to the serial number of the physical random access channel mask code, wherein the random access request message comprises the random access preamble code that is determined according to the serial number of the random access preamble code; receiving, by the terminal, a random access response message sent by the secondary base station, wherein the random access response message comprises a time advance command TAC that is determined by the secondary base station according to the random access request message; and adjusting, by the terminal according to the TAC, the TA of the terminal on a secondary serving cell corresponding to the secondary base station.
A pneumatic tire, comprising a carcass including a carcass ply having a ply body portion which extends from a tread portion to a bead core of a bead portion through a sidewall portion and which is continuously provided with a ply folded-up portion folded up around the bead core from its inner side to its outer side in the tire axial direction, characterized in that an intermediate elongation Es of a carcass cord in the ply body portion at a maximum width position where the ply body portion projects most outward in a tire axial direction is smaller than an intermediate elongation Eb of the carcass cord in the ply body portion at a height position of a radially outermost end of the bead core, and a ratio (Es/Eb) of the intermediate elongation Es at the maximum width position and the intermediate elongation Eb at the height position of the outermost end is higher than 0.7 and smaller than 0.9.
A rack-and-pinion steering gear unit comprising a gear housing, a pinion shaft, a rack shaft (7c, 7d), and a cylindrical portion (40, 40a, 40b), wherein the pinion shaft comprises pinion teeth on an outer peripheral surface of an axially intermediate portion of the pinion shaft and is rotatably supported inside the gear housing, wherein the rack shaft (7c, 7d) is configured as a hollow pipe as a whole by bending an elongated metal plate such that widthwise end edges of the metal plate are butted to each other, the rack shaft (7c, 7d) comprising rack teeth on a front face of the rack shaft (7c, 7d) partially in an axial direction, the rack shaft (7c, 7d) being disposed in a skew manner with respect to the pinion shaft and supported inside the gear housing so as to be displaceable in the axial direction in a state in which the rack teeth are engaged with the pinion teeth, wherein the cylindrical portion (40, 40a, 40b) is fitted on each end portion of the rack shaft (7c, 7d), characterized in that the end portion of the rack shaft (7c, 7d) comprises an inner peripheral surface forming a support hole in which a spherical joint is securely supported, the spherical joint supporting a base end portion of a tie rod connected to a wheel to be steered in a turnable manner, and wherein the cylindrical portion (40, 40a, 40b) is configured as a metal sleeve (40, 40a, 40b) press-fitted on an outer peripheral surface of the end portion of the rack shaft (7c, 7d).
A stentriever for removing a clot from a vessel, comprising: a shaft extending between a proximal end and a distal end; a first expandable clot engagement section extending from the shaft; and a proximal flow channel positioned proximal to and adjacent the first expandable clot engagement section, the proximal flow channel comprising a proximal flow membrane configured to direct a flow of an aspirate from the first expandable clot engagement section and to the proximal flow channel, wherein the proximal flow membrane covers an outer surface of the proximal flow channel at a position proximal to the first expandable clot engagement section, wherein the stentriever comprises a collapsed configuration to be inserted into a microcatheter, and wherein the stentriever comprises an expanded configuration for exerting an outward radial force on the clot, and wherein the stentriever further comprises a second expandable clot engagement section extending from the shaft, wherein the second expandable clot engagement section is positioned distal to the first expandable clot engagement section. a shaft extending between a proximal end and a distal end; a first expandable clot engagement section extending from the shaft; and a proximal flow channel positioned proximal to and adjacent the first expandable clot engagement section, the proximal flow channel comprising a proximal flow membrane configured to direct a flow of an aspirate from the first expandable clot engagement section and to the proximal flow channel, wherein the proximal flow membrane covers an outer surface of the proximal flow channel at a position proximal to the first expandable clot engagement section, wherein the stentriever comprises a collapsed configuration to be inserted into a microcatheter, and wherein the stentriever comprises an expanded configuration for exerting an outward radial force on the clot, and wherein the stentriever further comprises a second expandable clot engagement section extending from the shaft, wherein the second expandable clot engagement section is positioned distal to the first expandable clot engagement section.
An electronic device, comprising: a passive infrared sensor to detect a thermal signature of a subject at a first location and a thermal signature of the subject at a second location; a distance sensor to determine a distance of the subject at the first location from the electronic device; and a controller to: determine a physical size based on the determined distance and the thermal signature of the subject at the first location; and determine a distance of the subject at a second location based on the physical size and a thermal signature of the subject at the second location. a passive infrared sensor to detect a thermal signature of a subject at a first location and a thermal signature of the subject at a second location; a distance sensor to determine a distance of the subject at the first location from the electronic device; and a controller to: determine a physical size based on the determined distance and the thermal signature of the subject at the first location; and determine a distance of the subject at a second location based on the physical size and a thermal signature of the subject at the second location. determine a physical size based on the determined distance and the thermal signature of the subject at the first location; and determine a distance of the subject at a second location based on the physical size and a thermal signature of the subject at the second location.
