mhurhangee/patent-ind-claim-en huggingface dataset:
A method , comprising: causing capture of a series of image frames of a video by a camera , the camera comprising a lens assembly and an image sensor , wherein capture of each image frame from among the series of image frames involves performing operations of: detecting the movement of the camera during the capture of the each image frame; effecting optical image stabilization, OIS, for the each image frame to compensate for the detected movement of the camera; and resetting at least one of the lens assembly or the image sensor to an initial pre- capture position subsequent to the capture of the each image frame, wherein the pre-capture position is an aligned position of the lens and the image sensor configured prior to movement of the camera and a subsequent shifting of an optical axis; the method being characterized in that it further comprises: performing digital image stabilization, DIS, for one or more image frames of the video subsequent to the capture of the series of image frames of the video, wherein the DIS for an image frame from among the one or more image frames is performed based on the movement of the camera detected for the image frame and the movement of the camera detected for at least one other image from among the series of image frames, and, wherein performing of the DIS for the one or more image frames substantially removes an effect of the movement of the camera from the one or more image frames of the video; and causing display of the video on a display screen of an electronic device subsequent to performing of the DIS for the one or more image frames of the video. detecting the movement of the camera during the capture of the each image frame; effecting optical image stabilization, OIS, for the each image frame to compensate for the detected movement of the camera; and resetting at least one of the lens assembly or the image sensor to an initial pre- capture position subsequent to the capture of the each image frame, wherein the pre-capture position is an aligned position of the lens and the image sensor configured prior to movement of the camera and a subsequent shifting of an optical axis; performing digital image stabilization, DIS, for one or more image frames of the video subsequent to the capture of the series of image frames of the video, wherein the DIS for an image frame from among the one or more image frames is performed based on the movement of the camera detected for the image frame and the movement of the camera detected for at least one other image from among the series of image frames, and, wherein performing of the DIS for the one or more image frames substantially removes an effect of the movement of the camera from the one or more image frames of the video; and causing display of the video on a display screen of an electronic device subsequent to performing of the DIS for the one or more image frames of the video.
A method for sharing a channel in a wireless communications system among wireless devices that use a plurality of different access technologies, the method comprising: accessing (S32), by a wireless device, the channel; determining (S34), by the wireless device, that an access technology used to access the channel is a first one of the plurality of different access technologies; and at least partially in response to the determination, indicating (S36), by the wireless device, to one or more other wireless devices that the first access technology is used to access the channel, wherein the use of the first access technology is indicated to the one or more other wireless devices by at least one predetermined signal parameter of a service advertisement signal that is broadcast to advertise use of the channel to the one or more other wireless devices, the at least one predetermined signal parameter being recognizable by the one or more other wireless devices as indicating use of the first access technology, wherein the at least one predetermined signal parameter is at least one of: a periodicity of the service advertisement signal; and a predetermined sequence used to generate the service advertisement signal. accessing (S32), by a wireless device, the channel; determining (S34), by the wireless device, that an access technology used to access the channel is a first one of the plurality of different access technologies; and at least partially in response to the determination, indicating (S36), by the wireless device, to one or more other wireless devices that the first access technology is used to access the channel, wherein the use of the first access technology is indicated to the one or more other wireless devices by at least one predetermined signal parameter of a service advertisement signal that is broadcast to advertise use of the channel to the one or more other wireless devices, the at least one predetermined signal parameter being recognizable by the one or more other wireless devices as indicating use of the first access technology, wherein the at least one predetermined signal parameter is at least one of: a periodicity of the service advertisement signal; and a predetermined sequence used to generate the service advertisement signal. a periodicity of the service advertisement signal; and a predetermined sequence used to generate the service advertisement signal.
(R)-2-[3-[[N-(benzoxazol-2-yl)-N-3-(4-methoxyphenoxy)propyl]aminomethyl]phenoxy]butyric acid or a salt thereof, or a solvate thereof for use in the prophylaxis and/or treatment of nonalcoholic fatty liver disease.
