mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a wireless device (112; 700) for beam failure recovery, the method comprising: - transmitting a scheduling request to a base station (102; 400) after detecting a beam failure; - receiving (202, 206), from the base station, a first uplink grant for a particular Hybrid Automatic Repeat Request, HARQ, process; - transmitting (208, 316), using the first uplink grant, an uplink transmission to the base station, the uplink transmission comprising beam failure recovery information, the uplink transmission being associated with the particular HARQ process; - receiving (210, 318), from the base station, a second uplink grant for the particular HARQ process, the second uplink grant comprising a new data indicator, NDI, which indicates that new data can be transmitted; and - determining (212, 320), based on the NDI comprised in the second uplink grant, that a beam failure recovery procedure related to the beam failure recovery information is complete. - transmitting a scheduling request to a base station (102; 400) after detecting a beam failure; - receiving (202, 206), from the base station, a first uplink grant for a particular Hybrid Automatic Repeat Request, HARQ, process; - transmitting (208, 316), using the first uplink grant, an uplink transmission to the base station, the uplink transmission comprising beam failure recovery information, the uplink transmission being associated with the particular HARQ process; - receiving (210, 318), from the base station, a second uplink grant for the particular HARQ process, the second uplink grant comprising a new data indicator, NDI, which indicates that new data can be transmitted; and - determining (212, 320), based on the NDI comprised in the second uplink grant, that a beam failure recovery procedure related to the beam failure recovery information is complete.
A carriage body for a railroad vehicle, wherein the carriage body comprises the following: - a floor, - two lateral walls, which are each joined to the floor, - at least two longitudinal supports, which are arranged on opposing sides of the carriage body in each transitional region of the floor to the lateral wall and extend in longitudinal direction of the carriage body, - a coupling fixing device for fixing a coupling via which the carriage body can be connected to a carriage body of another carriage, wherein the fixing device is arranged beneath the floor characterized in that a lower face of the coupling fixing device is joined directly to the longitudinal supports via a connection, wherein the connection of the lower face of the coupling fixing device to the longitudinal supports on the opposing sides of the carriage body is continuous such that a trough-shaped profile is formed in a cross-section running perpendicular to the longitudinal direction of the carriage body, wherein the interior space of the trough lies below the floor of the carriage body. - a floor, - two lateral walls, which are each joined to the floor, - at least two longitudinal supports, which are arranged on opposing sides of the carriage body in each transitional region of the floor to the lateral wall and extend in longitudinal direction of the carriage body, - a coupling fixing device for fixing a coupling via which the carriage body can be connected to a carriage body of another carriage, wherein the fixing device is arranged beneath the floor characterized in that a lower face of the coupling fixing device is joined directly to the longitudinal supports via a connection, wherein the connection of the lower face of the coupling fixing device to the longitudinal supports on the opposing sides of the carriage body is continuous such that a trough-shaped profile is formed in a cross-section running perpendicular to the longitudinal direction of the carriage body, wherein the interior space of the trough lies below the floor of the carriage body.
A terminal point (106_1) of a communication system, wherein the terminal point (106_1) is configured to transmit an uplink data transfer to a base station of the communication system, wherein a point in time of transmission of the uplink data transfer is determined by the terminal point (106_1) itself, wherein the terminal point (106_1) is configured to receive, after a specified time after the uplink data transfer, a downlink data transfer from the base station in a specified time interval, wherein the downlink data transfer comprises signaling information, wherein the terminal point (106_1) is configured to receive a point-to-multipoint data transfer from the base station on the basis of the signaling information. wherein the terminal point (106_1) is configured to transmit an uplink data transfer to a base station of the communication system, wherein a point in time of transmission of the uplink data transfer is determined by the terminal point (106_1) itself, wherein the terminal point (106_1) is configured to receive, after a specified time after the uplink data transfer, a downlink data transfer from the base station in a specified time interval, wherein the downlink data transfer comprises signaling information, wherein the terminal point (106_1) is configured to receive a point-to-multipoint data transfer from the base station on the basis of the signaling information.
A product containing macitentan or a pharmaceutically acceptable salt of this compound, in combination with at least one compound having prostacyclin receptor agonist properties, or a pharmaceutically acceptable salt thereof, wherein the compound having prostacyclin receptor agonist properties is selected from iloprost and its pharmaceutically acceptable salts, beraprost and its pharmaceutically acceptable salts, 2-{4-[(5,6-diphenylpyrazin-2-yl)(isopropyl)amino]butoxy}- N- (methylsulfonyl)acetamide and its pharmaceutically acceptable salts, and {4-[(5,6-diphenylpyrazin-2-yl)(isopropyl)amino]butoxy}acetic acid and its pharmaceutically acceptable salts.
