mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a base station, configuration information associated with a reference signal for determining whether a downlink transmission exists in an unlicensed band; detecting the reference signal on at least one resource element, RE, in the unlicensed band, wherein the RE is identified based on the configuration information and associated with a control resource set, CORESET, for the terminal; and processing a downlink signal received in the CORESET corresponding to the reference signal, in case that the reference signal is detected on the at least one RE associated with the CORESET, wherein the reference signal is received in a bandwidth part, BWP, allocated to the terminal on a frequency axis, wherein the reference signal is multiplexed with the CORESET in the BWP, and wherein, in case that the reference signal is not detected, the terminal operates in a sleep mode for the unlicensed band or operates according to a downlink signal received in a previous symbol for the unlicensed band. receiving, from a base station, configuration information associated with a reference signal for determining whether a downlink transmission exists in an unlicensed band; detecting the reference signal on at least one resource element, RE, in the unlicensed band, wherein the RE is identified based on the configuration information and associated with a control resource set, CORESET, for the terminal; and processing a downlink signal received in the CORESET corresponding to the reference signal, in case that the reference signal is detected on the at least one RE associated with the CORESET, wherein the reference signal is received in a bandwidth part, BWP, allocated to the terminal on a frequency axis, wherein the reference signal is multiplexed with the CORESET in the BWP, and wherein, in case that the reference signal is not detected, the terminal operates in a sleep mode for the unlicensed band or operates according to a downlink signal received in a previous symbol for the unlicensed band.
A wearable system (100, 300, 400) comprising: an outer case defining an inner chamber and comprising an exhaust portion arranged on at least one side of the outer case away from a user when the wearable system (100, 300, 400) is worn by the user and including a liquid resistant and breathable layer; a computing device contained in the inner chamber; an airflow generator (110, 204, 204A) configured to produce an airflow to cool the computing device and to direct a resulting heated airflow to flow through pores of the liquid resistant and breathable layer to an environment outside the outer case; a strap configured to secure the outer case to the user; and a thermally reflective layer arranged along a side of the outer case adjacent the user when the wearable apparatus is worn by the user, the thermally reflective layer being configured to reflect heat from the computing device away from the user. an outer case defining an inner chamber and comprising an exhaust portion arranged on at least one side of the outer case away from a user when the wearable system (100, 300, 400) is worn by the user and including a liquid resistant and breathable layer; a computing device contained in the inner chamber; an airflow generator (110, 204, 204A) configured to produce an airflow to cool the computing device and to direct a resulting heated airflow to flow through pores of the liquid resistant and breathable layer to an environment outside the outer case; a strap configured to secure the outer case to the user; and a thermally reflective layer arranged along a side of the outer case adjacent the user when the wearable apparatus is worn by the user, the thermally reflective layer being configured to reflect heat from the computing device away from the user.
A method for wireless communications by a network entity, comprising: determining resources to monitor for a physical random access channel, PRACH, transmission sent from a user equipment, UE, as part of a random access channel, RACH, procedure; performing receive beam sweeping when receiving PRACH repetitions sent using the determined resources; using results of the receive beam sweeping to refine one or more beams and to select a refined beam of the refined one or more beams; and using the selected refined beam for at least one of receiving a subsequent message from the UE as part of the RACH procedure or sending a subsequent message to the UE as part of the RACH procedure. determining resources to monitor for a physical random access channel, PRACH, transmission sent from a user equipment, UE, as part of a random access channel, RACH, procedure; performing receive beam sweeping when receiving PRACH repetitions sent using the determined resources; using results of the receive beam sweeping to refine one or more beams and to select a refined beam of the refined one or more beams; and using the selected refined beam for at least one of receiving a subsequent message from the UE as part of the RACH procedure or sending a subsequent message to the UE as part of the RACH procedure.
A composition comprising aligned fibrils of a vitrified matrix gel comprising collagen and cyclodextrin, wherein the composition comprises α-CD, β-CD and/or γ-CD, characterised in that the composition is multilayered and the α-CD, β-CD and/or γ-CD comprise a plurality of hydroxyl groups chemically substituted with a different functional group or moiety wherein the different functional group or moiety is a hydrophilic group.
