mhurhangee/patent-ind-claim-en huggingface dataset:
A laser projector configured to display an image by projecting a laser beam from a laser light source to a projection screen, the laser projector comprising: the light source configured to emit the laser beam; an electromagnetic driven scan mirror configured to scan the laser beam emitted from the light source; a drive signal generation unit configured to generate a drive signal, of a predetermined frequency, to drive the electromagnetic driven scan mirror ; a detection unit configured to detect a value of the back electromotive force which is generated by a drive of the electromagnetic driven scan mirror ; a control unit configured to control the light source to emit the laser beam based on the back electromotive force detected by the detection unit and on a determined sufficient deflection angle of the electromagnetic driven scan mirror ; and a changing unit configured to change a drive condition of the electromagnetic driven scan mirror , by changing the predetermined frequency of the drive signal, when the back electromotive force detected by the detection unit does not exceed a predetermined value for a predetermined time, characterized in that the control unit is configured to determine that the electromagnetic driven scan mirror is driven at a resonance frequency and a sufficient deflection angle when a number of times the value of the back electromotive force exceeds the predetermined value is equal to or more than a predetermined number of times, wherein the number of times the value of the back electromotive force exceeds the predetermined value is detected by the detection unit at a same predetermined driving frequency. the light source configured to emit the laser beam; an electromagnetic driven scan mirror configured to scan the laser beam emitted from the light source; a drive signal generation unit configured to generate a drive signal, of a predetermined frequency, to drive the electromagnetic driven scan mirror ; a detection unit configured to detect a value of the back electromotive force which is generated by a drive of the electromagnetic driven scan mirror ; a control unit configured to control the light source to emit the laser beam based on the back electromotive force detected by the detection unit and on a determined sufficient deflection angle of the electromagnetic driven scan mirror ; and a changing unit configured to change a drive condition of the electromagnetic driven scan mirror , by changing the predetermined frequency of the drive signal, when the back electromotive force detected by the detection unit does not exceed a predetermined value for a predetermined time, characterized in that the control unit is configured to determine that the electromagnetic driven scan mirror is driven at a resonance frequency and a sufficient deflection angle when a number of times the value of the back electromotive force exceeds the predetermined value is equal to or more than a predetermined number of times, wherein the number of times the value of the back electromotive force exceeds the predetermined value is detected by the detection unit at a same predetermined driving frequency.
A computer implemented method for training a neural network initialised with parameters θ to output estimated uncorrupted visual data from input corrupted visual data , and using a training set of corrupted visual data with a training objective to maximise a term of the form: wherein x is input corrupted visual data from the training set of corrupted visual data , ŷ(x; θ ) is the estimated uncorrupted visual data output when the neural network with parameters θ is applied to the input visual data x , and p is a probability distribution of uncorrupted visual data in an uncorrupted reference dataset ; wherein the method is an iterative method with each iteration comprising the steps of: inputting corrupted visual data from the training set of corrupted visual data into the neural network; generating, by the neural network, an estimated uncorrupted visual data set , the estimated uncorrupted visual data set comprising output estimated uncorrupted visual data corresponding to the input corrupted visual data; comparing the probability distribution of visual data in the estimated uncorrupted visual data set to the probability distribution p of the visual data in the uncorrupted reference dataset by determining differences between one or more statistical characteristics of visual data in the two datasets; and modifying one or more of the parameters θ of the neural network to reduce differences between said one or more statistical characteristics, wherein the visual data is image or video data and the uncorrupted reference data set does not correspond to an uncorrupted version of the set of corrupted visual data . inputting corrupted visual data from the training set of corrupted visual data into the neural network; generating, by the neural network, an estimated uncorrupted visual data set , the estimated uncorrupted visual data set comprising output estimated uncorrupted visual data corresponding to the input corrupted visual data; comparing the probability distribution of visual data in the estimated uncorrupted visual data set to the probability distribution p of the visual data in the uncorrupted reference dataset by determining differences between one or more statistical characteristics of visual data in the two datasets; and modifying one or more of the parameters θ of the neural network to reduce differences between said one or more statistical characteristics, wherein the visual data is image or video data and the uncorrupted reference data set does not correspond to an uncorrupted version of the set of corrupted visual data .