A method, to be carried out by an electronic device, for detecting a wireless signal, comprising: receiving activation instructions from a mode-selecting component via a communication interface component of the electronic device, the mode-selecting component generating activation instructions, for a particular user (106, 108), based at least on calendar information (204; 704) that identifies at least one scheduled event; choosing a detection rate to be applied at a given time based on the activation instructions; and performing a detection activity at the detection rate to enable detection of a wireless signal emitted by a beacon-emitting mechanism (128, 114), wherein the detection activity consumes an amount of power that depends on the detection rate from a power source of the electronic device, said performing comprising checking, at the detection rate, to determine whether the wireless signal is present in a local environment; or broadcasting, at the detection rate, the wireless signal into the local environment, wherein the activation instructions specify at least one time span at which an increased detection rate is to occur and at which there is a heightened probability of detecting a wireless signal and the manner in which detection is to be performed, said activation instructions being generated based on a rule or machine-learned model used by the mode-selecting component. receiving activation instructions from a mode-selecting component via a communication interface component of the electronic device, the mode-selecting component generating activation instructions, for a particular user (106, 108), based at least on calendar information (204; 704) that identifies at least one scheduled event; choosing a detection rate to be applied at a given time based on the activation instructions; and performing a detection activity at the detection rate to enable detection of a wireless signal emitted by a beacon-emitting mechanism (128, 114), wherein the detection activity consumes an amount of power that depends on the detection rate from a power source of the electronic device, said performing comprising checking, at the detection rate, to determine whether the wireless signal is present in a local environment; or broadcasting, at the detection rate, the wireless signal into the local environment, wherein the activation instructions specify at least one time span at which an increased detection rate is to occur and at which there is a heightened probability of detecting a checking, at the detection rate, to determine whether the wireless signal is present in a local environment; or broadcasting, at the detection rate, the wireless signal into the local environment, wherein the activation instructions specify at least one time span at which an increased detection rate is to occur and at which there is a heightened probability of detecting a wireless signal and the manner in which detection is to be performed, said activation instructions being generated based on a rule or machine-learned model used by the mode-selecting component.
An (-) erythro isomer of a catecholamine for use in a method of treatment of diminished cerebral blood flow, wherein the (-) erythro isomer of a catecholamine is a member of the group consisting of α-methyl epinephrine, α-methyl norepinephrine, C 1 to C 8 aliphatic ester of α-methyl epinephrine, C 1 to C 8 aliphatic ester of α-methyl norepinephrine, and a pharmacologically acceptable acid addition salt thereof, and wherein the (-) erythro isomer of a catecholamine is administered to a patient in an amount sufficient to enhance cerebral blood flow.
A data communication method, comprising: constructing, by an access device, a beacon frame, wherein the beacon frame comprises a newly added field, and the newly added field represents multiple data guard interval lengths supported by the access device; and broadcasting, by the access device, the beacon frame, so that a terminal selects an available guard interval length matching a data guard interval length supported by the terminal from the beacon frame, and performs data communication with the access device by using the available guard interval length. constructing, by an access device, a beacon frame, wherein the beacon frame comprises a newly added field, and the newly added field represents multiple data guard interval lengths supported by the access device; and broadcasting, by the access device, the beacon frame, so that a terminal selects an available guard interval length matching a data guard interval length supported by the terminal from the beacon frame, and performs data communication with the access device by using the available guard interval length.
A cell reselection method, comprising: measuring, by a terminal currently camped on a cell, reference signals of X neighboring cells that work on a target frequency, to obtain X signal measurement values; and if the terminal determines that signal measurement values of N cells in the X neighboring cells meet a cell reselection condition, using, by the terminal as a reselected cell when determining that there is at least one evolved long term evolution cell in the N cells, a cell with a largest signal measurement value in the at least one evolved long term evolution cell, wherein before the terminal determines that there is the at least one evolved long term evolution cell in the N cells, the method further comprises: for any one of the N cells, receiving, by the terminal, first cell type indication information from the currently camped-on cell, or receiving, by the terminal, first cell type indication information from a neighboring cell of the currently camped-on cell, wherein the first cell type indication information indicates that the respective cell of the N cells is a long term evolution, LTE, cell or an evolved long term evolution cell. measuring, by a terminal currently camped on a cell, reference signals of X neighboring cells that work on a target frequency, to obtain X signal measurement values; and if the terminal determines that signal measurement values of N cells in the X neighboring cells meet a cell reselection condition, using, by the terminal as a reselected cell when determining that there is at least one evolved long term evolution cell in the N cells, a cell with a largest signal measurement value in the at least one evolved long term evolution cell, wherein before the terminal determines that there is the at least one evolved long term evolution cell in the N cells, the method further comprises: for any one of the N cells, receiving, by the terminal, first cell type indication information from the currently camped-on cell, or receiving, by the terminal, first cell type indication information from a neighboring cell of the currently camped-on cell, wherein the first cell type indication information indicates that the respective cell of the N cells is a long term evolution, LTE, cell or an evolved long term evolution cell.
