mhurhangee/ep-ind-claims huggingface dataset:
A method of transmitting signals from a user equipment in a wireless communication system that supports carrier aggregation, the method comprising: receiving information for configuring a first uplink component carrier, UL CC, for transmitting acknowledgement, ACK, information of downlink data on a Physical Uplink Common Channel, PUCCH, to a base station; receiving downlink scheduling information including an uplink transmission power control, TPC, command from the base station through a control channel of a first downlink component carrier, DL CC; receiving downlink data from the base station through a shared channel of a second DL CC, the shared channel being connected with the downlink scheduling information; transmitting ACK information of the downlink data to the base station through the first UL CC on the PUCCH if there is no Physical Uplink Shared Channel, PUSCH, transmission on any other UL CC, wherein transmission power of the first UL CC on which the PUCCH including the ACK information of the downlink data is transmitted is adjusted in accordance with the uplink TPC command; and transmitting the ACK information of the downlink data to the base station through a second UL CC on a PUSCH if there is a PUSCH transmission on the second UL CC, the method characterized in that: transmission power of the second UL CC is adjusted in accordance with the uplink TPC command received via the downlink scheduling information, when the PUSCH including the ACK information of the downlink data is transmitted on the second UL CC. receiving information for configuring a first uplink component carrier, UL CC, for transmitting acknowledgement, ACK, information of downlink data on a Physical Uplink Common Channel, PUCCH, to a base station; receiving downlink scheduling information including an uplink transmission power control, TPC, command from the base station through a control channel of a first downlink component carrier, DL CC; receiving downlink data from the base station through a shared channel of a second DL CC, the shared channel being connected with the downlink scheduling information; transmitting ACK information of the downlink data to the base station through the first UL CC on the PUCCH if there is no Physical Uplink Shared Channel, PUSCH, transmission on any other UL CC, wherein transmission power of the first UL CC on which the PUCCH including the ACK information of the downlink data is transmitted is adjusted in accordance with the uplink TPC command; and transmitting the ACK information of the downlink data to the base station through a second UL CC on a PUSCH if there is a PUSCH transmission on the second UL CC, the method characterized in that: transmission power of the second UL CC is adjusted in accordance with the uplink TPC command received via the downlink scheduling information, when the PUSCH including the ACK information of the downlink data is transmitted on the second UL CC. transmission power of the second UL CC is adjusted in accordance with the uplink TPC command received via the downlink scheduling information, when the PUSCH including the ACK information of the downlink data is transmitted on the second UL CC.
A turbine section of a gas turbine engine, the turbine section being annular about a longitudinal axis, the turbine section comprising: a first turbine with a first inlet and a first outlet; a second turbine with a second inlet and a second outlet; an inter-turbine duct extending from the first outlet to the second inlet and configured to direct an air flow from the first turbine to the second turbine, the inter-turbine duct being defined by a hub and a shroud; and at least a first splitter blade disposed within the inter-turbine duct so as to be positioned between the hub and the shroud, the first splitter blade comprising a pressure side facing the shroud, a suction side facing the hub, wherein the first splitter blade is the only splitter blade within the inter-turbine duct, characterised in that it further comprises a plurality of vortex generating structures arranged in a row, each of the vortex generating structures having a leading end and a trailing end, each of the vortex generating structures positioned on the suction side and having a height from a surface of the suction side that increases along a length of each of the vortex generating structures from the leading end and plateauing in height to the trailing end, each of the vortex generating structures having a rise angle defined as an angle of the leading end from the surface of the suction side and arranged at an angle relative to the air flow, with each of the vortex generating structures parallel to each other to generate co-rotating vortices and spaced apart by a gap distance. a first turbine with a first inlet and a first outlet; a second turbine with a second inlet and a second outlet; an inter-turbine duct extending from the first outlet to the second inlet and configured to direct an air flow from the first turbine to the second turbine, the inter-turbine duct being defined by a hub and a shroud; and at least a first splitter blade disposed within the inter-turbine duct so as to be positioned between the hub and the shroud, the first splitter blade comprising a pressure side facing the shroud, a suction side facing the hub, wherein the first splitter blade is the only splitter blade within the inter-turbine duct, characterised in that it further comprises a plurality of vortex generating structures arranged in a row, each of the vortex generating structures having a leading end and a trailing end, each of the vortex generating structures positioned on the suction side and having a height from a surface of the suction side that increases along a length of each of the vortex generating structures from the leading end and plateauing in height to the trailing end, each of the vortex generating structures having a rise angle defined as an angle of the leading end from the surface of the suction side and arranged at an angle relative to the air flow, with each of the vortex generating structures parallel to each other to generate co-rotating vortices and spaced apart by a gap distance.
