mhurhangee/patent-ind-claim-en huggingface dataset:
An aircraft door controller , comprising: a receiver configured to receive a command to move an aircraft door between an open position and a closed position relative to a door frame; a processor configured to determine whether power to move the aircraft door between the open position and the closed position relative to the door frame is available; and a memory ; wherein the command comprises an electrical signal, and wherein the processor is configured to store the command or information representative thereof in the memory when the power is available, and not store the command or information representative thereof in the memory when the power is unavailable. a receiver configured to receive a command to move an aircraft door between an open position and a closed position relative to a door frame; a processor configured to determine whether power to move the aircraft door between the open position and the closed position relative to the door frame is available; and a memory ; wherein the command comprises an electrical signal, and wherein the processor is configured to store the command or information representative thereof in the memory when the power is available, and not store the command or information representative thereof in the memory when the power is unavailable.
An acoustic tool for imaging in a subterranean wellbore, the tool comprising: an acoustic transmitter ; an acoustic receiver spaced axially away from the transmitter ; an elongate attenuation element that is between the transmitter and receiver , and that is inserted into an open end of a sleeve ; a communication path defined by a transmission of acoustic signals between the transmitter and receiver ; and a lock ring that contacts the end of the attenuation element such as to retain the end in the sleeve ; characterised by : a contact interface between the lock ring and the attenuation element that follows a curved route, is in the communication path, and that defines a reduction in cross sectional area of the communication path; and wherein the attenuation element comprises an end that is spherically shaped. an acoustic transmitter ; an acoustic receiver spaced axially away from the transmitter ; an elongate attenuation element that is between the transmitter and receiver , and that is inserted into an open end of a sleeve ; a communication path defined by a transmission of acoustic signals between the transmitter and receiver ; and a lock ring that contacts the end of the attenuation element such as to retain the end in the sleeve ;
A carbon material for a catalyst carrier of a polymer electrolyte fuel cell, which is a porous carbon material with a three-dimensionally branched three-dimensional dendritic structure, and simultaneously satisfying the following (A), (B), and (C): (A) by a Raman spectroscopic analysis in which a laser beam with a wavelength of 532 nm is used as excitation light, a circular beam diameter for irradiating a sample is 1 μm, and 50 arbitrary measurement points are measured with respect to the same sample, an obtained standard deviation δ(R) of a relative intensity ratio I D /I G (R value) of an intensity of a D-band (near 1360 cm -1 ) to an intensity of a G-band (near 1580 cm -1 ) is from 0.01 to 0.07, (B) a BET specific surface area S BET obtained by a BET analysis of a nitrogen gas adsorption isotherm is from 400 to 1520 m 2 /g, and (C) a nitrogen gas adsorption amount V N:0,4-0.8 adsorbed during a relative pressure (p/p 0 ) from 0.4 to 0.8 in the nitrogen gas adsorption isotherm is from 100 to 300 cc(STP)/g. (A) by a Raman spectroscopic analysis in which a laser beam with a wavelength of 532 nm is used as excitation light, a circular beam diameter for irradiating a sample is 1 μm, and 50 arbitrary measurement points are measured with respect to the same sample, an obtained standard deviation δ(R) of a relative intensity ratio I D /I G (R value) of an intensity of a D-band (near 1360 cm -1 ) to an intensity of a G-band (near 1580 cm -1 ) is from 0.01 to 0.07, (B) a BET specific surface area S BET obtained by a BET analysis of a nitrogen gas adsorption isotherm is from 400 to 1520 m 2 /g, and (C) a nitrogen gas adsorption amount V N:0,4-0.8 adsorbed during a relative pressure (p/p 0 ) from 0.4 to 0.8 in the nitrogen gas adsorption isotherm is from 100 to 300 cc(STP)/g.
A yarn production system comprising: spinning packs in each of which molten polymer is stored and each of which spins out at least one yarn (Y) downward from a spinneret provided at a lower end portion of each of the spinning packs ; a spinning beam in which the spinning packs are inserted; first guides which are provided below the spinning packs and which individually guide the yarns (Y); and a second guide which is provided below the first guides and which causes the yarns (Y) guided by the first guides to be converged, and the spinning packs including a first line arranged along a curved line in plan view and a second line arranged along the first line. spinning packs in each of which molten polymer is stored and each of which spins out at least one yarn (Y) downward from a spinneret provided at a lower end portion of each of the spinning packs ; a spinning beam in which the spinning packs are inserted; first guides which are provided below the spinning packs and which individually guide the yarns (Y); and a second guide which is provided below the first guides and which causes the yarns (Y) guided by the first guides to be converged, and the spinning packs including a first line arranged along a curved line in plan view and a second line arranged along the first line.
