mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a user equipment comprising: receiving, from a network node, a measurement configuration that specifies a reference frequency corresponding to a set of a plurality of carriers, the measurement configuration further specifying an offset from the reference frequency, wherein the offset specifies positions of a plurality of frequency resource blocks within the set of carriers, and wherein each of the plurality of frequency resource blocks is associated with a different carrier of the set of carriers; performing measurements on reference signals located at the positions of the plurality of frequency resource blocks; and using the measurements for one or more radio operations. receiving, from a network node, a measurement configuration that specifies a reference frequency corresponding to a set of a plurality of carriers, the measurement configuration further specifying an offset from the reference frequency, wherein the offset specifies positions of a plurality of frequency resource blocks within the set of carriers, and wherein each of the plurality of frequency resource blocks is associated with a different carrier of the set of carriers; performing measurements on reference signals located at the positions of the plurality of frequency resource blocks; and using the measurements for one or more radio operations.
A kit comprising: a urinary catheter comprising a first and a second longitudinal lumens; at least one ultrasonic transducer disposed about a distal portion of said urinary catheter; a balloon mounted on said urinary catheter at the distal portion, and enclosing said at least one ultrasonic transducer, and a reservoir containing therapeutic fluid wherein: said urinary catheter further comprises a first opening in said first longitudinal lumen, said first opening disposed inside said balloon and configured to inflate said balloon with a degassed solution used as acoustic coupling medium, said urinary catheter further comprises a second opening in said second longitudinal lumen, said second opening disposed outside said balloon and configured to deliver therapeutic fluid into the urinary bladder, between the balloon and the bladder internal surface, and activation of said at least one ultrasonic transducer in said urinary bladder causes cavitation bubbles to form in said therapeutic fluid adjacent an internal surface of the urinary bladder, and little or no cavitation bubbles are formed in said degassed solution in said balloon. a urinary catheter comprising a first and a second longitudinal lumens; at least one ultrasonic transducer disposed about a distal portion of said urinary catheter; a balloon mounted on said urinary catheter at the distal portion, and enclosing said at least one ultrasonic transducer, and a reservoir containing therapeutic fluid wherein: said urinary catheter further comprises a first opening in said first longitudinal lumen, said first opening disposed inside said balloon and configured to inflate said balloon with a degassed solution used as acoustic coupling medium, said urinary catheter further comprises a second opening in said second longitudinal lumen, said second opening disposed outside said balloon and configured to deliver therapeutic fluid into the urinary bladder, between the balloon and the bladder internal surface, and activation of said at least one ultrasonic transducer in said urinary bladder causes cavitation bubbles to form in said therapeutic fluid adjacent an internal surface of the urinary bladder, and little or no cavitation bubbles are formed in said degassed solution in said balloon. said urinary catheter further comprises a first opening in said first longitudinal lumen, said first opening disposed inside said balloon and configured to inflate said balloon with a degassed solution used as acoustic coupling medium, said urinary catheter further comprises a second opening in said second longitudinal lumen, said second opening disposed outside said balloon and configured to deliver therapeutic fluid into the urinary bladder, between the balloon and the bladder internal surface, and activation of said at least one ultrasonic transducer in said urinary bladder causes cavitation bubbles to form in said therapeutic fluid adjacent an internal surface of the urinary bladder, and little or no cavitation bubbles are formed in said degassed solution in said balloon.
A method for forming a flat composite charge into a composite blade stiffener, comprising: trimming a flat composite charge to a final design dimension; cutting the flat composite charge along a cut line into a first piece and a second piece separated by edges (120, 122) having an angle; applying a reinforcement ply over the first piece and the second piece to hold the first piece and the second piece together; applying a ply of contact material to a forming mandrel; positioning the first piece and the second piece of the flat composite charge on the ply of contact material on the forming mandrel about a tooling plunger such that the tooling plunger is aligned with the cut line; activating the tooling plunger to contact the reinforcement ply and drive the first piece and the second piece of the flat composite charge into a cavity of the forming mandrel resulting in the first piece and the second piece folding at the cut line; withdrawing the tooling plunger from the cavity of the forming mandrel; compressing the forming mandrel to apply a lateral pressure to the first piece and the second piece folded into the cavity; and applying a vertical pressure to a first flange and a second flange of the first piece and the second piece, respectively, to form the composite blade stiffener. trimming a flat composite charge to a final design dimension; cutting the flat composite charge along a cut line into a first piece and a second piece separated by edges (120, 122) having an angle; applying a reinforcement ply over the first piece and the second piece to hold the first piece and the second piece together; applying a ply of contact material to a forming mandrel; positioning the first piece and the second piece of the flat composite charge on the ply of contact material on the forming mandrel about a tooling plunger such that the tooling plunger is aligned with the cut line; activating the tooling plunger to contact the reinforcement ply and drive the first piece and the second piece of the flat composite charge into a cavity of the forming mandrel resulting in the first piece and the second piece folding at the cut line; withdrawing the tooling plunger from the cavity of the forming mandrel; compressing the forming mandrel to apply a lateral pressure to the first piece and the second piece folded into the cavity; and applying a vertical pressure to a first flange and a second flange of the first piece and the second piece, respectively, to form the composite blade stiffener.