A method for operating a terminal in a wireless communication system, the method comprising: determining a time interval of an autonomous gap; receiving, in the time interval of an autonomous gap, signals through a first carrier frequency of a primary cell by using a first radio frequency, RF, processing unit; and if a secondary cell is not activated, performing, in the time interval of the autonomous gap, an autonomous measurement on a second carrier frequency that is different from the first carrier frequency by using a second RF processing unit, in order to avoid a change of hardware setting for the first RF processing unit, wherein the autonomous measurement comprises: a detection of a synchronization signal for identifying a target cell on the second carrier frequency; and a reception of master information block, MIB, for the target cell. determining a time interval of an autonomous gap; receiving, in the time interval of an autonomous gap, signals through a first carrier frequency of a primary cell by using a first radio frequency, RF, processing unit; and if a secondary cell is not activated, performing, in the time interval of the autonomous gap, an autonomous measurement on a second carrier frequency that is different from the first carrier frequency by using a second RF processing unit, in order to avoid a change of hardware setting for the first RF processing unit, wherein the autonomous measurement comprises: a detection of a synchronization signal for identifying a target cell on the second carrier frequency; and a reception of master information block, MIB, for the target cell. a detection of a synchronization signal for identifying a target cell on the second carrier frequency; and a reception of master information block, MIB, for the target cell.
A display module comprising: a frame comprising a first coupling member; a bracket comprising a second coupling member, the bracket detachably mounted to the frame; a circuit system detachably mounted to the bracket; and a light emitting diode module comprising a plurality of third coupling members; wherein the plurality of third coupling members is detachably coupled to the first coupling member and the second coupling member by a magnetic force,wherein the bracket and the circuit system are configured to be mounted to the frame in front of the frame or to be separated from the frame in front of the frame. wherein at least one of the plurality of third coupling members is detachably coupled to the first coupling member, and at least another of the plurality of third coupling members is detachably coupled to the second coupling member. a frame comprising a first coupling member; a bracket comprising a second coupling member, the bracket detachably mounted to the frame; a circuit system detachably mounted to the bracket; and a light emitting diode module comprising a plurality of third coupling members; wherein the plurality of third coupling members is detachably coupled to the first coupling member and the second coupling member by a magnetic force,wherein the bracket and the circuit system are configured to be mounted to the frame in front of the frame or to be separated from the frame in front of the frame. wherein at least one of the plurality of third coupling members is detachably coupled to the first coupling member, and at least another of the plurality of third coupling members is detachably coupled to the second coupling member.
Lock-key system, comprising a lock cylinder housing having a cylinder core mounted rotatably therein, into the key channel of which a key is insertable, and core pins (3, 3a) which are alignable on the key shaft by means of a coding (5, 5a, 6) and which interact with at least one radially movable locking bar which are pushable into a recess in the lock cylinder housing across the cylinder core/lock cylinder housing separation plane in order to prevent a rotation of the cylinder core - and thus the execution of a locking process - when there is an incorrect coding of the key, wherein the key shaft and, correspondingly, the key channel are formed in an arcuate shape in the longitudinal direction, wherein the key shaft and the key channel are formed as a quarter or semi-circular arc viewed in the cross-section, wherein the coding (5, 5a, 6) is formed in the internal contour of the key shaft, wherein the core pins (3, 3a) are spring-mounted in holes in the cylinder core and are positioned in such a way that the core pins (3, 3a) are rotatable around their longitudinal axis when the key shaft is inserted into the key channel by means of the coding (5, 5a, 6) on the key shaft, in order to come into engagement with the at least one locking bar, allowing for its radial movement. the key shaft and, correspondingly, the key channel are formed in an arcuate shape in the longitudinal direction, wherein the key shaft and the key channel are formed as a quarter or semi-circular arc viewed in the cross-section, wherein the coding (5, 5a, 6) is formed in the internal contour of the key shaft, wherein the core pins (3, 3a) are spring-mounted in holes in the cylinder core and are positioned in such a way that the core pins (3, 3a) are rotatable around their longitudinal axis when the key shaft is inserted into the key channel by means of the coding (5, 5a, 6) on the key shaft, in order to come into engagement with the at least one locking bar, allowing for its radial movement.
