mhurhangee/ep-ind-claims huggingface dataset:
A method of wireless communication performed by a user equipment, UE, comprising: receiving a single downlink control information, DCI, message; mapping a bit sequence in the single DCI message to a configuration set that includes multiple downlink semi-persistent scheduling, SPS, configurations to be jointly released; and transmitting, through a physical uplink control channel, PUCCH, resource, a codebook that includes an acknowledgement bit based at least in part on the bit sequence indicating that one or more of the multiple downlink SPS configurations are to be jointly released, wherein the acknowledgement bit is an individual acknowledgement bit used to acknowledge all of the downlink SPS configurations that were released. receiving a single downlink control information, DCI, message; mapping a bit sequence in the single DCI message to a configuration set that includes multiple downlink semi-persistent scheduling, SPS, configurations to be jointly released; and transmitting, through a physical uplink control channel, PUCCH, resource, a codebook that includes an acknowledgement bit based at least in part on the bit sequence indicating that one or more of the multiple downlink SPS configurations are to be jointly released, wherein the acknowledgement bit is an individual acknowledgement bit used to acknowledge all of the downlink SPS configurations that were released.
A method, comprising: (a) obtaining configuration information of a data transmission from a serving cell by a user equipment, in the following also referred to as UE, in a mobile communication network, wherein the data transmission is transmitted from a neighboring cell to the UE via an interference channel; (b) receiving radio signals on a set of data resource elements, in the following also referred to as REs, as determined based on the obtained configuration information; (c) estimating the interference channel corresponding to the data transmission from the neighboring cell based on the received radio signals on the set of data resource elements; and (d) cancelling the data transmission from the neighboring cell based on the estimated interference channel, characterized in that the configuration information includes a basic unit of physical resource blocks, in the following also referred to as PRBs, used for resource allocation by the neighboring cell for the data transmission. (a) obtaining configuration information of a data transmission from a serving cell by a user equipment, in the following also referred to as UE, in a mobile communication network, wherein the data transmission is transmitted from a neighboring cell to the UE via an interference channel; (b) receiving radio signals on a set of data resource elements, in the following also referred to as REs, as determined based on the obtained configuration information; (c) estimating the interference channel corresponding to the data transmission from the neighboring cell based on the received radio signals on the set of data resource elements; and (d) cancelling the data transmission from the neighboring cell based on the estimated interference channel,
A method at a first transceiver comprising: generating a Channel State Information, CSI, status indicator in dependence on a status of CSI generation at the first transceiver with respect to a channel between the first transceiver and a second transceiver that beamforms toward the first transceiver, wherein generating the CSI status indicator comprises generating the CSI status indicator to indicate that a beamforming matrix update is needed with respect to beamforming toward the first transceiver.; transmitting the CSI status indicator; receiving a transmission grant or request in response to the CSI status indicator; and transmitting a CSI report in response to the transmission grant or request. generating a Channel State Information, CSI, status indicator in dependence on a status of CSI generation at the first transceiver with respect to a channel between the first transceiver and a second transceiver that beamforms toward the first transceiver, wherein generating the CSI status indicator comprises generating the CSI status indicator to indicate that a beamforming matrix update is needed with respect to beamforming toward the first transceiver.; transmitting the CSI status indicator; receiving a transmission grant or request in response to the CSI status indicator; and transmitting a CSI report in response to the transmission grant or request.
Composition comprising a combination of the omega-3 fatty acids eicosapentaenoic acid and docosahexaenoic acid for use in improving the efficacy of chemotherapy or radiotherapy and/or in the prevention or reduction of side effects caused by chemotherapy or radiotherapy in a patient suffering from cancer, wherein the composition should be administered parenterally to the patient only 48 to 24 hours prior to commencement of a cycle of chemotherapy or radiotherapy, wherein the composition comprises 1.0 g/100 mL to 7.0 g/100 mL EPA and 1.0 g/100 mL to 7.0 g/100 mL DHA.
A motor vehicle door lock comprising a locking mechanism (1, 2) and comprising a mechanical lever system (4, 5) as well as a motor opening unit (7, 8, 9) which are respectively and individually adapted to open the locking mechanism (1, 2), wherein during normal operation the motor opening unit (7, 8, 9) provides a free run of the lever system (4, 5) with respect to the locking mechanism (1, 2) and ensures that the lever system (4, 5) engages into the locking mechanism (1, 2) during opening operation, characterized in that the motor opening unit (7, 8, 9) works in a unidirectional manner and a spring which acts in the opposite direction with respect to the unidirectional drive direction is allocated to the motor opening unit (7, 8, 9).
