mhurhangee/patent-ind-claim-en huggingface dataset:
A method for determining broadcast information, comprising: receiving (S32), by user equipment, at least two broadcast channels sent by a network device, wherein each broadcast channel comprises a reference signal and broadcast information, wherein the broadcast information comprises configuration information of a control channel resource, wherein the reference signal of the broadcast channel further carries quasi co-location, QCL information, and the QCL information indicate that the reference signal of the broadcast channel and a demodulation reference signal of at least one control channel in the control channel resource are quasi co-located; and determining, by the user equipment based on the reference signals of each of the two broadcast channels, whether broadcast information comprised in the two broadcast channels is the same. receiving (S32), by user equipment, at least two broadcast channels sent by a network device, wherein each broadcast channel comprises a reference signal and broadcast information, wherein the broadcast information comprises configuration information of a control channel resource, wherein the reference signal of the broadcast channel further carries quasi co-location, QCL information, and the QCL information indicate that the reference signal of the broadcast channel and a demodulation reference signal of at least one control channel in the control channel resource are quasi co-located; and determining, by the user equipment based on the reference signals of each of the two broadcast channels, whether broadcast information comprised in the two broadcast channels is the same.
A pharmaceutical composition for use in prevention or treatment of sarcopenia, the composition comprising a sulfonamide-based compound represented by Chemical Formula 1 below or a pharmaceutically acceptable salt thereof: In Chemical Formula 1, R 1 is hydrogen, *-(C=N)-NH 2 , acetyl, or C 5-6 aryl or heteroaryl, wherein R 1 is unsubstituted, or substituted with at least one substituent selected from C 1-3 alkyl, C 1-3 alkoxy, and phenyl, and R 2 is a compound represented by Chemical Formula 1-1 below:
A data path management system for managing data paths in a point-to-multipoint topology, the point-to-multipoint topology comprising at least a first data path, between a first network termination unit and a second network termination unit, and a second data path, between any one of the first and second network termination unit and a third network termination unit, wherein data communication in the point-to-multipoint topology is managed by a media access control scheduler, the data path management system comprising: - a switch unit located on the first data path, configured for interfacing a first part of the first data path to a second part of the first data path and configured to be switchable between at least a first switch state wherein the first data path is established and a second switch state wherein the first data path is interrupted; - a controller unit configured for obtaining from the media access control scheduler data communication information pertaining to which network termination unit can communicate with another network termination unit during a given time-slot, for generating a control signal based on said data communication information, and for sending said control signal to the switch unit to control the switch unit to switch between said at least first and second switch states in accordance with the obtained data communication information. - a switch unit located on the first data path, configured for interfacing a first part of the first data path to a second part of the first data path and configured to be switchable between at least a first switch state wherein the first data path is established and a second switch state wherein the first data path is interrupted; - a controller unit configured for obtaining from the media access control scheduler data communication information pertaining to which network termination unit can communicate with another network termination unit during a given time-slot, for generating a control signal based on said data communication information, and for sending said control signal to the switch unit to control the switch unit to switch between said at least first and second switch states in accordance with the obtained data communication information.
A method, comprising: by a first wireless device : determining a number of resource elements, REs, allocated for a New Radio, NR, vehicle-to-everything, V2X, physical sidelink shared channel, PSSCH and NR V2X physical sidelink control channel, PSCCH in a slot; determining a transport block size, TBS, for the NR V2X PSSCH based at least in part on a number of REs allocated for the NR V2X PSSCH; wherein the number of resource elements allocated for the NR V2X PSSCH is equal to a product of: a number of sub-channels for the NR V2X PSCCH/PSSCH obtained from NR V2X sidelink control information, SCI; a number of slots of the NR V2X PSCCH/PSSCH for slot aggregation obtained from the NR V2X SCI; and a number of REs of a sub-channel; minus a sum including: a number of REs of the NR V2X PSCCH, wherein the NR V2X PSCCH includes first stage of NR V2X SCI; a number of REs of NR V2X PSSCH demodulation reference signals, DMRS, wherein a time domain density of the NR V2X PSSCH DMRS is dynamically indicated in the NR V2X SCI; a number of REs of channel state information reference signals, CSI-RS; a number of REs of phase tracking