mhurhangee/patent-ind-claim-en huggingface dataset:
A communication device for communicating with a base station device , comprising: a higher layer processing unit configured to perform a SPDSCH setting through signaling of a higher layer from the base station device characterized by a control unit configured to set a first mode in which a TTI is based on a subframe or a second mode in which the TTI is based on symbols through signaling of a physical layer from the base station device; a receiving unit configured to receive a PDSCH in the first mode in case in which the SPDSCH setting is not performed and receive a PDSCH in the second mode in a case in which the SPDSCH setting is performed, wherein the PDSCH is mapped to any of one or more channel candidates within a resource based on bitmap information, wherein each bit of the bitmap information indicates in the time domain whether or not the channel candidates are included; and a transmitting unit configured to transmit a HARQ-ACK in the first mode or in the second mode, wherein a unit of data transmission for the HARQ-ACK in the first mode is a subframe and in the second mode a symbol. a higher layer processing unit configured to perform a SPDSCH setting through signaling of a higher layer from the base station device characterized by a control unit configured to set a first mode in which a TTI is based on a subframe or a second mode in which the TTI is based on symbols through signaling of a physical layer from the base station device; a receiving unit configured to receive a PDSCH in the first mode in case in which the SPDSCH setting is not performed and receive a PDSCH in the second mode in a case in which the SPDSCH setting is performed, wherein the PDSCH is mapped to any of one or more channel candidates within a resource based on bitmap information, wherein each bit of the bitmap information indicates in the time domain whether or not the channel candidates are included; and a transmitting unit configured to transmit a HARQ-ACK in the first mode or in the second mode, wherein a unit of data transmission for the HARQ-ACK in the first mode is a subframe and in the second mode a symbol.
A compound of formula I: or a deuterated compound or a pharmaceutically acceptable salt thereof for use in preventing or treating a disease mediated by lung epithelial cell injury in a subject, wherein R 1 is selected from H, -CN, fluoro, chloro, C 1-10 alkyl, fluoro or chloro substituted C 1-10 alkyl, C 1-10 alkoxy, fluoro or chloro substituted C 1-10 alkoxy, and C 3-10 cycloalkyl, wherein the disease mediated by lung epithelial cell injury is selected from one or more of acute lung injury, acute respiratory distress syndrome, pulmonary fibrosis, chronic lung disease in premature infants, chronic obstructive pulmonary disease, and pneumocystis disease. or a deuterated compound or a pharmaceutically acceptable salt thereof for use in preventing or treating a disease mediated by lung epithelial cell injury in a subject, wherein R 1 is selected from H, -CN, fluoro, chloro, C 1-10 alkyl, fluoro or chloro substituted C 1-10 alkyl, C 1-10 alkoxy, fluoro or chloro substituted C 1-10 alkoxy, and C 3-10 cycloalkyl, wherein the disease mediated by lung epithelial cell injury is selected from one or more of acute lung injury, acute respiratory distress syndrome, pulmonary fibrosis, chronic lung disease in premature infants, chronic obstructive pulmonary disease, and pneumocystis disease.
A method for vehicle safety system activation, comprising: determining, based at least in part on a portion of sensor data , a location of a vehicle within an environment , wherein the location of the vehicle identifies one or more of a position or an orientation of the vehicle within the environment; autonomously navigating the vehicle along a trajectory , wherein the trajectory indicates a subset of a planned path associated with navigating the vehicle between at least a first location and a second location within the environment; determining a location of an object within the environment; determining , based at least in part on the location of the object, a trajectory of the object; determining a threshold distance based at least on the trajectory of the vehicle and the trajectory of the object; selecting , based at least in part on the threshold distance, a safety system; and activating the safety system. determining, based at least in part on a portion of sensor data , a location of a vehicle within an environment , wherein the location of the vehicle identifies one or more of a position or an orientation of the vehicle within the environment; autonomously navigating the vehicle along a trajectory , wherein the trajectory indicates a subset of a planned path associated with navigating the vehicle between at least a first location and a second location within the environment; determining a location of an object within the environment; determining , based at least in part on the location of the object, a trajectory of the object; determining a threshold distance based at least on the trajectory of the vehicle and the trajectory of the object; selecting , based at least in part on the threshold distance, a safety system; and activating the safety system.