Plant for treating objects in form of vehicle bodies and/or components, in particular for spray-painting vehicle bodies, comprising a plurality of stations, each station comprising a booth with at least one entrance and at least one exit for an object, an handling system configured for moving the object between entrance and exit and at least one robot configured for treating the object in the booth, inside the booth a support exists for supporting the object which enters the booth, which support is motor-driven to rotate about a vertical axis so as to rotate sequentially in respect to the treatment robot the object present on the support, and the handling system being arranged on the support so as to rotate together therewith so that it may be aligned with the entrance in order to receive an object and with the exit in order to evacuate an object, characterized in that the stations are arranged in checkboard or honeycomb configuration and for at least one of the stations the booth has at least one exit which is not aligned with at least one entrance.
Method for the biocide treatment of microbiologically acidified industrial water cycles in paper mills which process waste paper, pulp or wood pulp for the reduction of calcium loading and the chemical oxygen demand, characterised in that at least one alkali chlorite and at least one halogen amine are added to the water as an oxidative biocide or biocide system, wherein alkali chlorite and the oxidising biocide system are dosed in such a quantity that the pH value in the water is in the range from 6.3 to 7.7.
A radio communication terminal comprising: a receiver, which, in operation, receives, via an enhanced physical downlink control channel, E-PDCCH, a control signal including an ACK/NACK indicator, wherein the ACK/NACK indicator takes one of four possible values including a first value and a second value; and a controlled, which, in operation, determines, based on the ACK/NACK indicator, a resource number to transmit an ACK/NACK signal for downlink data using a dynamic ACK/NACK resource dynamically allocated to the ACK/NACK signal, wherein the controller, in operation, determines a first resource number as the resource number to transmit said ACK/NACK signal when the ACK/NACK indicator takes the first value and determines a second resource number as the resource number to transmit said ACK/NACK signal when the ACK/NACK indicator takes the second value, wherein the first resource number and the second resource number are consecutive numbers; and a transmitter, which, in operation, transmits the ACK/NACK signal using the dynamic ACK/NACK resource having the determined resource number when the ACK/NACK indicator takes the first value or the second value. a receiver, which, in operation, receives, via an enhanced physical downlink control channel, E-PDCCH, a control signal including an ACK/NACK indicator, wherein the ACK/NACK indicator takes one of four possible values including a first value and a second value; and a controlled, which, in operation, determines, based on the ACK/NACK indicator, a resource number to transmit an ACK/NACK signal for downlink data using a dynamic ACK/NACK resource dynamically allocated to the ACK/NACK signal, wherein the controller, in operation, determines a first resource number as the resource number to transmit said ACK/NACK signal when the ACK/NACK indicator takes the first value and determines a second resource number as the resource number to transmit said ACK/NACK signal when the ACK/NACK indicator takes the second value, wherein the first resource number and the second resource number are consecutive numbers; and a transmitter, which, in operation, transmits the ACK/NACK signal using the dynamic ACK/NACK resource having the determined resource number when the ACK/NACK indicator takes the first value or the second value.