reference signals, PT-RS; a number of REs of NR V2X physical sidelink feedback channel, PSFCH, if it exists for the slot; a number of REs for automatic gain control, AGC, symbol and a GAP symbol; and a number of REs corresponding to a second stage of NR V2X SCI number of REs, wherein the TBS is determined using a periodicity of the NR V2X PFSCH. determining a number of resource elements, REs, allocated for a New Radio, NR, vehicle-to-everything, V2X, physical sidelink shared channel, PSSCH and NR V2X physical sidelink control channel, PSCCH in a slot; determining a transport block size, TBS, for the NR V2X PSSCH based at least in part on a number of REs allocated for the NR V2X PSSCH; a number of sub-channels for the NR V2X PSCCH/PSSCH obtained from NR V2X sidelink control information, SCI; a number of slots of the NR V2X PSCCH/PSSCH for slot aggregation obtained from the NR V2X SCI; and a number of REs of a sub-channel; a number of REs of the NR V2X PSCCH, wherein the NR V2X PSCCH includes first stage of NR V2X SCI; a number of REs of NR V2X PSSCH demodulation reference signals, DMRS, wherein a time domain density of the NR V2X PSSCH DMRS is dynamically indicated in the NR V2X SCI; a number of REs of channel state information reference signals, CSI-RS; a number of REs of phase tracking reference signals, PT-RS; a number of REs of NR V2X physical sidelink feedback channel, PSFCH, if it exists for the slot; a number of REs for automatic gain control, AGC, symbol and a GAP symbol; and a number of REs corresponding to a second stage of NR V2X SCI number of REs, wherein the TBS is determined using a periodicity of the NR V2X PFSCH.
Lifting system for a filter press, comprising a lifting frame , a filter support member configured to be removably supported by a rail in the filter press, said filter support member being configured to suspend at least two parallelly extending filter cloth portions , and a coupling (511; 401), wherein the lifting frame is configured to be moved in a direction towards the filter support member into a locking position in which the coupling (511; 401) is configured to be activated thereby interlocking the lifting frame and the filter support member and allowing lifting of the filter support member and the filter cloth portions suspended thereby in a direction away from the rail .
A method for predicting whether a subject suffering from glioblastoma will be eligible to a treatment with a SRC inhibitor comprising i) determining the expression level of CD90 in a sample obtained from the subject, ii) comparing the expression level determined at step i) with a predetermined reference level and iii) concluding that the subject will be eligible to a treatment with a SRC inhibitor when the level determined at step i) is higher than the predetermined reference level or concluding that the subject will not be eligible to a treatment with a SRC inhibitor when the level determined at step i) is lower than the predetermined expression level.
Vacuum chamber having two end plates and at least two flat, effectively two-dimensional, plate-like, plate-shaped frame elements , wherein the frame elements each - are predominantly circumferentially closed; and - form a frame interior region (R i ) having a circumferential wall ; - whereby a partial volume (V T ) of the vacuum chamber is delimited in the circumferential direction; and - comprise a circumferential front frame contact surface for the arrangement of a further frame element or an end plate ; and - comprise a circumferential rear frame contact surface for the arrangement of a further frame element or an end plate ; and wherein - the at least two plate-shaped frame elements are arranged between the end plates ; and wherein - the two end plates comprise a front and/or rear contact surface (42; 22) for arrangement on a frame element ; and - delimit the chamber volume in the predominantly axial direction (R a ). - are predominantly circumferentially closed; and - form a frame interior region (R i ) having a circumferential wall ; - whereby a partial volume (V T ) of the vacuum chamber is delimited in the circumferential direction; and - comprise a circumferential front frame contact surface for the arrangement of a further frame element or an end plate ; and - comprise a circumferential rear frame contact surface for the arrangement of a further frame element or an end plate ; and wherein - the at least two plate-shaped frame elements are arranged between the end plates ; and wherein - the two end plates comprise a front and/or rear contact surface (42; 22) for arrangement on a frame element ; and - delimit the chamber volume in the predominantly axial direction (R a ).
A water-abrasive cutting facility with a cutting head which comprises a fixation device for fixing the cutting head on the wall to be cut, further comprising a nozzle head which is arranged on the cutting head and in which at least one cutting nozzle for bringing out a cutting jet is arranged, and with a cutting monitoring device which comprises at least one hydrophone , characterised in that the hydrophone is arranged on an outer side of the cutting head in a manner such that it can come into contact with a fluid which surrounds the cutting head , as well as the cutting monitoring device comprising at least one further sensor , wherein the cutting monitoring device is designed such that it detects a complete penetration and/or cutting-through of the wall on the basis of the sensor signals of the hydrophone and of the at least one further sensor.