A device for compensating for variations in temperature of the length of an optical fiber of an electro-optical transducer , having a tubular holding element the axis of symmetry of which is coincident with the axis of said optical fiber and two terminal elements arranged axially with respect to the holding element and forming two walls that plug the holding element so as to delineate, inside the holder , a cavity of length ΔL; characterized in that at least a first terminal element is configured to form a movable wall inside the holding element , said element having a body of cylindrical shape configured to be able to be inserted inside the tubular holder and to be able to slide axially inside the latter; said cylindrical body comprising an end wall , the tubular holder and the terminal element being arranged and fastened to each other at the end edge of the holding element in such a way that the body of the terminal element is kept free to slide inside the holder ; the sliding motion of the body of the first terminal element causing the axial movement of its end wall inside the holding element and a variation in the length ΔL of said cavity ; the materials from which the holding element and the terminal element are respectively made being chosen for their respective coefficients of thermal expansion, such that the direction of variation of the length ΔL of said cavity as a function of the ambient temperature θ is of opposite sign to the direction of variation of said ambient temperature.
A method for accelerated audio processing in a streaming environment the method comprising: a) determining, from signal analysis for a series of audio blocks in a set interval for a streaming audio asset, an audio block to be dropped from the streaming audio asset for the set interval; b) dropping the determined audio block ; c) compensating for the dropped audio block to generate compensated audio; and d) playing the compensated audio through an audio device, characterised in that compensating at c) comprises averaging a last set of samples of a prior audio block that is immediately before the dropped audio block with an initial set of samples of a next audio block, and adjusting the values of those samples towards that average, in which frequency analysis is applied to the prior audio block immediately before the dropped audio block to determine a period, of the end of the prior audio block to be averaged with the beginning of the next audio block, so that a greater amount of the end of the prior audio block is averaged for a lower frequency waveform than for a higher frequency waveform. a) determining, from signal analysis for a series of audio blocks in a set interval for a streaming audio asset, an audio block to be dropped from the streaming audio asset for the set interval; b) dropping the determined audio block ; c) compensating for the dropped audio block to generate compensated audio; and d) playing the compensated audio through an audio device, characterised in that compensating at c) comprises averaging a last set of samples of a prior audio block that is immediately before the dropped audio block with an initial set of samples of a next audio block, and adjusting the values of those samples towards that average, in which frequency analysis is applied to the prior audio block immediately before the dropped audio block to determine a period, of the end of the prior audio block to be averaged with the beginning of the next audio block, so that a greater amount of the end of the prior audio block is averaged for a lower frequency waveform than for a higher frequency waveform. characterised in that compensating at c) comprises averaging a last set of samples of a prior audio block that is immediately before the dropped audio block with an initial set of samples of a next audio block, and adjusting the values of those samples towards that average, in which frequency analysis is applied to the prior audio block immediately before the dropped audio block to determine a period, of the end of the prior audio block to be averaged with the beginning of the next audio block, so that a greater amount of the end of the prior audio block is averaged for a lower frequency waveform than for a higher frequency waveform.