A method for determining a beating rate of a fibre suspension, wherein part of a fibre suspension flow is led to a separate flow channel as a sample and the beating rate is determined based on the sample, characterised in that the beating rate is determined as an online measurement using a time domain NMR spectroscope and an empirically defined correlation function having a form Sr = A * T2(NMR) + B, where Sr is the Schopper-Riegler number, T2 (NMR) is a spin-spin relaxation time and A and B are empirically determined constants, said method comprising the following steps: - generating a magnetic field (E) in said flow channel , - exciting protons (p) contained in water in the fibre suspension of the sample with several frequency pulses provided by a coil , - measuring response signals of the frequency pulses returning from protons (p) to the coil , - calculating the spin-spin relaxation time T2(NMR) of the protons based on amplitudes of the measured response signals, - determining the Schopper-Riegler number, Sr, as a representation of the beating rate of the fibre suspension using said correlation function based on the spin-spin relaxation time T2(NMR) calculated from the response signals. - generating a magnetic field (E) in said flow channel , - exciting protons (p) contained in water in the fibre suspension of the sample with several frequency pulses provided by a coil , - measuring response signals of the frequency pulses returning from protons (p) to the coil , - calculating the spin-spin relaxation time T2(NMR) of the protons based on amplitudes of the measured response signals, - determining the Schopper-Riegler number, Sr, as a representation of the beating rate of the fibre suspension using said correlation function based on the spin-spin relaxation time T2(NMR) calculated from the response signals.
An optical fiber ribbon , comprising: a plurality of optical fibers disposed in parallel to each other; a connecting resin for connecting the plurality of optical fibers ; and a bridge portion formed of the connecting resin , wherein the plurality of optical fibers are disposed in a state where a side surface of the optical fiber is separated from or in contact with a side surface of another adjacent optical fiber , wherein the bridge portion is provided between the optical fibers disposed in the separated state, wherein an outer diameter of the optical fiber (11A, 11B, 11C, 11D, 11E, 11F, 11G, 11H, 1 1J, 11K, 11L) is 220 μm or less, wherein an average distance between centers of the plurality of optical fibers (11A, 11B, 11C, 11D, 11E, 11F, 11G, 11H, 1 1J, 11K, 11L) is 220 μm or more and 280 μm or less, and a maximum thickness D of the optical fiber ribbon including the optical fiber is 235 μm or less, characterized in that the connecting resin has a Young's modulus of 0.5 MPa or more and 200 MPa or less at room temperature, and when a width of the bridge portion is defined as W, a thickness of the bridge portion is defined as t, and a Young's modulus at room temperature of the connecting resin is defined as E, a deformation parameter P represented by P = D × E × t 2 / W is 0.035 MPa.mm 2 or more and 14.2 MPa.mm 2 or less. a plurality of optical fibers disposed in parallel to each other; a connecting resin for connecting the plurality of optical fibers ; and a bridge portion formed of the connecting resin , wherein the plurality of optical fibers are disposed in a state where a side surface of the optical fiber is separated from or in contact with a side surface of another adjacent optical fiber , wherein the bridge portion is provided between the optical fibers disposed in the separated state, wherein an outer diameter of the optical fiber (11A, 11B, 11C, 11D, 11E, 11F, 11G, 11H, 1 1J, 11K, 11L) is 220 μm or less, wherein an average distance between centers of the plurality of optical fibers (11A, 11B, 11C, 11D, 11E, 11F, 11G, 11H, 1 1J, 11K, 11L) is 220 μm or more and 280 μm or less, and a maximum thickness D of the optical fiber ribbon including the optical fiber is 235 μm or less, characterized in that the connecting resin has a Young's modulus of 0.5 MPa or more and 200 MPa or less at room temperature, and when a width of the bridge portion is defined as W, a thickness of the bridge portion is defined as t, and a Young's modulus at room temperature of the connecting resin is defined as E, a deformation parameter P represented by P = D × E × t 2 / W is 0.035 MPa.mm 2 or more and 14.2 MPa.mm 2 or less.
A method of transmitting data, comprising: receiving , by a terminal device, first resource indication information from a network device at a first moment, the first moment being located in the n-th time domain resource unit, the first resource indication information indicating a frequency domain resource allocated for transmission of a target channel in the (n+i)-th time domain resource unit, and the target channel comprising a data channel or a control channel of the terminal device, where n and i are positive integers; characterized by receiving , by the terminal device, second resource indication information from the network device at a second moment after the first moment, the second resource indication information indicating a time domain resource allocated for transmission of the target channel in the (n+i)-th time domain resource unit, wherein the time domain resource allocated for transmission of the target channel in the (n+i)-th time domain resource unit is determined by the network device after the first moment. receiving , by a terminal device, first resource indication information from a network device at a first moment, the first moment being located in the n-th time domain resource unit, the first resource indication information indicating a frequency domain resource allocated for transmission of a target channel in the (n+i)-th time domain resource unit, and the target channel comprising a data channel or a control channel of the terminal device, where n and i are positive integers; characterized by receiving , by the terminal device, second resource indication information from the network device at a second moment after the first moment, the second resource indication information indicating a time domain resource allocated for transmission of the target channel in the (n+i)-th time domain resource unit, wherein the time domain resource allocated for transmission of the target channel in the (n+i)-th time domain resource unit is determined by the network device after the first moment.