A method of determining a position of a signal emitter with respect to a platform having a rigid portion and a flexing portion (112.1, 112.2), implemented by one or more processors, comprising: receiving inertial navigation data corresponding to the platform; detecting a signal from the signal emitter at a plurality of signal detectors (304.1-304.4) in an array of detectors positioned on the platform, wherein a first subset of the detectors (304.3, 304.4) are positioned on the flexing portion and a second subset of detectors (304.1, 304.2) are positioned on the rigid portion; receiving inertial measurement information from a respective inertial measurement unit 'IMU' (308.1, 308.2) adjacent to each one of the detectors positioned on the flexing portion; calculating, as a function of the received inertial measurement data, a respective velocity and a respective position of each one of the detectors positioned on the flexing portion; and determining, using a filter (608.1, 608.2), the position of the emitter as a calculated function of the calculated velocities, the calculated positions, the received inertial navigation data, the emitter signals received at each of the detectors in the array, and data defining a flexure relationship between the flexing and rigid portions of the platform; wherein determining the emitter position further comprises nulling flexure motion measurements from the calculations by a filtering operation of the filter (608.1, 608.2) having notches set to vibrational modes defined in the flexure relationship data, whereby the flexure motion measurements are separated from a computed residual used in the filtering operation to generate a correction. receiving inertial navigation data corresponding to the platform; detecting a signal from the signal emitter at a plurality of signal detectors (304.1-304.4) in an array of detectors positioned on the platform, wherein a first subset of the detectors (304.3, 304.4) are positioned on the flexing portion and a second subset of detectors (304.1, 304.2) are positioned on the rigid portion; receiving inertial measurement information from a respective inertial measurement unit 'IMU' (308.1, 308.2) adjacent to each one of the detectors positioned on the flexing portion; calculating, as a function of the received inertial measurement data, a respective velocity and a respective position of each one of the detectors positioned on the flexing portion; and determining, using a filter (608.1, 608.2), the position of the emitter as a calculated function of the calculated velocities, the calculated positions, the received inertial navigation data, the emitter signals received at each of the detectors in the array, and data defining a flexure relationship between the flexing and rigid portions of the platform; wherein determining the emitter position further comprises nulling flexure motion measurements from the calculations by a filtering operation of the filter (608.1, 608.2) having notches set to vibrational modes defined in the flexure relationship data, whereby the flexure motion measurements are separated from a computed residual used in the filtering operation to generate a correction.
Method for tracing malicious endpoints in direct communication with an application back end using TLS fingerprinting techniques, comprising the steps of: - providing a reverse proxy configured to intercept the traffic exchanged between a client and an application back end; - providing a processing unit in which a default algorithm resides and placed in signal communication with the reverse proxy; - intercepting by means of the reverse proxy each TLS Client HELLO directed to the application back end and generating a TLS Client HELLO hash by means of the default algorithm; - intercepting and processing by means of the reverse proxy each HTTP request generated by the client and directed to the application back end to extract the Client User Agent from the intercepted HTTP request; - processing the Client User Agent by means of the default algorithm to generate a Client User Agent hash; - processing by means of the default algorithm the TLS Client HELLO hash and the Client User Agent hash by calculating the number of occurrences in which the TLS Client HELLO hash is associated with the Client User Agent hash to obtain a relative frequency value, such relative frequency value being used by the default algorithm to determine whether the TLS Client HELLO hash is common or anomalous for the Client User Agent hash of the client; - performing one or more attack protection actions of the Man-In-The-Middle type if the TLS Client HELLO hash is anomalous for the Client User Agent hash of the client. - providing a reverse proxy configured to intercept the traffic exchanged between a client and an application back end; - providing a processing unit in which a default algorithm resides and placed in signal communication with the reverse proxy; - intercepting by means of the reverse proxy each TLS Client HELLO directed to the application back end and generating a TLS Client HELLO hash by means of the default algorithm; - intercepting and processing by means of the reverse proxy each HTTP request generated by the client and directed to the application back end to extract the Client User Agent from the intercepted HTTP request; - processing the Client User Agent by means of the default algorithm to generate a Client User Agent hash; - processing by means of the default algorithm the TLS Client HELLO hash and the Client User Agent hash by calculating the number of occurrences in which the TLS Client HELLO hash is associated with the Client User Agent hash to obtain a relative frequency value, such relative frequency value being used by the default algorithm to determine whether the TLS Client HELLO hash is common or anomalous for the Client User Agent hash of the client; - performing one or more attack protection actions of the Man-In-The-Middle type if the TLS Client HELLO hash is anomalous for the Client User Agent hash of the client.