A spinning nozzle for an air-jet spinning machine for producing a yarn from a fiber strand fed into the spinning nozzle , - the spinning nozzle comprising an interior vortex chamber at least partially outwardly bounded by a first spinning nozzle segment and second spinning nozzle segment , - the first spinning nozzle segment comprising an inlet opening for the fiber strand and a plurality of air nozzles by means of which air can be introduced into the vortex chamber , - the spinning nozzle comprising a yarn-forming element at least partially extending into the vortex chamber , having an inlet for the fiber strand and an outlet for the yarn produced within the vortex chamber in the region of the yarn-forming element when the spinning nozzle is in operation, and - the yarn-forming element being supported by the second spinning nozzle segment by means of a guide and displaceable relative to the second spinning nozzle segment between a spinning position and a cleaning position, characterized in that the first spinning nozzle segment is attached to the second spinning nozzle segment by means of at least one pivot axis and is pivotable about the pivot axis from a closed position into an open position, wherein the inlet of the yarn-forming element is externally accessible to a user only in the open position, regardless of the position of the yarn-forming element . - the spinning nozzle comprising an interior vortex chamber at least partially outwardly bounded by a first spinning nozzle segment and second spinning nozzle segment , - the first spinning nozzle segment comprising an inlet opening for the fiber strand and a plurality of air nozzles by means of which air can be introduced into the vortex chamber , - the spinning nozzle comprising a yarn-forming element at least partially extending into the vortex chamber , having an inlet for the fiber strand and an outlet for the yarn produced within the vortex chamber in the region of the yarn-forming element when the spinning nozzle is in operation, and - the yarn-forming element being supported by the second spinning nozzle segment by means of a guide and displaceable relative to the second spinning nozzle segment between a spinning position and a cleaning position,
An image capture method implemented on a computing device having at least one storage device and at least one processor, the method comprising: obtaining first color image data including color information, wherein the first color image data is generated by an image capture device with an infrared light source off; obtaining first luminance image data including luminance information, wherein the first luminance image data is generated by the image capture device with the infrared light source on; generating a first enhanced image based on the first color image data and the first luminance image data; determining a first exposure parameter of the image capture device based on the first color image data or the first enhanced image; determining a second exposure parameter of the image capture device based on the first luminance image data or the first enhanced image; configuring the first exposure parameter before the infrared light source is off so that the configuration of the first exposure parameter is completed when the infrared light source is off and second color image data is obtained, using the first exposure parameter, synchronously with the timing during which the infrared light source is off; and configuring the second exposure parameter before the infrared light source is on so that the configuration of the second exposure parameter is completed when the infrared light source is on and second luminance image data is obtained, using the second exposure parameter, synchronously with the timing during which the infrared light source is on. obtaining first color image data including color information, wherein the first color image data is generated by an image capture device with an infrared light source off; obtaining first luminance image data including luminance information, generating a first enhanced image based on the first color image data and the first luminance image data; determining a first exposure parameter of the image capture device based on the first color image data or the first enhanced image; determining a second exposure parameter of the image capture device based on the first luminance image data or the first enhanced image; configuring the first exposure parameter before the infrared light source is off so that the configuration of the first exposure parameter is completed when the infrared light source is off and second color image data is obtained, using the first exposure parameter, synchronously with the timing during which the infrared light source is off; and configuring the second exposure parameter before the infrared light source is on so that the configuration of the second exposure parameter is completed when the infrared light source is on and second luminance image data is obtained, using the second exposure parameter, synchronously with the timing during which the infrared light source is on.
A method , implemented via a coherent modem with circuitry , the method comprising steps of: operating an optical interface at a first rate; and subsequent to a requirement to subrate the optical interface to a second rate: determining which one or more services are affected; signaling one or more partial failures for the one or more affected services; and operating the optical interface at a second rate that is less than the first rate. operating an optical interface at a first rate; and subsequent to a requirement to subrate the optical interface to a second rate: determining which one or more services are affected; signaling one or more partial failures for the one or more affected services; and operating the optical interface at a second rate that is less than the first rate. determining which one or more services are affected; signaling one or more partial failures for the one or more affected services; and operating the optical interface at a second rate that is less than the first rate.
A spectrometer comprising: an illuminating section configured to generate radiation having a spectral content; a receiving section configured to detect the radiation reflected from an object comprising an optically inhomogeneous scattering medium, the receiving section comprising at least one optical radiation receiver having a predetermined spectral sensitivity; a hardware section configured to record the radiation, and obtain a solution of an inverse problem to reconstruct a continuous absorption spectrum of the optically inhomogeneous scattering medium included in the object, wherein the illuminating section comprises at least one light-emitting diode source and at least two spectral filters configured to divide a radiation spectral curve of the at least one light-emitting diode source into at least two spectral regions, wherein the at least two spectral filters include a first spectral filter and a second spectral filter and a spectral curve of the second spectral filter is shifted relative to a spectral curve of the first spectral filter to partially overlap with the spectral curve of the first spectral filter, and wherein the hardware section is configured to solve the inverse problem based on information about the spectral content of the radiation of the illuminating section, a signal obtained in a form of a response from the optically inhomogeneous scattering medium, and a spectral sensitivity curve of the at least one optical radiation receiver. an illuminating section configured to generate radiation having a spectral content; a receiving section configured to detect the radiation reflected from an object comprising an optically inhomogeneous scattering medium, the receiving section comprising at least one optical radiation receiver having a predetermined spectral sensitivity; a hardware section configured to record the radiation, and obtain a solution of an inverse problem to reconstruct a continuous absorption spectrum of the optically inhomogeneous scattering medium included in the object, wherein the illuminating section comprises at least one light-emitting diode source and at least two spectral filters configured to divide a radiation spectral curve of the at least one light-emitting diode source into at least two spectral regions, wherein the at least two spectral filters include a first spectral filter and a second spectral filter and a spectral curve of the second spectral filter is shifted relative to a spectral curve of the first spectral filter to partially overlap with the spectral curve of the first spectral filter, and wherein the hardware section is configured to solve the inverse problem based on information about the spectral content of the radiation of the illuminating section, a signal obtained in a form of a response from the optically inhomogeneous scattering medium, and a spectral sensitivity curve of the at least one optical radiation receiver.