Set for installing hair extensions, wherein the set comprises a plurality of connecting elements and at least one extension element, wherein each of the plurality of connecting elements comprises a tubular element provided on an inner side with an anti-slip layer and provided on an outer side with a first magnet , wherein the connecting elements can be connected to respective locks of hair of a person by positioning the tubular element around the locks of hair, and wherein the extension element comprises a base element to which proximal ends of the hair extensions are connected, and wherein the base element further comprises a plurality of second magnets which are compatible with the first magnets of the connecting elements so that the extension elements can be connected via the magnets to the locks of hair of the person.
A tube that consists of a stretching film forming the inner surface of the tube and a stretching film forming the outer surface of the tube and a tube mesh between them in such a manner that said films are fastened to the tube mesh , the tube being characterised in that the films are at least partly detached from each other and that the tube mesh is made up of longitudinal threads of the tube mesh and circumferential threads encircling the tube mesh, and the tube mesh fastened to the films limits the longitudinal stretch of the tube to less than 5 %, but allows the circumference of the tube to stretch to a limit value, in which the threads encircling the tube mesh have straightened between the films and prevent the tube from stretching further, wherein said limit value of the circumference is 50% to 300% greater than the circumference of a non-stretched tube.
A method for entering a connected mode, performed by a terminal device, the method comprising: before the terminal device enters the connected mode, determining (S101), by the terminal device based on information of a network slice that needs to be used, whether to perform a cell reselection before entering the connected mode, characterized in that before entering the connected mode comprises: a duration between a time after an access layer of the terminal device receives a trigger from an non-access stratum, NAS, layer and a time before the terminal device enters the connected mode. before the terminal device enters the connected mode, determining (S101), by the terminal device based on information of a network slice that needs to be used, whether to perform a cell reselection before entering the connected mode, characterized in that before entering the connected mode comprises: a duration between a time after an access layer of the terminal device receives a trigger from an non-access stratum, NAS, layer and a time before the terminal device enters the connected mode.
An apparatus for rapidly cooling or heating the body temperature of a patient, the apparatus comprising: a pump portion for withdrawing blood through a blood inlet and returning blood through a blood outlet ; a heat exchanger portion for selectively heating or cooling the blood; and a blood conduit in fluid communication with the blood outlet of the pump portion , the blood conduit being in direct thermal contact with the heat exchanger portion to selectively heat or cool the blood, wherein the heat exchanger portion comprises: a Peltier cell having one or more thermoelectric modules contained between ceramic substrates ; and a heat sink in thermal contact with the one or more thermoelectric modules for removing heat from the one or more thermoelectric modules , wherein the blood conduit has a single channel defining a tortuous path, wherein the single channel has a uniform cross-section with an inlet on a first side of the heat exchanger portion and an outlet on a second side of the heat exchanger portion opposite the first side, and wherein the inlet of the single channel is perpendicular to the outlet of the single channel in the plane of the single channel . a pump portion for withdrawing blood through a blood inlet and returning blood through a blood outlet ; a heat exchanger portion for selectively heating or cooling the blood; and a blood conduit in fluid communication with the blood outlet of the pump portion , the blood conduit being in direct thermal contact with the heat exchanger portion to selectively heat or cool the blood, wherein the heat exchanger portion comprises: a Peltier cell having one or more thermoelectric modules contained between ceramic substrates ; and a heat sink in thermal contact with the one or more thermoelectric modules for removing heat from the one or more thermoelectric modules , a Peltier cell having one or more thermoelectric modules contained between ceramic substrates ; and a heat sink in thermal contact with the one or more thermoelectric modules for removing heat from the one or more thermoelectric modules , wherein the blood conduit has a single channel defining a tortuous path, wherein the single channel has a uniform cross-section with an inlet on a first side of the heat exchanger portion and an outlet on a second side of the heat exchanger portion opposite the first side, and wherein the inlet of the single channel is perpendicular to the outlet of the single channel in the plane of the single channel .