A system for monitoring an approach to a target comprising: a luminal device including a distal portion and configured to be inserted into a patient, the distal portion of the luminal device configured to be guided proximate a target; a sensor coupled to the luminal device; a surgical instrument configured to be guided through the luminal device, the surgical instrument including one or more indicators having a detectable property located along at least a portion of the surgical instrument, wherein the sensor is configured to sense the detectable property of the one or more indicators, further comprising: an electromagnetic field generator configured to detect a location of the sensor as it is navigated within the patient; a display capable of displaying an image of the sensor within the patient; and a computing device including a processor and a memory storing instructions which, when executed by the processor, cause the computing device to: generate a model of a region of interest containing the target based on images of the region of interest; identify the target within the model of the region of interest; track the location of the sensor while the sensor is navigated within of a region of interest; and predict a path by which the luminal device may be guided through the region of interest to reach the target, wherein the region of interest is a luminal network. a luminal device including a distal portion and configured to be inserted into a patient, the distal portion of the luminal device configured to be guided proximate a target; a sensor coupled to the luminal device; a surgical instrument configured to be guided through the luminal device, the surgical instrument including one or more indicators having a detectable property located along at least a portion of the surgical instrument, wherein the sensor is configured to sense the detectable property of the one or more indicators, an electromagnetic field generator configured to detect a location of the sensor as it is navigated within the patient; a display capable of displaying an image of the sensor within the patient; and a computing device including a processor and a memory storing instructions which, when executed by the processor, cause the computing device to: generate a model of a region of interest containing the target based on images of the region of interest; identify the target within the model of the region of interest; track the location of the sensor while the sensor is navigated within of a region of interest; and predict a path by which the luminal device may be guided through the region of interest to reach the target, generate a model of a region of interest containing the target based on images of the region of interest; identify the target within the model of the region of interest; track the location of the sensor while the sensor is navigated within of a region of interest; and predict a path by which the luminal device may be guided through the region of interest to reach the target,
A system for performing pedicle integrity assessments, comprising: a medical instrument for use during at least one of pedicle hole formation, hole preparation, and pedicle screw insertion at a pedicle target site, said pedicle target site in the general location of neural structures; a sensor configured to detect a voltage response from muscles associated with said neural structures; a control unit coupled to said medical instrument and the sensor, the unit being configured to (a) transmit a stimulation signal to said medical instrument during said at least one of pedicle hole formation, hole preparation, and pedicle screw insertion, (b) receive a voltage response from the sensor, and (c) determine whether said neural structures are innvervating said muscles as a result of the step of transmitting said stimulation signal to said medical instrument; an insulation member through which said medical instrument is passed comprising a flexible hollow elongated sheath having a proximal end, a distal end, an interior lumen, and a molded expandable seal tip attached to said distal end of said hollow elongated sheath, wherein said seal tip includes a distal opening for receiving said medical instrument; and an electrical coupling mechanism having a plunger with an electrical contact surface electrically coupled to said control unit for coupling said medical instrument to said control unit. a medical instrument for use during at least one of pedicle hole formation, hole preparation, and pedicle screw insertion at a pedicle target site, said pedicle target site in the general location of neural structures; a sensor configured to detect a voltage response from muscles associated with said neural structures; a control unit coupled to said medical instrument and the sensor, the unit being configured to (a) transmit a stimulation signal to said medical instrument during said at least one of pedicle hole formation, hole preparation, and pedicle screw insertion, (b) receive a voltage response from the sensor, and (c) determine whether said neural structures are innvervating said muscles as a result of the step of transmitting said stimulation signal to said medical instrument; an insulation member through which said medical instrument is passed comprising a flexible hollow elongated sheath having a proximal end, a distal end, an interior lumen, and a molded expandable seal tip attached to said distal end of said hollow elongated sheath, wherein said seal tip includes a distal opening for receiving said medical instrument; and an electrical coupling mechanism having a plunger with an electrical contact surface electrically coupled to said control unit for coupling said medical instrument to said control unit.