Apparatus for axial centering of rod-like articles or groups of rod-like articles of the tobacco industry of same or varying lengths, wherein: - the apparatus comprises a drum conveyor having a drum , the drum having multiple flutes on its circumference for conveying the rod-like articles or the groups of rod-like articles - the apparatus is provided with pusher elements (10, 13; 20, 23; 30, 33; 40, 43) of a shifting mechanism, for axially acting on the rod-like articles or the groups of rod-like articles so as to change the position of the rod-like articles or the groups of rod-like articles in the flutes , characterized in that - the pusher elements (10, 13; 20, 23; 30, 33; 40, 43) are coupled to make swinging movements having opposite senses, - the pusher elements (10, 13;-, 20, 23; 30, 33; 40, 43) have contact surfaces (10A, 13A; 20A, 23A; 30A, 33A; 45A) adapted to axially act on the rod-like articles or the groups of rod-like articles, with the contact surfaces (10A, 13A; 20A, 23A; 30A, 33A; 45A) of the pusher elements (10, 13; 20, 23; 30, 33; 40, 43) being convergently positioned in the direction of movement (T) of the rod-like articles or the groups of rod-like articles, at least one pusher element (10, 13; 20, 23; 30, 33; 40, 43) of the coupled pusher elements being connected with a dynamic element (6; 26; 37; 47) for placing the pusher elements (10, 13; 20, 23; 30, 33; 40, 43) in a position enabling them to axially act on the rod-like articles or the groups of rod-like articles conveyed on the drum of the drum conveyor so that the centers of the rod-like articles or the groups of rod-like articles are positioned principally in a common plane (S, SL, SR). - the apparatus comprises a drum conveyor having a drum , the drum having multiple flutes on its circumference for conveying the rod-like articles or the groups of rod-like articles - the apparatus is provided with pusher elements (10, 13; 20, 23; 30, 33; 40, 43) of a shifting mechanism, for axially acting on the rod-like articles or the groups of rod-like articles so as to change the position of the rod-like articles or the groups of rod-like articles in the flutes , - the pusher elements (10, 13; 20, 23; 30, 33; 40, 43) are coupled to make swinging movements having opposite senses, - the pusher elements (10, 13;-, 20, 23; 30, 33; 40, 43) have contact surfaces (10A, 13A; 20A, 23A; 30A, 33A; 45A) adapted to axially act on the rod-like articles or the groups of rod-like articles, with the contact surfaces (10A, 13A; 20A, 23A; 30A, 33A; 45A) of the pusher elements (10, 13; 20, 23; 30, 33; 40, 43) being convergently positioned in the direction of movement (T) of the rod-like articles or the groups of rod-like articles,
A biomaterial for treatment of acute and chronic skin wounds being a hyaluronic acid based functionalized biomaterial comprising crosslinked hyaluronic acid and hyaluronic acid gel, wherein - the crosslinked hyaluronic acid is mixed with hyaluronic acid gel in v/v ratio of 1:2; - the molecular mass of hyaluronic acid used for production of both crosslinked and gel component of the biomaterial is within the range of 2,00 - 2,20 MDa; - the crosslinked component of the biomaterial is produced using 1,4-butanediol diglycidil ether as a crosslinking agent; - the biomaterial being functionalized using purified glycoprotein fraction, wherein the concentration of the purified glycoprotein in the biomaterial is 15-25 μg/ml; - the glycoprotein component of the biomaterial is isolated form filamentous fungus Penicillium lanoso-viride by stepwise precipitation with ammonium sulphate followed by purification by gel filtration on Sephadex G-200 column; - and wherein the dominating N-glycans of the purified glycoprotein fraction are Man7GlcNAc, Man8GlcNAc, Man9GlcNAc. - the crosslinked hyaluronic acid is mixed with hyaluronic acid gel in v/v ratio of 1:2; - the molecular mass of hyaluronic acid used for production of both crosslinked and gel component of the biomaterial is within the range of 2,00 - 2,20 MDa; - the crosslinked component of the biomaterial is produced using 1,4-butanediol diglycidil ether as a crosslinking agent; - the biomaterial being functionalized using purified glycoprotein fraction, wherein the concentration of the purified glycoprotein in the biomaterial is 15-25 μg/ml; - the glycoprotein component of the biomaterial is isolated form filamentous fungus Penicillium lanoso-viride by stepwise precipitation with ammonium sulphate followed by purification by gel filtration on Sephadex G-200 column; - and wherein the dominating N-glycans of the purified glycoprotein fraction are Man7GlcNAc, Man8GlcNAc, Man9GlcNAc.