A directional coupler comprising: a main line (2,12,22) connected between a signal input port (RF in) and a signal output port (RF out); a secondary line (3,13,23) coupled to the main line through coupling capacitance and mutual inductance and connected between a coupling port and an isolation port; wherein said directional coupler has an electric-field coupling coefficient (K c) and a magnetic-field coupling coefficient (K m); a first impedance conversion section (4,14,24) connected between the coupling port and the secondary line (3,13,23) and configured such that an impedance (Z 1) viewed from a secondary line side differs from an impedance (Z CPL) viewed from a coupling port side, said impedance (Z 1) viewed from the secondary line side being defined by said electric-field coupling coefficient (K c) and said magnetic-field coupling coefficient (K m); and a second impedance conversion section (5,15,25) connected between the isolation port and the secondary line (3,13,23) and configured such that an impedance (Z 2) viewed from the secondary line differs from impedance (Z iso) viewed from the isolation port, said impedance (Z 2) viewed from the secondary line side being defined by said electric-field coupling coefficient (K c) and said magnetic-field coupling coefficient (K m); characterized in that in the first impedance conversion section (4,14,24) and the second impedance conversion section (5,15,25), a ratio of the impedance (Z 1, Z 2) viewed from the secondary line side to impedance (Z cpl, Z iso) viewed from a port side is substantially equal to a ratio of the magnetic-field coupling coefficient K m to the electric-field coupling coefficient K C, with K C approximately equal to 1 and K m less than 1. a main line (2,12,22) connected between a signal input port (RF in) and a signal output port (RF out); a secondary line (3,13,23) coupled to the main line through coupling capacitance and mutual inductance and connected between a coupling port and an isolation port;
A method for operating a system including a display, the method comprising: receiving a preview stream of a scene from a camera; presenting the preview stream on the display and temporarily buffering one or more frames of the preview stream; determining camera settings associated with the one or more buffered frames of the preview stream, wherein the camera settings include one or more of an auto white balance, AWB, setting, an auto-focus, AF, setting, and an auto-exposure, AE, setting; enlarging a first region of interest, ROI, of the scene presented on the display, wherein the enlarged first ROI is presented on the display by digitally cropping one or more first frames, and wherein the one or more first frames are previously buffered frames of the preview stream; receiving directional input from a user indicating a second ROI of the scene, wherein at least a portion of the second ROI is not currently presented on the display with the enlarged first ROI; using the determined camera settings to transition from presenting the enlarged first ROI to presenting an enlarged portion of the second ROI on the display based on the received directional input without adjusting a zoom level of the camera, wherein the enlarged portion of the second ROI is presented on the display by digitally cropping one or more second frames, wherein the one or more second frames are frames of the preview stream consecutive to the one or more first frames of the preview stream and are not previously buffered. receiving a preview stream of a scene from a camera; presenting the preview stream on the display and temporarily buffering one or more frames of the preview stream; determining camera settings associated with the one or more buffered frames of the preview stream, wherein the camera settings include one or more of an auto white balance, AWB, setting, an auto-focus, AF, setting, and an auto-exposure, AE, setting; enlarging a first region of interest, ROI, of the scene presented on the display, wherein the enlarged first ROI is presented on the display by digitally cropping one or more first frames, and wherein the one or more first frames are previously buffered frames of the preview stream; receiving directional input from a user indicating a second ROI of the scene, wherein at least a portion of the second ROI is not currently presented on the display with the enlarged first ROI; using the determined camera settings to transition from presenting the enlarged first ROI to presenting an enlarged portion of the second ROI on the display based on the received directional input without adjusting a zoom level of the camera, wherein the enlarged portion of the second ROI is presented on the display by digitally cropping one or more second frames, wherein the one or more second frames are frames of the preview stream consecutive to the one or more first frames of the preview stream and are not previously buffered.