A food processing machine comprising: a first frame ; a plurality of in-feed cartridges connected with the first frame in spaced-apart relation, each in-feed cartridge comprising a base member and a belt member moveably disposed around the base member ; and at least one motor connected with the belt members and configured to drive the belt members of the plurality of in-feed cartridges around their respective base members ; wherein the plurality of in-feed cartridges are disconnectable with the first frame and reconfigurable so that any number of the plurality of in-feed cartridges can be reconnected with the first frame in varying spaced-apart relation; wherein each in-feed cartridge further comprises a nose member pivotally connected with the base member , and a driving device configured to pivotally move the nose member relative to the base member , the belt member of each in-feed cartridge moveably disposed around the base member and the nose member , wherein as the nose member of each in-feed cartridge pivotally moves relative to the base member the nose member applies variable levels of tension on the belt member . a first frame ; a plurality of in-feed cartridges connected with the first frame in spaced-apart relation, each in-feed cartridge comprising a base member and a belt member moveably disposed around the base member ; and at least one motor connected with the belt members and configured to drive the belt members of the plurality of in-feed cartridges around their respective base members ; wherein the plurality of in-feed cartridges are disconnectable with the first frame and reconfigurable so that any number of the plurality of in-feed cartridges can be reconnected with the first frame in varying spaced-apart relation; wherein each in-feed cartridge further comprises a nose member pivotally connected with the base member , and a driving device configured to pivotally move the nose member relative to the base member , the belt member of each in-feed cartridge moveably disposed around the base member and the nose member , wherein as the nose member of each in-feed cartridge pivotally moves relative to the base member the nose member applies variable levels of tension on the belt member .
A ventilation member comprising: a waterproof gas permeable membrane ; and a support body having a through hole , one opening of the through hole being closed by the gas permeable membrane , wherein the support body includes, at an edge of the opening closed by the gas permeable membrane, a first region and a second region facing each other with the opening located therebetween, a first angled protrusion in which a peak and a trough are arranged alternately along the edge of the opening is provided in the first region , and a second angled protrusion in which a peak and a trough are arranged alternately along the edge of the opening is provided in the second region , and the gas permeable membrane is joined onto the first angled protrusion and the second angled protrusion , and has a pleat shape or a wave shape in which a peak and a trough are arranged alternately along shapes of the first angled protrusion and the second angled protrusion , the ventilation member being characterized in that both ends of the troughs of the gas permeable member are open. a waterproof gas permeable membrane ; and a support body having a through hole , one opening of the through hole being closed by the gas permeable membrane , wherein the support body includes, at an edge of the opening closed by the gas permeable membrane, a first region and a second region facing each other with the opening located therebetween, a first angled protrusion in which a peak and a trough are arranged alternately along the edge of the opening is provided in the first region , and a second angled protrusion in which a peak and a trough are arranged alternately along the edge of the opening is provided in the second region , and the gas permeable membrane is joined onto the first angled protrusion and the second angled protrusion , and has a pleat shape or a wave shape in which a peak and a trough are arranged alternately along shapes of the first angled protrusion and the second angled protrusion ,
A process for the preparation of a supported catalyst comprising partially or completely tetragonally stabilized zirconium dioxide, which comprises (a) adding 10% by mass of rare earth metal nitrates to zirconium hydroxide, (b) the nitrates of the rare earth metals are precipitated as hydroxides with the aid of urea for a long period of 18 hours, (c) the mixture is heated under reflux for at least 6 h, cooled, filtered and dried, (d) alcining the resulting solid at 700 to 1,000 °C, (e) impregnating the resulting support material with an aqueous solution of a pure salt of the rare earth metals, and (f) the reaction product is first freed from water and then calcined at temperatures above 500 °C. (a) adding 10% by mass of rare earth metal nitrates to zirconium hydroxide, (b) the nitrates of the rare earth metals are precipitated as hydroxides with the aid of urea for a long period of 18 hours, (c) the mixture is heated under reflux for at least 6 h, cooled, filtered and dried, (d) alcining the resulting solid at 700 to 1,000 °C, (e) impregnating the resulting support material with an aqueous solution of a pure salt of the rare earth metals, and (f) the reaction product is first freed from water and then calcined at temperatures above 500 °C.