An article of footwear, comprising: an upper portion formed of one or more parts, wherein the upper portion includes a lateral side and a medial side, and wherein the upper portion at least partially defines a front part of a foot-receiving chamber for the article of footwear; a lateral side track extending along the lateral side of the upper portion; a medial side track extending along the medial side of the upper portion; a heel engaging component including: a lateral rail that is movably engaged with respect to the lateral side track, a medial rail that is movably engaged with respect to the medial side track, and a rear component extending between the lateral rail and the medial rail, wherein the heel engaging component is movable between a closed configuration and an open configuration by moving the lateral rail with respect to the lateral side track and by moving the medial rail with respect to the medial side track; and a biasing system that applies a biasing force to the heel engaging component, characterized in that the biasing force is applied in a direction to move the heel engaging component from the closed configuration to the open configuration. an upper portion formed of one or more parts, wherein the upper portion includes a lateral side and a medial side, and wherein the upper portion at least partially defines a front part of a foot-receiving chamber for the article of footwear; a lateral side track extending along the lateral side of the upper portion; a medial side track extending along the medial side of the upper portion; a heel engaging component including: a lateral rail that is movably engaged with respect to the lateral side track, a medial rail that is movably engaged with respect to the medial side track, and a rear component extending between the lateral rail and the medial rail, wherein the heel engaging component is movable between a closed configuration and an open configuration by moving the lateral rail with respect to the lateral side track and by moving the medial rail with respect to the medial side track; and a lateral rail that is movably engaged with respect to the lateral side track, a medial rail that is movably engaged with respect to the medial side track, and a rear component extending between the lateral rail and the medial rail, a biasing system that applies a biasing force to the heel engaging component, characterized in that the biasing force is applied in a direction to move the heel engaging component from the closed configuration to the open configuration.
A communication system comprising a communication device for mounting to an infrastructure, and a remote communication device, the communication device being configured for communication with the remote communication device via a directive antenna main lobe, the communication device comprising a sensor module configured to measure a movement of the communication device relative to a reference orientation, and to provide data of said measurement of movement on an output port, wherein the data comprises an indication of the mechanical stability of the infrastructure, the communication device further comprising a message generation module connected to the output port and configured to generate and transmit a movement report message to the remote communication device, the movement report message comprising information related to a measured movement of the communication device relative to the reference orientation.
A spectrum management method, characterized by comprising: obtaining a target frequency band allocated to a transmitting terminal; calculating a precoding codeword index of spectrum shaping according to a codebook corresponding to a current radio communication system and the target frequency band, wherein the codeword index corresponds to a return-to-zero subcarrier sequence, and the return-to-zero subcarrier sequence serves to calculate a precoding vector for modulating data, and the return-to-zero subcarrier sequence is a finite set of finite return-to-zero frequencies, and wherein the codebook corresponding to the current radio communication system is predefined and includes the codeword index and the corresponding return-to-zero subcarrier sequence; and sending the precoding codeword index out through broadcast. obtaining a target frequency band allocated to a transmitting terminal; calculating a precoding codeword index of spectrum shaping according to a codebook corresponding to a current radio communication system and the target frequency band, wherein the codeword index corresponds to a return-to-zero subcarrier sequence, and the return-to-zero subcarrier sequence serves to calculate a precoding vector for modulating data, and the return-to-zero subcarrier sequence is a finite set of finite return-to-zero frequencies, and wherein the codebook corresponding to the current radio communication system is predefined and includes the codeword index and the corresponding return-to-zero subcarrier sequence; and sending the precoding codeword index out through broadcast.
A system for data protection, the system comprising: a first computing device (110, 120, 200) comprising a security module; and a storage device coupled to the first computing device (110, 120, 200), wherein the security module comprises a Root of Trust, RoT, (113, 114, 123, 124), wherein the security module is configured to: establish a trust channel between the first computing device (110, 120, 200) and the storage device; establish multi-dimensional data access control by binding data access and permissions to the first computing device (110, 120, 200) for users, applications, system services, networks, locations, and access time windows; monitor the first computing device (110, 120, 200) and the storage device; and take over control of the storage device in response to detection of a security risk to the system. a first computing device (110, 120, 200) comprising a security module; and a storage device coupled to the first computing device (110, 120, 200), wherein the security module comprises a Root of Trust, RoT, (113, 114, 123, 124), wherein the security module is configured to: establish a trust channel between the first computing device (110, 120, 200) and the storage device; establish multi-dimensional data access control by binding data access and permissions to the first computing device (110, 120, 200) for users, applications, system services, networks, locations, and access time windows; monitor the first computing device (110, 120, 200) and the storage device; and take over control of the storage device in response to detection of a security risk to the system. establish a trust channel between the first computing device (110, 120, 200) and the storage device; establish multi-dimensional data access control by binding data access and permissions to the first computing device (110, 120, 200) for users, applications, system services, networks, locations, and access time windows; monitor the first computing device (110, 120, 200) and the storage device; and take over control of the storage device in response to detection of a security risk to the system.