A cell culture device used to culture cells, comprising: a top layer , having at least an inlet hole and at least an outlet hole , the inlet hole is used to input a flow body (M) into the cell culture device , the outlet hole is used to output the flow body (M) from the cell culture device ; a diffusion layer , having at least a flow channel , the flow channel corresponds to the inlet hole and the outlet hole , and is used to guide the flow body (M); and a suspension layer , having a plurality of suspension units , the suspension units correspond to the flow channel , the flow body (M) flows into the suspension units through the flow channel , and is suspended under the suspension units , so that the cells (C) are cultured in the flow body (M) under the suspension units respectively, wherein, each of the suspension units is provided with a suspension hole and a protrusion structure , the suspension hole runs through the suspension layer , and having an upper hole (O1) and a lower hole (O2), a diameter of the upper hole (O1) is less than a diameter of the lower hole (O2), the flow body (M) flows into the suspension hole from the upper hole (O1), the protrusion structure is extended and disposed below the lower hole (O2), so that the flow body (M) is suspended under the suspension units along the protrusion structure . a top layer , having at least an inlet hole and at least an outlet hole , the inlet hole is used to input a flow body (M) into the cell culture device , the outlet hole is used to output the flow body (M) from the cell culture device ; a diffusion layer , having at least a flow channel , the flow channel corresponds to the inlet hole and the outlet hole , and is used to guide the flow body (M); and a suspension layer , having a plurality of suspension units , the suspension units correspond to the flow channel , the flow body (M) flows into the suspension units through the flow channel , and is suspended under the suspension units , so that the cells (C) are cultured in the flow body (M) under the suspension units respectively, wherein, each of the suspension units is provided with a suspension hole and a protrusion structure , the suspension hole runs through the suspension layer , and having an upper hole (O1) and a lower hole (O2), a diameter of the upper hole (O1) is less than a diameter of the lower hole (O2), the flow body (M) flows into the suspension hole from the upper hole (O1), the protrusion structure is extended and disposed below the lower hole (O2), so that the flow body (M) is suspended under the suspension units along the protrusion structure .
Irradiating device configured for irradiating a target (C), comprising: - A 6-axis robot comprising a base and a 6-axis arm , of which a first end is attached to the base and a second end is designated free end; - An irradiating system , comprising a microwave frequency source and a radiation source supplied by the microwave frequency source , the irradiating system being positioned at the free end of the 6-axis arm; - A manipulating handle , joined to the radiation source , comprising an applicator configured to be fastened at an exit of the radiation source ; - At least one load sensor placed between the manipulating handle and the 6-axis arm ; and - A control-actuation unit configured to receive information from the load sensor and control the 6-axis arm according to the information received from the load sensor . - A 6-axis robot comprising a base and a 6-axis arm , of which a first end is attached to the base and a second end is designated free end; - An irradiating system , comprising a microwave frequency source and a radiation source supplied by the microwave frequency source , the irradiating system being positioned at the free end of the 6-axis arm; - A manipulating handle , joined to the radiation source , comprising an applicator configured to be fastened at an exit of the radiation source ; - At least one load sensor placed between the manipulating handle and the 6-axis arm ; and - A control-actuation unit configured to receive information from the load sensor and control the 6-axis arm according to the information received from the load sensor .
A method for treating a nanofibrillar cellulose hydrogel, wherein the method comprises the steps of: providing a nanofibrillar cellulose hydrogel having a dry-matter content of at least 0.6 weight-%; and subjecting the nanofibrillar cellulose hydrogel to a heat treatment, wherein the heat treatment comprises keeping the nanofibrillar cellulose hydrogel at a temperature of 130 - 150 °C for at least 0.5 seconds and for at most 30 seconds, for reducing the number of viable micro-organisms in the nanofibrillar cellulose hydrogel. providing a nanofibrillar cellulose hydrogel having a dry-matter content of at least 0.6 weight-%; and subjecting the nanofibrillar cellulose hydrogel to a heat treatment, wherein the heat treatment comprises keeping the nanofibrillar cellulose hydrogel at a temperature of 130 - 150 °C for at least 0.5 seconds and for at most 30 seconds, for reducing the number of viable micro-organisms in the nanofibrillar cellulose hydrogel.
A method for controlling the torque of a drive device for rotating wheels of an aircraft comprising actuators for selectively driving rotating wheels of the aircraft to ensure its movement on the ground, comprising the step of regulating a torque generated by the drive device according to a torque setpoint issued by the pilot, characterized in that the method comprises the step of generating, as long as the torque setpoint is not sufficient to guarantee a stable movement speed of the aircraft, a replacement torque setpoint to allow the aircraft to move at a stable speed, and substituting the replacement torque setpoint for the torque setpoint generated by the pilot.