A disc brake provided with a rotatable brake disc and a non-rotatable component comprising a brake caliper, wherein the brake caliper comprises a brake wear removal equipment configured to collect brake wear particles and to be connectable to a collection device, the brake wear removal equipment comprises at least one tube, a first end of which is configured to collect brake wear particles and a second end of which is connectable to the collection device, and the brake caliper is configured to accommodate brake pads, and the brake caliper comprises an actuator configured to move the brake pads in a direction toward the brake disc for performing braking, and at least one caliper releasing mechanism configured to move the brake pads in a direction away from the brake disc for releasing the braking, wherein the at least one caliper releasing mechanism comprises a pair of longitudinal spring elements (8, 8'), a first end (8.1, 8'.1) of which is respectively joined to one of the brake pads and second ends (8.2, 8'.2) of which are joined to one another and to the non-rotatable component such that the at least one caliper releasing mechanism is configured to be tensioned by a motion of the brake pads in the direction toward the brake disc, characterized in that the longitudinal spring elements (8 ') are respectively formed by one of the at least one tube, and the first ends (8'.1) of the tubes are respectively configured to collect brake wear particles and the second ends (8'.2) are connectable to the collection device. the brake caliper comprises a brake wear removal equipment configured to collect brake wear particles and to be connectable to a collection device, the brake wear removal equipment comprises at least one tube, a first end of which is configured to collect brake wear particles and a second end of which is connectable to the collection device, and the brake caliper is configured to accommodate brake pads, and the brake caliper comprises an actuator configured to move the brake pads in a direction toward the brake disc for performing braking, and at least one caliper releasing mechanism configured to move the brake pads in a direction away from the brake disc for releasing the braking, wherein the at least one caliper releasing mechanism comprises a pair of longitudinal spring elements (8, 8'), a first end (8.1, 8'.1) of which is respectively joined to one of the brake pads and second ends (8.2, 8'.2) of which are joined to one another and to the non-rotatable component such that the at least one caliper releasing mechanism is configured to be tensioned by a motion of the brake pads in the direction toward the brake disc, characterized in that the longitudinal spring elements (8 ') are respectively formed by one of the at least one tube, and the first ends (8'.1) of the tubes are respectively configured to collect brake wear particles and the second ends (8'.2) are connectable to the collection device.
A method comprising: receiving a prediction unit, PU, for a coding unit, CU, of video content, wherein the PU is partitionable into a plurality of PU partition types; determining, by a computing device, a PU partition type for the PU; determining, by the computing device, a residual tree structure based on the PU partition type for partitioning of the CU into transform units, TUs, the residual tree including a binary partition of a node into two TUs; determining, by the computing device, a TU partition for the PU partition type based on the residual tree structure and a desired level of partitioning in the residual tree structure; using the TU partition in a transform operation; and signaling the desired level from an encoder to a decoder. receiving a prediction unit, PU, for a coding unit, CU, of video content, wherein the PU is partitionable into a plurality of PU partition types; determining, by a computing device, a PU partition type for the PU; determining, by the computing device, a residual tree structure based on the PU partition type for partitioning of the CU into transform units, TUs, the residual tree including a binary partition of a node into two TUs; determining, by the computing device, a TU partition for the PU partition type based on the residual tree structure and a desired level of partitioning in the residual tree structure; using the TU partition in a transform operation; and signaling the desired level from an encoder to a decoder.
A manual braiding machine, comprising: a set of strand shuttles, each strand shuttle of the set of the strand shuttles having a strand holder positioned for holding a strand of flexible material and for dispensing the strand of flexible material; a tensioner arm hingedly coupled to the plurality of shuttle stations, and positioned and biased to releasably securely receive and apply tension to the strands dispensed by the set of strand shuttles to retract the strands from the strand shuttles; a plurality of shuttle stations at which the strand shuttles can be parked, the plurality of shuttle stations being arranged in a circuit; at least one shuttle carriage that, when driven, repeatedly selects an immediately previously unselected at least one strand shuttle of the set of the strand shuttles and moves each of the immediately previously unselected at least one strand shuttle of the set of the strand shuttles from one of the plurality of the shuttle stations at which the immediately previously unselected one strand shuttle of the set of the strand shuttles is parked to another of the plurality of the shuttle stations along the circuit so as to braid the strands of flexible material; and a drive arrangement coupled to the at least one shuttle carriage to drive the at least one shuttle carriage. a set of strand shuttles, each strand shuttle of the set of the strand shuttles having a strand holder positioned for holding a strand of flexible material and for dispensing the strand of flexible material; a tensioner arm hingedly coupled to the plurality of shuttle stations, and positioned and biased to releasably securely receive and apply tension to the strands dispensed by the set of strand shuttles to retract the strands from the strand shuttles; a plurality of shuttle stations at which the strand shuttles can be parked, the plurality of shuttle stations being arranged in a circuit; at least one shuttle carriage that, when driven, repeatedly selects an immediately previously unselected at least one strand shuttle of the set of the strand shuttles and moves each of the immediately previously unselected at least one strand shuttle of the set of the strand shuttles from one of the plurality of the shuttle stations at which the immediately previously unselected one strand shuttle of the set of the strand shuttles is parked to another of the plurality of the shuttle stations along the circuit so as to braid the strands of flexible material; and a drive arrangement coupled to the at least one shuttle carriage to drive the at least one shuttle carriage.
A bidirectional optocoupler transmission system for controlling signal transmission through an optocoupler transmission medium, the optocoupler transmission system comprising an optocoupler (11a first and a second device configured to communicate through the opto-coupler medium, the opto-coupler transmission system being characterized by further comprising a controller coupled to the optocoupler and configured to receive a transmit attempt from the first device, determine if the second device is already transmitting through the optocoupler, determine if receiving the transmit attempt is outside a deadband period after a power-up occurrence, the controller being configured to allow the first device to transmit through the optocoupler if the second device is not transmitting and if the deadband period has elapsed.