A process for purifying recombinant human Galactocerebroside β-Galactosidase (rhGALC) from a cell culture, wherein a fraction of said cell culture comprising rhGALC is subjected to chromatography on resins, the process comprising a) A capture step in which said rhGALC is purified on a first multimodal chromatographic resin which binds through at least hydrophobic and electrostatic interactions and which comprises electrostatic ligands, optionally followed by virus inactivation and/or purification by ionic separation; b) An intermediate step in which said rhGALC is purified on a second multimodal chromatographic resin comprising an anionic and hydrophobic ligand, optionally followed by virus inactivation and/or purification by ionic separation; c) A polishing step in which said rhGALC is purified on a third chromatographic resin which is selected from the group consisting of a multimodal chromatography resin, an anion exchange resin and a hydrophobic interaction chromatography (HIC) resin and wherein the third chromatographic resin comprises a ligand comprising an ether group. a) A capture step in which said rhGALC is purified on a first multimodal chromatographic resin which binds through at least hydrophobic and electrostatic interactions and which comprises electrostatic ligands, optionally followed by virus inactivation and/or purification by ionic separation; b) An intermediate step in which said rhGALC is purified on a second multimodal chromatographic resin comprising an anionic and hydrophobic ligand, optionally followed by virus inactivation and/or purification by ionic separation; c) A polishing step in which said rhGALC is purified on a third chromatographic resin which is selected from the group consisting of a multimodal chromatography resin, an anion exchange resin and a hydrophobic interaction chromatography (HIC) resin and wherein the third chromatographic resin comprises a ligand comprising an ether group.
A method for producing a plant growth media, the method comprising: subjecting a wet microbial cellulose material to a homogenisation process, thereby producing a pulp suitable as a plant growth media, characterized in that the pulp comprises between 0.1 and 2.5 wt/wt% microbial cellulose and the particle size distribution of the pulp is such that the D90 which represents the size under which 90 % by volume of the particles is below 1500 μm and the D10 which represents the size under which 10 % by volume of the particles is at least 40 μm; and further wherein the particle size is measured by laser diffraction analysis or by a series of nested test sieves.
A compound having a structure of Formula (Ia): or a stereoisomer, a pharmaceutically acceptable salt, or solvate thereof, wherein Ri and R 4 are Cl and R 2 and R 3 are H; wherein R 7 , R 8 , R 10 and R 11 are independently selected from the group consisting of H and halogen; and wherein R 9 is C 3-8 cycloalkyl.
A method, implemented by a wireless device , the method comprising: performing a radio resource control, RRC, connection setup procedure for a dual connectivity connection with a base station , wherein the dual connectivity connection is an LTE-LTE dual connectivity connection, an LTE-NR dual connectivity connection or an NR-NR dual connectivity connection, wherein performing the RRC connection setup procedure comprises providing an indication that the wireless device supports reporting intermodulation issues to the base station ; receiving an indication that the wireless device is allowed to report intermodulation issues from the base station ; determining that an intermodulation issue is occurring at the wireless device ; providing an indication of the intermodulation issue to the base station ; and receiving first configuration information from the base station , wherein the first configuration information configures the wireless device for single uplink carrier communication, wherein configuring the wireless device for single uplink carrier communication implements a multiplexing technique to allow the wireless device to maintain the dual connectivity connection, and wherein the configuration information is received based at least in part on the indication of the intermodulation issue. performing a radio resource control, RRC, connection setup procedure for a dual connectivity connection with a base station , wherein the dual connectivity connection is an LTE-LTE dual connectivity connection, an LTE-NR dual connectivity connection or an NR-NR dual connectivity connection, wherein performing the RRC connection setup procedure comprises providing an indication that the wireless device supports reporting intermodulation issues to the base station ; receiving an indication that the wireless device is allowed to report intermodulation issues from the base station ; determining that an intermodulation issue is occurring at the wireless device ; providing an indication of the intermodulation issue to the base station ; and receiving first configuration information from the base station , wherein the first configuration information configures the wireless device for single uplink carrier communication, wherein configuring the wireless device for single uplink carrier communication implements a multiplexing technique to allow the wireless device to maintain the dual connectivity connection, and wherein the configuration information is received based at least in part on the indication of the intermodulation issue.