A method for displaying a service identifier, applicable to an electronic device , wherein the electronic device supports an enhanced Mobile Broadband -eMBB- service and a doubly connected mode, the electronic device establishes a first communication connection with a first network device and establishes a second communication connection with a second network device in the doubly connected mode, the first and second network devices are on a first 5th Generation -5G- Non-Standalone -NSA- network, the first network device is an evolutional 4th Generation -4G- nodeB, the second network device is a 5G nodeB, a core of the first 5G NSA network is a 5G Next Generation core, the first network device communicates with the second network device and the 5G Next Generation core, and the method comprises: acquiring a New Radio -NR- Reference Signal Receiving Power -RSRP- and an uplink transmission bandwidth threshold, when it is detected that the electronic device activates the eMBB service; determining a service identifier of the eMBB service according to the NR RSPR and the uplink transmission bandwidth threshold; and displaying the service identifier of the eMBB service. acquiring a New Radio -NR- Reference Signal Receiving Power -RSRP- and an uplink transmission bandwidth threshold, when it is detected that the electronic device activates the eMBB service; determining a service identifier of the eMBB service according to the NR RSPR and the uplink transmission bandwidth threshold; and displaying the service identifier of the eMBB service.
A method of operating an internal combustion piston engine whereby, while the engine is running, the following steps are executed: - Opening an intake valve for introducing intake air into a cylinder of the engine via an intake duct , - Closing the intake valve during an intake stroke before bottom dead center of a piston in the cylinder , - Compressing the intake air in the cylinder , - Feeding fuel into the cylinder of the engine and combusting the fuel in the cylinder generating exhaust gas, - Opening an exhaust valve of the cylinder after combusting the fuel for guiding the exhaust gas from the cylinder into an exhaust duct , - Guiding a portion of the exhaust gas back from the exhaust duct into the cylinder via the exhaust valve during the intake stroke before the bottom dead center thus resulting in an internal exhaust gas recirculation, and - Controlling the emissions in the exhaust gas by a selective catalytic reduction stage arranged in the exhaust gas duct downstream of the engine , characterized in that the method comprises the further step of - Introducing a water based solution containing reductant to the cylinder in the internal exhaust gas recirculation stage. - Opening an intake valve for introducing intake air into a cylinder of the engine via an intake duct , - Closing the intake valve during an intake stroke before bottom dead center of a piston in the cylinder , - Compressing the intake air in the cylinder , - Feeding fuel into the cylinder of the engine and combusting the fuel in the cylinder generating exhaust gas, - Opening an exhaust valve of the cylinder after combusting the fuel for guiding the exhaust gas from the cylinder into an exhaust duct , - Guiding a portion of the exhaust gas back from the exhaust duct into the cylinder via the exhaust valve during the intake stroke before the bottom dead center thus resulting in an internal exhaust gas recirculation, and - Controlling the emissions in the exhaust gas by a selective catalytic reduction stage arranged in the exhaust gas duct downstream of the engine , - Introducing a water based solution containing reductant to the cylinder in the internal exhaust gas recirculation stage.
Upper part of a valve, in particular for sanitary fittings, having a sleeve-like head piece mountable in a valve housing of a fitting, which is centrally penetrated by a spindle , which has a handle connection and is mounted to be rotatable about its longitudinal axis, via which a valve body can be operated, wherein a groove is inserted in the spindle , which receives an elastic slide bush at least partially radially enclosing the spindle , which rests on the inner surface of the head piece at least in some areas, characterised in that the slide bush is curved in such a manner that it only partially rests on the groove base of the groove as well as on the inner surface of the head piece .