An electronic device component, comprising at least: a wireless keyboard and a stylus , wherein the wireless keyboard comprises an accommodating portion for accommodating the stylus , a first charging coil disposed on an inner wall of the accommodating portion , and a second charging coil corresponding to the first charging coil is disposed in the stylus ; and at least one of the first charging coil and the second charging coil is a circle coil, and the circle coil is disposed around circumference of the accommodating portion or the stylus ; wherein the circle coil is a 360° continuous circle coil; wherein the wireless keyboard comprises: a keyboard body and a support , wherein the keyboard body and the support are rotatably connected through a connecting portion , and the accommodating portion is located on the connecting portion , or the accommodating portion is located in the connecting portion , or the accommodating portion is disposed close to the connecting portion ; the wireless keyboard and stylus further comprising: at least one group of limiting components , wherein the group of limiting components is configured to limit a location of the stylus in the accommodating portion ; wherein the group of limiting components comprises a first ring magnet and a magnetic piece attracted to the first ring magnet ; and one of the first ring magnet and the magnetic piece is located on the inner wall of the accommodating portion , and the other of the first ring magnet and the magnetic piece is located in the stylus . a wireless keyboard and a stylus , wherein the wireless keyboard comprises an accommodating portion for accommodating the stylus , a first charging coil disposed on an inner wall of the accommodating portion , and a second charging coil corresponding to the first charging coil is disposed in the stylus ; and at least one of the first charging coil and the second charging coil is a circle coil, and the circle coil is disposed around circumference of the accommodating portion or the stylus ; wherein the circle coil is a 360° continuous circle coil; wherein the wireless keyboard comprises: a keyboard body and a support , wherein the keyboard body and the support are rotatably connected through a connecting portion , and the accommodating portion is located on the connecting portion , or the accommodating portion is located in the connecting portion , or the accommodating portion is disposed close to the connecting portion ; the wireless keyboard and stylus further comprising: at least one group of limiting components , wherein the group of limiting components is configured to limit a location of the stylus in the accommodating portion ; wherein the group of limiting components comprises a first ring magnet and a magnetic piece attracted to the first ring magnet ; and one of the first ring magnet and the magnetic piece is located on the inner wall of the accommodating portion , and the other of the first ring magnet and the magnetic piece is located in the stylus .
A construction machine comprising: an engine (E); and a hood covering the engine (E), wherein a space inside the hood has a placement space (S) in which an electrical unit is placed and which communicates with outside air, and a distal-end opening of an intake pipe connected to an inlet port of the engine (E) is disposed in the placement space (S) to cause outside air sucked into the intake pipe due to a suction pressure occurred in the intake pipe to pass through the placement space (S) to form a cooling air path (W) in the placement space (S). an engine (E); and a hood covering the engine (E), wherein a space inside the hood has a placement space (S) in which an electrical unit is placed and which communicates with outside air, and a distal-end opening of an intake pipe connected to an inlet port of the engine (E) is disposed in the placement space (S) to cause outside air sucked into the intake pipe due to a suction pressure occurred in the intake pipe to pass through the placement space (S) to form a cooling air path (W) in the placement space (S).
A method of operating a modulated continuous-wave radar system, comprising at least the following steps: - modulate a plurality of continuous radar waves at a modulation frequency for providing a plurality of n modulated continuous radar waves that represent mutually orthogonal codes, - transmit said plurality of n modulated continuous radar waves towards a scene with a potential object to be detected, wherein the transmitted modulated continuous radar waves of the plurality of modulated continuous radar waves are consecutively transmitted with a constant time lag ( τ ), - receive a plurality of radar waves that have been transmitted by the radar system and have been reflected by an object, - generate a plurality of received radar signals from the received plurality of radar waves, - decode individual range information for each received radar signal from the generated plurality of received radar signals, and - determine a range between the radar system and the object on the basis of the decoded individual range information; characterized in - that said constant time lag ( τ ) is given by one nth of a period of the modulation frequency, and - that the generated plurality of received radar signals is digitally converted with a sampling rate that is equal to the modulation frequency. - modulate a plurality of continuous radar waves at a modulation frequency for providing a plurality of n modulated continuous radar waves that represent mutually orthogonal codes, - transmit said plurality of n modulated continuous radar waves towards a scene with a potential object to be detected, wherein the transmitted modulated continuous radar waves of the plurality of modulated continuous radar waves are consecutively transmitted with a constant time lag ( τ ), - receive a plurality of radar waves that have been transmitted by the radar system and have been reflected by an object, - generate a plurality of received radar signals from the received plurality of radar waves, - decode individual range information for each received radar signal from the generated plurality of received radar signals, and - determine a range between the radar system and the object on the basis of the decoded individual range information; characterized in - that said constant time lag ( τ ) is given by one nth of a period of the modulation frequency, and - that the generated plurality of received radar signals is digitally converted with a sampling rate that is equal to the modulation frequency.