A user equipment, UE, included in a plurality of UEs in a wireless communication system, the UE comprising: at least one transceiver; and at least one processor operably coupled to the at least one transceiver, and configured to: receive, from a base station, BS, a configuration for a location of a block for the UE in a downlink control information, DCI, format; receive, from the BS, the DCI format including a plurality of blocks, each block corresponding to one UE, including the block for the UE, wherein the block for the UE includes bits for a request for an aperiodic sounding reference signal, A-SRS, transmission, and bits for a number of transmit power control, TPC, commands for the A-SRS transmission, and transmit, to the BS, an A-SRS based on a value of the bits for the request for the A-SRS transmission and a value of one of the number of TPC commands. at least one transceiver; and at least one processor operably coupled to the at least one transceiver, and configured to: receive, from a base station, BS, a configuration for a location of a block for the UE in a downlink control information, DCI, format; receive, from the BS, the DCI format including a plurality of blocks, each block corresponding to one UE, including the block for the UE, wherein the block for the UE includes bits for a request for an aperiodic sounding reference signal, A-SRS, transmission, and bits for a number of transmit power control, TPC, commands for the A-SRS transmission, and transmit, to the BS, an A-SRS based on a value of the bits for the request for the A-SRS transmission and a value of one of the number of TPC commands. receive, from a base station, BS, a configuration for a location of a block for the UE in a downlink control information, DCI, format; receive, from the BS, the DCI format including a plurality of blocks, each block corresponding to one UE, including the block for the UE, wherein the block for the UE includes bits for a request for an aperiodic sounding reference signal, A-SRS, transmission, and bits for a number of transmit power control, TPC, commands for the A-SRS transmission, and transmit, to the BS, an A-SRS based on a value of the bits for the request for the A-SRS transmission and a value of one of the number of TPC commands.
Process for the amidation of a substituted 1-bromo-adamantane comprising a step of reacting a substituted adamantane with an excess of bromine to obtain a 1-bromo-adamantane and a step (i) of reacting said substituted 1-bromo-adamantane with an amide or, when said substituted 1-bromo-adamantane is a 1-bromo-alkyladamantane, reacting said 1-bromo-alkyladamantane with urea or an urea derivative selected from N,N-dimethylurea, N,N-diethylurea, N,N-di-n-propylurea, N,N-diisopropylurea, N,N-dibutylurea, N,N-dicyclohexylurea, or thiourea, wherein the substituted 1-bromo-adamantane is used in the form of a mixture comprising bromine as obtained in step, characterized in that, in step, a bromine: substituted adamantane molar ratio of from [2.8:1] to [3.5:1] is employed, and wherein the reaction temperature of the amidation step (i) does not exceed 120 °C.
Method for controlling takeoffs of mechanical energy and/or of air on a turbine engine for the propulsion of an aircraft, the aircraft including means for taking off mechanical energy of the turbine engine in order to satisfy the requirements for the taking off of mechanical energy, and/or means for taking off air in the turbine engine in order to satisfy the requirements for taking off of air, the aircraft including an energy manager controlling the takeoff performed on the turbine engine and a system for controlling the turbine engine controlling the operation of the turbine engine; said method comprising: - following a modification of the requirements for takeoff, the issue of a request for an authorisation for the modification of the takeoffs by the energy manager to the system for controlling the turbine engine; - the assessment by the system for controlling the turbine engine of the current surge margin of the turbine engine; and - if the current surge margin permits the modification of the takeoffs without the risk of surge of the turbine engine, the issue by the system for controlling the turbine engine of an authorisation for the modification of the takeoffs to the energy manager, and the modification of the takeoffs; - if the current surge margin does not permit the modification of the takeoffs without the risk of surge of the turbine engine, the modification of one or a plurality of operating parameters of the turbine engine by the system for controlling the turbine engine in order to increase the surge margin, and the application of temporary measures in response to the modification of the requirements for takeoff. - following a modification of the requirements for takeoff, the issue of a request for an authorisation for the modification of the takeoffs by the energy manager to the system for controlling the turbine engine; - the assessment by the system for controlling the turbine engine of the current surge margin of the turbine engine; and - if the current surge margin permits the modification of the takeoffs without the risk of surge of the turbine engine, the issue by the system for controlling the turbine engine of an authorisation for the modification of the takeoffs to the energy manager, and the modification of the takeoffs; - if the current surge margin does not permit the modification of the takeoffs without the risk of surge of the turbine engine, the modification of one or a plurality of operating parameters of the turbine engine by the system for controlling the turbine engine in order to increase the surge margin, and the application of temporary measures in response to the modification of the requirements for takeoff.