A container for selective transport of samples of biological material or of biological origin comprising a body having at least a compartment suitable for containing at least a liquid, or for containing at least a liquid and at least a portion of a collecting device for biological samples, said body comprising at least an access opening to the compartment and at least a containing wall provided with at least a selective passage portion configured such as to prevent exit of a liquid from the container, through the passage portion, at least in at least an operating sealed condition characterised at least by a rest state of the container or by a first value of mechanical shaking of the container and/or by a first value of relative centrifugal force to which the container is subjected for a first interval of a predetermined time, and configured such as selectively to enable exit of the liquid from the container, across the passage portion, at least in an operating passage condition, characterised at least by a corresponding second state of mechanical shaking of the container and/or wherein the container is subjected to a corresponding second relative centrifugal force, for a second predetermined time interval, characterized in that the selective passage portion is provided with at least a weakened portion or a plurality of weakened portions, each weakened portion being closed at least in one of the sealed operating conditions and/or before the container is brought into one of the operating passage conditions for the second predetermined time interval, and being suitable for opening in at least one of said operating passage conditions by realising a passage opening suitable for enabling passage of the liquid through the selective passage portion, the weakened portions being realised by discontinuities in the thickness of the body or by predetermined reductions of thickness realised on the body in the selective passage portion.
A file reproduction apparatus comprising an acquisition unit configured to acquire HDR information designated by HDR designating information from a file storing a track of a stream including the HDR information comprising feature information representing features of luminance of an HDR (high dynamic range) image having a dynamic range higher than that of an STD (standard) image and conversion information representing a conversion rule of converting the one of the STD image and the HDR image into the other and a target track including the HDR designating information designating the HDR information which is to be applied to the target track in the HDR information of the track; a controller; and an output unit configured to output the HDR image and the feature information to a display apparatus in case the controller determines that the display apparatus is configured to include an HDR monitor. a track of a stream including the HDR information comprising feature information representing features of luminance of an HDR (high dynamic range) image having a dynamic range higher than that of an STD (standard) image and conversion information representing a conversion rule of converting the one of the STD image and the HDR image into the other and a target track including the HDR designating information designating the HDR information which is to be applied to the target track in the HDR information of the track;
A first component (16; 12) for a personal care device, the first component comprising a first coupling interface for allowing the first component to be releasably and repeatably coupled to a second component (12; 16) for the personal care device via a second coupling interface of the second component, characterized in that the first coupling interface comprises a portion of material (38; 60) that can change from a solid or stiff state to a more pliable state with a selected change in temperature implemented by a temperature changing element of the first or second component (12;16) so that the portion of material (38; 60) is deformable and enables the coupling and uncoupling of the first coupling interface and second coupling interface, and in that, during coupling, the portion of material (38;60) molds or deforms to the shape of the second coupling interface, and reversing the change in temperature changes the portion of material (38;60) from the more pliable state to the solid or stiff state to provide a force to clamp the first coupling interface and the second coupling interface together.
A zeolite for use in treating or preventing mesothelioma, asbestosis or asbestos-related lung cancer in a subject, wherein the zeolite is selected from the group consisting of: amicite, analcime, barrerite, bellbergite, bikitaite, boggsite, brewsterite, chabazite, clinoptilolite, cowlesite, dachiardite, direnzoite, edingtonite, epistilbite, faujasite, florkeite, ferrierite, garronite, gismondine, gmelinite, gobbinsite, gonnardite, goosecreekite, harmotome, herschelite, heulandite, laumontite, leucite, kalborsite, levyne, maricopaite, mazzite, merlinoite, mesolite, montesommaite, mordenite, mutinaite, natrolite, offretite, paranatrolite, paulingite, pentasil, perlialite, phillipsite, pollucite, scolecite, stellerite, stilbite, svetlozarite, tetranatrolite, thomsonite, terranovaite, tschernichite, tschortnerite, wairakite, wenkite, wellsite, willhendersonite, yugawaralite including any and all combinations thereof, preferably clinoptilolite and chabizite.
A method for operating a self-propelled cleaning device that travels within an environment, wherein the cleaning device carries out a cleaning process of a defined, spatially limited surface section of the environment and in the process travels along a planned movement path, characterized in that a detection device of the cleaning device measures a degree of dirt accumulation of the surface section during the cleaning process of this defined surface section, wherein the degree of dirt accumulation is compared with a defined reference degree of dirt accumulation, and wherein the surface section is automatically enlarged beyond a peripheral path delimiting the surface section by adding a defined additional section bordering on the surface section if the detected degree of dirt accumulation within the surface section exceeds the reference degree of dirt accumulation.