An optical node (ON1) for managing optical signals, said optical node (ON1) being configurable to be connected to a main lightpath (M15) and to a protection lightpath (P15), said protection lightpath (P15) being an alternate optical path in case of a failure event on the main lightpath (M15), the optical node (ON1) being configurable to transmit an output optical signal (TS) on a first carrier wavelength on the main optical path (M15), said optical node (ON1) characterized by : - a first carrier wavelength selector device (SE1) being configurable to be provided with a first carrier signal (W1) on the first carrier wavelength and with a second carrier signal (W2) on a second carrier wavelength, said first carrier wavelength and said second carrier wavelength being different carrier wavelengths, and adapted for outputting a selected optical signal (WS), said selected optical signal (WS) resulting from the selection of the first carrier signal (W1) or from the selection of the second carrier signal (W2), - an optical modulator device (MD) for performing the modulation of a transmit informative signal (IS1) with the selected optical signal (WS), said transmit informative signal comprising first informative data (ID1), said modulation resulting into the output optical signal (TS), and in response to occurrence of a failure event on the main lightpath (M15), the optical node (ON1) being adapted for: - configuring the first carrier wavelength selector device (SE1) for selecting the second carrier signal (W2) for outputting the selected optical signal (WS) to be provided to the optical modulator device (MD), - transmitting the output optical signal (TS) on the protection lightpath (P15), said output optical signal (TS) resulting from the modulation performed by the optical modulator device (MD). - a first carrier wavelength selector device (SE1) being configurable to be provided with a first carrier signal (W1) on the first carrier wavelength and with a second carrier signal (W2) on a second carrier wavelength, said first carrier wavelength and said second carrier wavelength being different carrier wavelengths, and adapted for outputting a selected optical signal (WS), said selected optical signal (WS) resulting from the selection of the first carrier signal (W1) or from the selection of the second carrier signal (W2), - an optical modulator device (MD) for performing the modulation of a transmit informative signal (IS1) with the selected optical signal (WS), said transmit informative signal comprising first informative data (ID1), said modulation resulting into the output optical signal (TS), - configuring the first carrier wavelength selector device (SE1) for selecting the second carrier signal (W2) for outputting the selected optical signal (WS) to be provided to the optical modulator device (MD), - transmitting the output optical signal (TS) on the protection lightpath (P15), said output optical signal (TS) resulting from the modulation performed by the optical modulator device (MD).
A method for preparing 1,4-cyclohexanedicarboxylic acid dichloride, comprising reacting 1,4-cyclohexanedicarboxylic acid containing at least 70% cis isomers with thionyl chloride, wherein the 1,4-cyclohexanedicarboxylic acid dichloride contains at least 60% cis isomers, and the 1,4-cyclohexanedicarboxylic acid dichloride contains acidic gas in an amount of 1.0% by weight or less, wherein the reaction is carried out at 40 to 50 °C by adding thionyl chloride dropwise to 1,4-cyclohexanecarboxylic acid, further comprising removing unreacted thionyl chloride and generated acidic gas after the reaction, wherein the removal of unreacted thionyl chloride and generated acidic gas is carried out by degassing, and the degassing is carried out by passing nitrogen through the reaction solution at a reduced pressure of 13.3 kPa or lower and at a temperature of 80°C or lower.
A controlling method for an actuator upon braking during driving, the actuator comprising an electric motor with a shaft and a brake force holding device capable of locking the shaft, the controlling method comprising: receiving a brake demand; controlling the electric motor based on the brake demand; and if the brake demand satisfies a preset stationary condition within a preset period, controlling the brake force holding device to lock the shaft. receiving a brake demand; controlling the electric motor based on the brake demand; and if the brake demand satisfies a preset stationary condition within a preset period, controlling the brake force holding device to lock the shaft.