A substantially planar absorbent core extending in a transversal direction (x) and a longitudinal direction (y), and comprising a core wrap (16, 16') enclosing an absorbent material comprising a superabsorbent polymer, wherein the superabsorbent polymer content represents at least 80% and up to 100% by weight of the absorbent material contained in the core wrap, the absorbent material forming a pattern of discrete absorbent material areas, characterized in that the pattern comprises transversally-orientated areas and longitudinally-orientated areas, wherein the transversally-orientated areas extend at least 2.5 times more than in the transversal direction than in the longitudinal direction, and the longitudinally-oriented areas extend at least 2.5 times more in the longitudinal direction than in the transversal direction.
Passive micromechanical counter for counting and storing a number of mechanical pulses comprising at least one memory cell, wherein the memory cell comprises a cell input, a latching mechanism and an electromechanical coding unit, wherein the cell input is adapted to mechanically transmit the mechanical pulse to the latching mechanism, wherein the latching mechanism is adapted to store the number of transmitted mechanical pulses by means of its discrete latching position, characterized in that an electrical digital signal can be generated by applying an electrical voltage to the electromechanical coding unit, wherein the electrical digital signal represents the discrete latching position of the latching mechanism. wherein the memory cell comprises a cell input, a latching mechanism and an electromechanical coding unit, wherein the cell input is adapted to mechanically transmit the mechanical pulse to the latching mechanism, wherein the latching mechanism is adapted to store the number of transmitted mechanical pulses by means of its discrete latching position, characterized in that an electrical digital signal can be generated by applying an electrical voltage to the electromechanical coding unit, wherein the electrical digital signal represents the discrete latching position of the latching mechanism.
Spacer parts carrying element provided for being mounted on a pedestal for raising a surface, which carrying element comprises a plate having an upper face and a lower face, said spacer parts being placed on the upper face in such a manner as to extend upwards as from this upper face, said lower face being provided with a set of legs provided for gripping into an opening applied in a carrying surface of the pedestal, said legs of said set being applied around a perforation extending from the upper towards the lower face, characterised in that each leg comprises a base part and a head part connected among each other by an intermediate part, the head part having a width inferior to the one of the base part, the head part having a width superior to the one of the intermediate part, the head part extending along a border of a space extending in an extension of the perforation.
An aryloazol-2-yl-cyanoethylamine compound of the formula: P is N; Q is C-R 2; V is C-R 8; W is C-R 9; X is C-R 10; Y is C-R 11; R 2 is hydrogen, halogen, C 1 -C 6 -alkyl, halo-C 1 -C 6 -alkyl, C 1 -C 6 -alkoxy, halo-C 1 -C 6 -alkoxy, C 1 -C 6 -alkoxy-C 1 -C 6 -alkoxy, or C 1 -C 6 -alkylamino-C 1 -C 6 -alkoxy; R 3, R 4 and R 8 are hydrogen; R 5 is hydrogen, C 1 -C 6 -alkyl, or halo-C 1 -C 6 -alkyl; R 7 is unsubstituted phenyl or phenyl substituted by one or more substituents selected from the group consisting of C 1 -C 6 -alkyl, halo-C 1 -C 6 -alkyl, C 1 -C 6 -alkoxy, halo-C 1 -C 6 -alkoxy, C 1 -C 6 -alkylthio, halo-C 1 -C 6 -alkylthio, halo-C 1 -C 6 -alkylsulfinyl and halo-C 1 -C 6 -alkylsulfonyl; R 8, R 9, R 10 and R 11 either, independently of one another, is hydrogen, halogen, C 1 -C 6 -alkyl, halo-C 1 -C 6 -alkyl, nitro, amino, amido, C 1 -C 6 -alkyl-O 2 C- or C 1 -C 6 -alkylcarbonylamino; Z is C; and a is 1 and salts thereof. P is N; Q is C-R 2; V is C-R 8; W is C-R 9; X is C-R 10; Y is C-R 11; R 2 is hydrogen, halogen, C 1 -C 6 -alkyl, halo-C 1 -C 6 -alkyl, C 1 -C 6 -alkoxy, halo-C 1 -C 6 -alkoxy, C 1 -C 6 -alkoxy-C 1 -C 6 -alkoxy, or C 1 -C 6 -alkylamino-C 1 -C 6 -alkoxy; R 3, R 4 and R 8 are hydrogen; R 5 is hydrogen, C 1 -C 6 -alkyl, or halo-C 1 -C 6 -alkyl; R 7 is unsubstituted phenyl or phenyl substituted by one or more substituents selected from the group consisting of C 1 -C 6 -alkyl, halo-C 1 -C 6 -alkyl, C 1 -C 6 -alkoxy, halo-C 1 -C 6 -alkoxy, C 1 -C 6 -alkylthio, halo-C 1 -C 6 -alkylthio, halo-C 1 -C 6 -alkylsulfinyl and halo-C 1 -C 6 -alkylsulfonyl; R 8, R 9, R 10 and R 11 either, independently of one another, is hydrogen, halogen, C 1 -C 6 -alkyl, halo-C 1 -C 6 -alkyl, nitro, amino, amido, C 1 -C 6 -alkyl-O 2 C- or C 1 -C 6 -alkylcarbonylamino; Z is C; and a is 1 and salts thereof.
Method for producing a foamed body by extrusion, comprising: - generating a plastics melt within a casing of a first extruder; and - conveying the plastics melt to an outlet nozzle of a second extruder, wherein the conveyed plastics melt has foaming agent and expands after having been conducted through the outlet nozzle, wherein, in the first and/or second extruder, the plastics melt is conveyed by means of an extruder screw apparatus which has multiple screw spindles and a guide body having recesses in which the screw spindles are partially recessed, wherein the screw spindles are distributed coaxially with respect to the longitudinal axis of the extruder screw apparatus and circumferentially around the longitudinal axis of the extruder screw apparatus and rotate at least partially recessed within the extruder screw apparatus, and thus, before the plastics melt is guided through the outlet nozzle, temperature differences between different radial positions in the cross section of the plastics melt are reduced, and the plastics melt thermally homogenized in this way is conducted through the outlet nozzle wherein the screw spindles rotate in envelope curves which do not overlap, characterized in that, between the screw spindles in the circumferential direction of the extruder screw apparatus, on the circumferential surface of the extruder screw apparatus, there are provided sections which have structures which project into the plastics melt, by means of which the plastic melt is conveyed and/or mixed and/or pressure in the plastics melt is built up, and wherein a drive for the first extruder and a drive for the second extruder, which drives are not directly connected in motion-transmitting fashion, are operated individually. - generating a plastics melt within a casing of a first extruder; and - conveying the plastics melt to an outlet nozzle of a second extruder, wherein the conveyed plastics melt has foaming agent and expands after having been conducted through the outlet nozzle, wherein, in the first and/or second extruder, the plastics melt is conveyed by means of an extruder screw apparatus which has multiple screw spindles and a guide body having recesses in which the screw spindles are partially recessed, wherein the screw spindles are distributed coaxially with respect to the longitudinal axis of the extruder screw apparatus and circumferentially around the longitudinal axis of the extruder screw apparatus and rotate at least partially recessed within the extruder screw apparatus, and thus, before the plastics melt is guided through the outlet nozzle, temperature differences between different radial positions in the cross section of the plastics melt are reduced, and the plastics melt thermally homogenized in this way is conducted through the outlet nozzle wherein the screw spindles rotate in envelope curves which do not overlap,