A method for decoding an encoded audio signal , wherein the encoded audio signal comprises a sequence of frames comprising encoded audio data and metadata, the metadata including a plurality of different sets of dynamic range control, referred to as DRC, gains, wherein the encoded audio signal further comprises an indication of a loudness level of the audio signal, wherein the metadata indicates a plurality of DRC profiles for the encoded audio signal, wherein each DRC profile comprises definition data defining a range of output reference levels for which the DRC profile is applicable, and wherein each set of DRC gains corresponds to one of the plurality of DRC profiles, the method comprising setting a desired output reference level; the method being characterised by further comprising: selecting a specific DRC profile for which the applicable range of output reference levels includes the desired output reference level; extracting audio data and metadata from the encoded audio signal; extracting from the metadata, and applying, the DRC gains corresponding to the selected specific DRC profile to the extracted audio data to adjust the dynamic range of the extracted audio data thereby obtaining dynamic range adjusted audio data; determining a loudness related gain based on the indication of the loudness level of the audio signal and the desired output reference level to cause a change from the loudness level of the audio data to the desired output reference level; applying the loudness related gain to the dynamic range adjusted audio data to obtain loudness adjusted audio data that has the desired output reference level; and generating output audio data elements from the loudness adjusted audio data; wherein one of the DRC profiles is applicable for playback in a late-night environment. selecting a specific DRC profile for which the applicable range of output reference levels includes the desired output reference level; extracting audio data and metadata from the encoded audio signal; extracting from the metadata, and applying, the DRC gains corresponding to the selected specific DRC profile to the extracted audio data to adjust the dynamic range of the extracted audio data thereby obtaining dynamic range adjusted audio data; determining a loudness related gain based on the indication of the loudness level of the audio signal and the desired output reference level to cause a change from the loudness level of the audio data to the desired output reference level; applying the loudness related gain to the dynamic range adjusted audio data to obtain loudness adjusted audio data that has the desired output reference level; and generating output audio data elements from the loudness adjusted audio data; wherein one of the DRC profiles is applicable for playback in a late-night environment.
A mobile terminal comprising: a terminal body having a front side and a rear side; a touch screen disposed at the front side; a battery; a battery cover disposed at the rear side, the battery cover having a first through hole and a second through hole; a camera exposed to an outside of the terminal body at the first through hole of the battery cover ; a rear input unit provided at the rear side of the terminal body and configured to receive an input, the rear input unit being located below the camera and being exposed to an outside of the terminal body at the second through hole of the battery cover ; characterized by further comprising: a controller configured to process the input of the rear input unit as control commands for different functions according to operating states of the mobile terminal, wherein a first function to release a locked state of the mobile terminal is performed based on a first input applied to the rear input unit in a locked state of the mobile terminal, and wherein a second function to capture an image through the camera is performed based on a second input applied to the rear input unit in a state that a camera preview screen is displayed on the touch screen. a terminal body having a front side and a rear side; a touch screen disposed at the front side; a battery; a battery cover disposed at the rear side, the battery cover having a first through hole and a second through hole; a camera exposed to an outside of the terminal body at the first through hole of the battery cover ; a rear input unit provided at the rear side of the terminal body and configured to receive an input, the rear input unit being located below the camera and being exposed to an outside of the terminal body at the second through hole of the battery cover ; characterized by further comprising: a controller configured to process the input of the rear input unit as control commands for different functions according to operating states of the mobile terminal, wherein a first function to release a locked state of the mobile terminal is performed based on a first input applied to the rear input unit in a locked state of the mobile terminal, and wherein a second function to capture an image through the camera is performed based on a second input applied to the rear input unit in a state that a camera preview screen is displayed on the touch screen. a controller configured to process the input of the rear input unit as control commands for different functions according to operating states of the mobile terminal, wherein a first function to release a locked state of the mobile terminal is performed based on a first input applied to the rear input unit in a locked state of the mobile terminal, and wherein a second function to capture an image through the camera is performed based on a second input applied to the rear input unit in a state that a camera preview screen is displayed on the touch screen.
A grease composition comprising a mixed base oil (A), a urea-based thickener (B), and an additive (C), wherein: the kinematic viscosity at 40°C of the base oil (A) is 100 to 1,000 mm 2 /s, and the particles containing the urea-based thickener (B) in the grease composition satisfy the following requirement (I): Requirement (I): the area-based arithmetic average particle diameter of the particles is 2.0 μm or less, as measured by a laser diffraction/scattering method and wherein the additive (C) is one or more selected from a sarcosine derivative (C1), an amine compound (C2) and an amide compound (C3), wherein the sarcosine derivative (C1) is an α-amino acid in which an amino group having a methyl group is bound to a carbon atom having a carboxy group bound thereto. the kinematic viscosity at 40°C of the base oil (A) is 100 to 1,000 mm 2 /s, and the particles containing the urea-based thickener (B) in the grease composition satisfy the following requirement (I): Requirement (I): the area-based arithmetic average particle diameter of the particles is 2.0 μm or less, as measured by a laser diffraction/scattering method and