Use of a steam generation plant, the steam generation plant comprising a steam generator having a water jacket and at least one heating tube running therein for passing a heat transfer medium through, a steam drum, at least one riser conduit for hydraulically connecting the water jacket of the steam generator to the steam drum for conveying the steam into the steam drum, at least one downcomer conduit for hydraulically connecting the steam drum to the water jacket of the steam generator to convey the water from the steam drum back into the water jacket of the steam generator, where the top half of the downcomer conduit, coming from the steam drum, passes through the water jacket of the steam generator and runs further therein into its lower half, characterized in that the steam generation plant is in use installed downstream of a steam reforming reactor and the synthesis gas exiting from the steam reforming reactor is used as heat transfer medium in the steam generator of the steam generation plant.
A control system of an internal combustion engine comprising: a first fuel injection valve that injects fuel into a cylinder of the internal combustion engine; a second fuel injection valve that injects fuel into an intake port of the internal combustion engine; a throttle valve that is arranged in an intake passage of the internal combustion engine; an EGR passage that introduces an EGR gas from an exhaust passage of the internal combustion engine to the intake passage at a location downstream of said throttle valve; an EGR valve that is arranged in the EGR passage; an obtaining means that obtains an amount of intake air in the internal combustion engine; a determination means that determines, based on a cylinder injection ratio which is a ratio of an amount of fuel injected from said first fuel injection valve to a total amount of fuel injected from said first fuel injection valve and said second fuel injection valve, whether the amount of intake air is in an increasing tendency or in a decreasing tendency with respect to a change in the cylinder injection ratio, when said EGR valve is open; and a correction means that corrects the amount of intake air obtained by said obtaining means, according to a result of the determination of said determination means. a first fuel injection valve that injects fuel into a cylinder of the internal combustion engine; a second fuel injection valve that injects fuel into an intake port of the internal combustion engine; a throttle valve that is arranged in an intake passage of the internal combustion engine; an EGR passage that introduces an EGR gas from an exhaust passage of the internal combustion engine to the intake passage at a location downstream of said throttle valve; an EGR valve that is arranged in the EGR passage; an obtaining means that obtains an amount of intake air in the internal combustion engine; a determination means that determines, based on a cylinder injection ratio which is a ratio of an amount of fuel injected from said first fuel injection valve to a total amount of fuel injected from said first fuel injection valve and said second fuel injection valve, whether the amount of intake air is in an increasing tendency or in a decreasing tendency with respect to a change in the cylinder injection ratio, when said EGR valve is open; and a correction means that corrects the amount of intake air obtained by said obtaining means, according to a result of the determination of said determination means.
Auricular neurostimulation device wearable by a user and configured to stimulate the Auricular Branch of Vagus Nerve (ABVN) on the user's ear, wherein the device comprises at least two electrodes (2, 3) designed to be located in the cymba and in the cavity of the cavum conchae respectively; the electrodes (2, 3) electrically stimulate the nerve ramifications of the cymba and the cavum conchae respectively; characterized in that the device is configured as a wireless earbud comprising an earmold and a miniaturized faceplate wherein, the electrodes (2, 3) are arranged on the earmold which is customized to the user's ear anatomy such that the cymba electrode is a large-surface electrode covering almost the whole cymba surface area of the user's ear. a photoplethysmographic or biosensor with a miniaturized configuration is arranged inside the earmold, the miniaturized faceplate incorporates inside it all the elements of an electronic circuit built on a Printed Circuit Board that combines rigid elements with flexible elements, both in an ITE (In The Ear) configuration or in an BTE (Behind The Ear) configuration. the device comprises at least two electrodes (2, 3) designed to be located in the cymba and in the cavity of the cavum conchae respectively; the electrodes (2, 3) electrically stimulate the nerve ramifications of the cymba and the cavum conchae respectively; characterized in that the device is configured as a wireless earbud comprising an earmold and a miniaturized faceplate wherein, the electrodes (2, 3) are arranged on the earmold which is customized to the user's ear anatomy such that the cymba electrode is a large-surface electrode covering almost the whole cymba surface area of the user's ear. a photoplethysmographic or biosensor with a miniaturized configuration is arranged inside the earmold, the miniaturized faceplate incorporates inside it all the elements of an electronic circuit built on a Printed Circuit Board that combines rigid elements with flexible elements, both in an ITE (In The Ear) configuration or in an BTE (Behind The Ear) configuration.