Heatable flow-through measurement cell for a gas analyzer, comprising an inner tube which is made of corrosion-resistant material and is terminated at each end with a respective end piece (2, 3) and a radiolucent window (4, 5) held therein, each having an electrical heating apparatus (6, 7) for heating the end pieces (2, 3), comprising an outer tube which is made of material with good thermal conductivity and surrounds the inner tube coaxially so as to form a narrow gap, and comprising thermal insulation which surrounds the outer tube, wherein the heating apparatuses (6, 7) are integrated only in the end pieces (2, 3) or abut against only the outside of the end pieces (2, 3).
An aerosol-generating system comprising: an electrically operated aerosol-generating element; a first electrochemical energy storage device (EESD) (106, 126) configured to supply electrical power to the aerosol-generating element; and an EESD temperature control system comprising at least one temperature sensor (200, 210) positioned to sense a temperature of the first EESD and an electrical heater (140, 144) configured to heat the first EESD, wherein the EESD temperature control system operates the electrical heater dependent on an output from the at least one temperature sensor. an electrically operated aerosol-generating element; a first electrochemical energy storage device (EESD) (106, 126) configured to supply electrical power to the aerosol-generating element; and an EESD temperature control system comprising at least one temperature sensor (200, 210) positioned to sense a temperature of the first EESD and an electrical heater (140, 144) configured to heat the first EESD, wherein the EESD temperature control system operates the electrical heater dependent on an output from the at least one temperature sensor.
Hydraulic valve for a pivoting motor adjuster of a camshaft, comprising a housing and a piston axially movable along a central opening extending along a first longitudinal axis of the housing, the piston being hollow-cylindrical and the piston being axially movable along a central opening extending along a first longitudinal axis of a housing of the hydraulic valve, in particular operating connections (A, B) of the housing being opened and closed in accordance with a positioning of the piston, and the piston having non-return valves (25, 26) assigned to passage openings (29, 30) of the piston in order to avoid an unintentional outflow of a hydraulic fluid flowing through the piston from an interior of the piston into the operating connections (A, B), the non-return valves (25, 26) being arranged in the interior of the piston and being fixed with the aid of a spacer element, and the non-return valves (25, 26) being formed as non-return valves (25, 26) opening in the direction of the interior, characterized in that the spacer element has a cross-shaped or star-shaped cross section.
A method for manufacturing an impeller of a centrifugal fan, the impeller being manufactured by welding between multiple blades arranged annularly around a rotational axis and a main plate and a shroud, the main plate and the shroud being respectively arranged opposite to two blade axial ends (71, 72) that are both ends of each of the blades in the direction of the rotational axis, the method comprising: in welding between the main plate and a main plate-side blade axial end that is one of the two blade axial ends of each of the blades and welding between the shroud and a shroud-side blade axial end that is the other of the two blade axial ends of each of the blades, giving ultrasonic vibration to the blades and the main plate and melting the main plate-side blade axial ends and the main plate so that main plate-side welding holes that are recesses extending through the main plate to portions of the main plate-side blade axial ends are formed; and giving ultrasonic vibration to the blades and the shroud and melting the shroud-side blade axial ends and the shroud so that shroud-side welding holes that are recesses extending through the shroud to portions of the shroud-side blade axial ends are formed. in welding between the main plate and a main plate-side blade axial end that is one of the two blade axial ends of each of the blades and welding between the shroud and a shroud-side blade axial end that is the other of the two blade axial ends of each of the blades, giving ultrasonic vibration to the blades and the main plate and melting the main plate-side blade axial ends and the main plate so that main plate-side welding holes that are recesses extending through the main plate to portions of the main plate-side blade axial ends are formed; and
Aqueous cleansing composition for keratin fibres especially for human hair characterised in that it comprises at least one amino acid surfactant of the following structure wherein R 1 is a saturated or unsaturated, straight or branched alkyl chain with 7 to 17 C atoms, R 2 is H or a methyl, R 3 is H, COO - M +, CH 2 COO - M + or COOH, n is 0 to 2, X is COO - and M + is independent from each other H, sodium or potassium, a starch derived cationic polymer and at least one additional anionic surfactant other than amino acid surfactant at a concentration of 0.5 to 20% buy weight calculated to total composition.
A method for sending a Fast Dormancy, FD, indication from a User Equipment, UE, to an access device through a Radio Resource Control, RRC, protocol layer, comprising: when an uplink time alignment, UL TA, is maintained between the UE and the access device, sending a scheduling request, SR, receiving an uplink grant, and sending the RRC FD indication and, when the RRC protocol layer is used when the UL TA is not maintained between the UE and the access device, the UE remains in a connected mode and refrains from sending the FD indication to the access device.