A method for producing a cleared biological specimen comprises: a step, wherein a material comprising biological specimen is reacted with a fixing liquid, and a step, wherein the material comprising the biological specimen obtained in step is treated with a clearing-promoting liquid to obtain a cleared material; wherein the clearing-promoting liquid is an aqueous solution comprising a nonionic surfactant and an alkali; and the concentration of the nonionic surfactant in the clearing-promoting liquid is equal to or greater than 1 %; wherein the fixing liquid is (a) an aqueous solution comprising formaldehyde or paraformaldehyde, a nonionic surfactant, an alkali, and a buffer or (b) an aqueous solution comprising formaldehyde or paraformaldehyde, an nonionic surfactant, and an alkali; and the concentration of the nonionic surfactant in the fixing liquid is equal to or greater than 1%. a step, wherein a material comprising biological specimen is reacted with a fixing liquid, and a step, wherein the material comprising the biological specimen obtained in step is treated with a clearing-promoting liquid to obtain a cleared material; wherein the clearing-promoting liquid is an aqueous solution comprising a nonionic surfactant and an alkali; and the concentration of the nonionic surfactant in the clearing-promoting liquid is equal to or greater than 1 %; wherein the fixing liquid is (a) an aqueous solution comprising formaldehyde or paraformaldehyde, a nonionic surfactant, an alkali, and a buffer or (b) an aqueous solution comprising formaldehyde or paraformaldehyde, an nonionic surfactant, and an alkali; and the concentration of the nonionic surfactant in the fixing liquid is equal to or greater than 1%.
A sound field control system comprising: an acoustic device including a sound emission unit and a signal processing unit, the sound emission unit causing a plurality of speakers (3a, 3b, 3c, 3d, 3e, 3f) to emit a test sound; a sound pickup unit which picks up the test sound using a microphone; and an analysis device including an analysis unit which compares information indicating a sound emission timing which indicates points in time of a test signal sequence for causing the speakers (3a, 3b, 3c, 3d, 3e, 3f) to successively emit the test sound at a prescribed timing with a sound pickup timing which indicates a point in time of each test sound that has been picked up, and which calculates a time difference (T1, T2, T3, T4, T5, T6) between the sound emission timing of each test sound and the sound pickup timing; wherein the signal processing unit performs a delay process for a voice signal supplied to each speaker based on the calculated time difference (T1, T2, T3, T4, T5, T6) between the sound emission timing of each test sound and the sound pickup timing; and the analysis device and the acoustic device are connected via wireless communication, characterized in that: the analysis device further includes the sound pickup unit; and a sound emission command unit, which issues a sound emission command to the sound emission unit of the acoustic device; and the sound emission command unit issues a sound emission command for the test signal sequence via a single wireless communication. an acoustic device including a sound emission unit and a signal processing unit, the sound emission unit causing a plurality of speakers (3a, 3b, 3c, 3d, 3e, 3f) to emit a test sound; a sound pickup unit which picks up the test sound using a microphone; and an analysis device including an analysis unit which compares information indicating a sound emission timing which indicates points in time of a test signal sequence for causing the speakers (3a, 3b, 3c, 3d, 3e, 3f) to successively emit the test sound at a prescribed timing with a sound pickup timing which indicates a point in time of each test sound that has been picked up, and which calculates a time difference (T1, T2, T3, T4, T5, T6) between the sound emission timing of each test sound and the sound pickup timing; wherein the signal processing unit performs a delay process for a voice signal supplied to each speaker based on the calculated time difference (T1, T2, T3, T4, T5, T6) between the sound emission timing of each test sound and the sound pickup timing; and the analysis device and the acoustic device are connected via wireless communication, the analysis device further includes the sound pickup unit; and a sound emission command unit, which issues a sound emission command to the sound emission unit of the acoustic device; and the sound emission command unit issues a sound emission command for the test signal sequence via a single wireless communication.
Pressure-relief valve for a packaging container, comprising: - a base plate, which can be fastened on a wall of the packaging container and has a valve opening, - a membrane, which is arranged on the base plate, over the valve opening, wherein the membrane has an adhesive on one side, and - an intermediate layer, which is adhesively bonded to the adhesive-containing side of the membrane such that the membrane has two remaining, adhesive-containing, parallel peripheral zones for fastening on the base plate, - wherein the membrane, with the intermediate layer, is arranged on the base plate such that a channel zone is formed on the base plate, said channel zone covering over the valve opening and, in the closed position, resting in a sealed manner on the base plate, characterized in that the intermediate layer has a thickness which is greater than the thickness of the membrane. - a base plate, which can be fastened on a wall of the packaging container and has a valve opening, - a membrane, which is arranged on the base plate, over the valve opening, wherein the membrane has an adhesive on one side, and - an intermediate layer, which is adhesively bonded to the adhesive-containing side of the membrane such that the membrane has two remaining, adhesive-containing, parallel peripheral zones for fastening on the base plate, - wherein the membrane, with the intermediate layer, is arranged on the base plate such that a channel zone is formed on the base plate, said channel zone covering over the valve opening and, in the closed position, resting in a sealed manner on the base plate, characterized in that the intermediate layer has a thickness which is greater than the thickness of the membrane.