System for determining the subjective refractive properties of an eye of a subject based on the use of a natural image , wherein the system includes the following: - a storage device in which at least one natural image is stored; - a display apparatus for displaying the at least one natural image from the storage device ; and - an optics arrangement for placing different light-refractive elements into an optical path between the eye of the subject and the display apparatus , wherein the optics arrangement is arranged at a specified distance (d) from the display apparatus , characterized in that the natural image has at least two regions having different spatial frequencies (f). - a storage device in which at least one natural image is stored; - a display apparatus for displaying the at least one natural image from the storage device ; and - an optics arrangement for placing different light-refractive elements into an optical path between the eye of the subject and the display apparatus , wherein the optics arrangement is arranged at a specified distance (d) from the display apparatus , characterized in that the natural image has at least two regions having different spatial frequencies (f).
Cooking device with a component that heats up during operation and a cooling air fan , with which the component is cooled, and with at least one heat pipe and with a control unit , wherein the cooling air fan and the heat pipe are connected to the control unit and are controlled by these, wherein in a cooling air fan after-run time, while the component is in the switched-off operating state, the component in its switched-off operating state is cooled at least temporarily in the cooling air fan after-run time at least proportionately by at least the heat pipe , characterised in that in the cooling air fan after-run time, while the component is switched off, the cooling air fan is switched off or is operated with a reduced speed of a fan wheel of the cooling air fan .
A modified Family 5 cellulase comprising a substitution of an amino acid at position 363 with a non-native alanine, said position determined from alignment of the modified Family 5 cellulase amino acid sequence with amino acids 71 to 397 of SEQ ID NO:1, wherein the modified Family 5 cellulase contains no more than 20 other amino acids substitutions relative to a corresponding wild-type Family 5 cellulase, and wherein the modified Family 5 cellulase is derived from a species of Trichoderma which does not naturally possess an alanine at position 363.
A bonded abrasive article comprising shaped abrasive particles and a bonding medium comprising a vitreous bond, said shaped abrasive particles each comprising a first side and a second side separated by a thickness t, wherein said first side comprises a first face having a perimeter of a first geometric shape, wherein said thickness t is equal to or smaller than the length of the shortest side-related dimension of the particle, wherein the article exhibits at least on a part of its surface a (re)created surface profile comprising at least one male surface feature wherein said shaped abrasive particles have a largest dimension L max of the same order of magnitude as compared to a dimension of said surface feature
A method of correcting a satellite image acquisition time to be at least temporarily implemented by a computer, the method comprising: receiving, from a ground-based orbit propagator , a desired satellite position for imaging; receiving, from the ground-based orbit propagator or a satellite-based orbit propagator , an initially predicted imaging time and a correction command execution time, wherein the correction command execution time refers to a time at which a command for correcting an image acquisition time is executed; calculating a waiting time for imaging; obtaining a correction point-based satellite position from a satellite positioning system receiver (530;630), wherein the correction point-based satellite position refers to a position of a satellite in orbit at the correction command execution time; calculating a predicted satellite position when the waiting time elapses after the correction command execution time; calculating a correction time, wherein the correction time refers to a time to be added to the initially predicted imaging time to correct an image acquisition time; and calculating a corrected imaging time. receiving, from a ground-based orbit propagator , a desired satellite position for imaging; receiving, from the ground-based orbit propagator or a satellite-based orbit propagator , an initially predicted imaging time and a correction command execution time, wherein the correction command execution time refers to a time at which a command for correcting an image acquisition time is executed; calculating a waiting time for imaging; obtaining a correction point-based satellite position from a satellite positioning system receiver (530;630), wherein the correction point-based satellite position refers to a position of a satellite in orbit at the correction command execution time; calculating a predicted satellite position when the waiting time elapses after the correction command execution time; calculating a correction time, wherein the correction time refers to a time to be added to the initially predicted imaging time to correct an image acquisition time; and calculating a corrected imaging time.
A multilayer film obtained by forming a coating layer on at least one face of a substrate film, wherein said coating layer contains an oxazoline group, comprises an acrylic resin, and has a thickness (D) of 5 to 150 nm and a relation of the thickness (D) of the coating layer with the ratio (P1/P2) of the peak-intensity (P1) of the peak having the absorption maximum in a region of 1655 ± 10 cm -1 and the peak-intensity (P2) of the peak having the absorption maximum in a region of 1580 ± 10 cm -1 in the total reflection infrared absorption spectrum of the coating layer satisfies the following inequality. 0.035 ≤ P 1 / P 2 / D ≤ 0.15