A combustion chamber for a turbine engine including at least one ignition sparkplug carried by an outer casing and extending through guide means carried by a wall forming a body of revolution of the chamber, the guide means comprising a tubular guide having the sparkplug passing axially therethrough, which guide is mounted with axial and transverse clearance (j1, j2) on a chimney fastened to the wall of the chamber and opening out therein, the guide having an annular collar engaged with clearance (j1, j2) in an internal annular groove of the chimney, the combustion chamber being characterized in that the annular collar is urged to press against a wall (24, 23) of the groove by a resilient member (25, 27) mounted in the groove.
An imaging system comprising an imaging device and an information processing device including a cellular phone function, wherein the imaging system comprises: a fixation/separation determination unit configured to determine, based on fixation/separation information, whether the imaging system is in a fixed state in which the imaging device and the information processing device are fixed to each other, or a separated state in which the imaging device and the information processing device are separated from each other; and a control unit (45, 85) configured to perform different state controls in dependence on whether the system is in the fixed state or the separated state by selecting an incoming call notification method in dependence on whether the imaging system is in the fixed state or the separated state at the time of reception of an incoming call in the cellular phone function; wherein the imaging device and the information processing device each comprise a communication unit (41, 71) configured to communicate with the other of the imaging device and the information processing device. a fixation/separation determination unit configured to determine, based on fixation/separation information, whether the imaging system is in a fixed state in which the imaging device and the information processing device are fixed to each other, or a separated state in which the imaging device and the information processing device are separated from each other; and a control unit (45, 85) configured to perform different state controls in dependence on whether the system is in the fixed state or the separated state by selecting an incoming call notification method in dependence on whether the imaging system is in the fixed state or the separated state at the time of reception of an incoming call in the cellular phone function; wherein the imaging device and the information processing device each comprise a communication unit (41, 71) configured to communicate with the other of the imaging device and the information processing device.
A hydrotherapy apparatus comprising a tank arranged to hold a liquid, the tank comprising: a panel (3, 4) arranged to form a wall of the tank, an inner frame arranged to have the panel (3, 4) connected thereto, the inner frame comprising a lower portion in a base region of the tank and two struts extending upward therefrom; a lower fixing section arranged to be mechanically connected to an outer surface of the lower portion of the inner frame, with a lower edge region of the panel (3, 4) clamped therebetween; two side fixing sections extending upward away from the lower portion of the inner frame and each arranged to be mechanically connected to an outer surface of a respective strut of the struts of the inner frame, with a respective side edge region of the panel (3, 4) clamped therebetween. a panel (3, 4) arranged to form a wall of the tank, an inner frame arranged to have the panel (3, 4) connected thereto, the inner frame comprising a lower portion in a base region of the tank and two struts extending upward therefrom; a lower fixing section arranged to be mechanically connected to an outer surface of the lower portion of the inner frame, with a lower edge region of the panel (3, 4) clamped therebetween; two side fixing sections extending upward away from the lower portion of the inner frame and each arranged to be mechanically connected to an outer surface of a respective strut of the struts of the inner frame, with a respective side edge region of the panel (3, 4) clamped therebetween.
Heat-expandable microspheres, each comprising a shell of a thermoplastic resin and a thermally vaporizable blowing agent being encapsulated therein, wherein the thermoplastic resin comprises a copolymer produced by polymerizing a polymerizable component comprising a carboxyl-group-containing monomer, and the surface of the heat-expandable microspheres is treated with an organic compound containing a metal of the Groups from 3 to 12 in the Periodic Table, which organic compound is soluble in water.