A gimbal comprising a first rotating member and a second rotating member rotatably connected with the first rotating member, wherein the gimbal further comprises: a motor configured to drive the second rotating member to rotate with respect to the first rotating member, wherein the motor comprises: a stator; a rotator rotatably connected with the stator; and an electrical connecting device configured to provide an electric signal to the motor, wherein the motor further comprises: a magnet fixed on the rotator, and a Hall angular displacement sensor fixed on the electrical connecting device and arranged opposite to the magnet, the magnet and the Hall angular displacement sensor are spaced from each other by the electrical connecting device; wherein the rotator comprises a rotating shaft assembly rotatably connected with the stator, and a rotor fixed on the rotating shaft assembly, the magnet is fixed on the rotating shaft assembly, wherein the rotating shaft assembly comprises a rotating shaft, an upper bearing and a low bearing sleeved respectively on two ends of the rotating shaft, and wherein the magnet is fixed on the rotating shaft. a stator; a rotator rotatably connected with the stator; and an electrical connecting device configured to provide an electric signal to the motor, wherein the motor further comprises: a magnet fixed on the rotator, and a Hall angular displacement sensor fixed on the electrical connecting device and arranged opposite to the magnet, the magnet and the Hall angular displacement sensor are spaced from each other by the electrical connecting device; wherein the rotator comprises a rotating shaft assembly rotatably connected with the stator, and a rotor fixed on the rotating shaft assembly, the magnet is fixed on the rotating shaft assembly, wherein the rotating shaft assembly comprises a rotating shaft, an upper bearing and a low bearing sleeved respectively on two ends of the rotating shaft, and wherein the magnet is fixed on the rotating shaft. a magnet fixed on the rotator, and a Hall angular displacement sensor fixed on the electrical connecting device and arranged opposite to the magnet, the magnet and the Hall angular displacement sensor are spaced from each other by the electrical connecting device; wherein the rotator comprises a rotating shaft assembly rotatably connected with the stator, and a rotor fixed on the rotating shaft assembly, the magnet is fixed on the rotating shaft assembly, wherein the rotating shaft assembly comprises a rotating shaft, an upper bearing and a low bearing sleeved respectively on two ends of the rotating shaft, and wherein the magnet is fixed on the rotating shaft.
A method (300, 600) of estimating an angle of arrival (θ) of a radar signal reflected on a human target, the method comprising: receiving (304, 314, 604, 628) the reflected radar signal (RX1, RX2) with first and second antennas of a millimeter-wave radar; transforming the reflected radar signal (RX1, RX2) received with the first and second antennas to generate first and second range spectrum (306, 316, 606, 630), respectively; generating a first range-Doppler map (310, 612) based on the first range spectrum; generating a second range-Doppler map (320, 632) based on the second range spectrum; determining or estimating a Doppler velocity (v) based on the first range-Doppler map or the second range-Doppler map; macro-compensating (616, 634) the first range-Doppler map and the second range-Doppler map by selecting a peak in the first range-Doppler map or the second range-Doppler map based on the determined Doppler velocity (v); identifying an index of the first macro-compensated range-Doppler map corresponding to an identified target; estimating a phase difference (Δφ) based on the first and second macro-compensated range-Doppler maps and the identified index; and estimating the angle of arrival (θ) based on the phase difference (Δφ). receiving (304, 314, 604, 628) the reflected radar signal (RX1, RX2) with first and second antennas of a millimeter-wave radar; transforming the reflected radar signal (RX1, RX2) received with the first and second antennas to generate first and second range spectrum (306, 316, 606, 630), respectively; generating a first range-Doppler map (310, 612) based on the first range spectrum; generating a second range-Doppler map (320, 632) based on the second range spectrum; determining or estimating a Doppler velocity (v) based on the first range-Doppler map or the second range-Doppler map; macro-compensating (616, 634) the first range-Doppler map and the second range-Doppler map by selecting a peak in the first range-Doppler map or the second range-Doppler map based on the determined Doppler velocity (v); identifying an index of the first macro-compensated range-Doppler map corresponding to an identified target; estimating a phase difference (Δφ) based on the first and second macro-compensated range-Doppler maps and the identified index; and estimating the angle of arrival (θ) based on the phase difference (Δφ).
A terminal module for a fiber optic splice closure, the terminal module comprising a housing with oppositely oriented nozzles (41, 42) and sockets in said nozzles for adapters, characterised in that the terminal module further comprises a the housing flange for connection with a head flange, a housing basis stretching from the housing, and a cover closing the basis in a sealed manner forming a sealed cavity of a casing together with the basis and housing with passages in the casing for subscriber cables.