A method for actuating at least first and second marine acoustic sources in a firing sequence, the firing sequence including at least a first actuation of the first source followed by a first actuation of the second source followed by a second actuation of the first source and a second actuation of the second source, the method comprising: towing the first source at a depth in water substantially equal to a depth of the second source; establishing a series of reference time instants; actuating the first source with a variable first time delay relative to the series of reference time instants; and actuating the second source with a variable second time delay relative to the series of reference time instants such that time intervals between consecutive activations of the first and second sources are also variable, wherein the series of reference time instants is calculated based on an assumption that no other source except the first source is present and thus there is no need for a waiting time necessitated by the actuation of the other source before firing again the first source, and a time interval between any two consecutive reference time instants is fixed to a predetermined value, and the first and second sources have a substantially same inline position. towing the first source at a depth in water substantially equal to a depth of the second source; establishing a series of reference time instants; actuating the first source with a variable first time delay relative to the series of reference time instants; and actuating the second source with a variable second time delay relative to the series of reference time instants such that time intervals between consecutive activations of the first and second sources are also variable, wherein the series of reference time instants is calculated based on an assumption that no other source except the first source is present and thus there is no need for a waiting time necessitated by the actuation of the other source before firing again the first source, and a time interval between any two consecutive reference time instants is fixed to a predetermined value, and the first and second sources have a substantially same inline position.
A tire and pump assembly, the assembly comprising: a tire having a tire cavity , first and second sidewalls extending from first and second tire bead regions, respectively, to a tire tread region ; an elongate preferably substantially annular air passageway enclosed within a bending region of at least one of the sidewalls, the air passageway operatively closing and opening, segment by segment, as the bending region of the sidewall passes adjacent a rolling tire footprint to pump air along the air passageway ; an air inlet port assembly coupled to, and in air flow communication with, the air passageway at an inlet air passageway junction , the air inlet port assembly being operable to channel inlet air from outside of the tire into the air passageway ; characterized in that the assembly further comprises a pair of substantially inline valves positioned on respective opposite sides of the inlet air passageway junction in air flow communication with the inlet port assembly , the inline valves selectively opening in respective opposite directions and passing a flow of the inlet air from an upstream valve side to a downstream valve side and into the air passageway ; a pair of outlet valves , each outlet valve positioned in air flow communication with a downstream side of a respective inline valve , the valves selectively conducting a flow of the inlet air from the downstream side of a respective inline valve to the tire cavity ; and a shut-off valve for preventing an over-inflation condition in the tire cavity . a tire having a tire cavity , first and second sidewalls extending from first and second tire bead regions, respectively, to a tire tread region ; an elongate preferably substantially annular air passageway enclosed within a bending region of at least one of the sidewalls, the air passageway operatively closing and opening, segment by segment, as the bending region of the sidewall passes adjacent a rolling tire footprint to pump air along the air passageway ; an air inlet port assembly coupled to, and in air flow communication with, the air passageway at an inlet air passageway junction , the air inlet port assembly being operable to channel inlet air from outside of the tire into the air passageway ; characterized in that the assembly further comprises a pair of substantially inline valves positioned on respective opposite sides of the inlet air passageway junction in air flow communication with the inlet port assembly , the inline valves selectively opening in respective opposite directions and passing a flow of the inlet air from an upstream valve side to a downstream valve side and into the air passageway ; a pair of outlet valves , each outlet valve positioned in air flow communication with a downstream side of a respective inline valve , the valves selectively conducting a flow of the inlet air from the downstream side of a respective inline valve to the tire cavity ; and a shut-off valve for preventing an over-inflation condition in the tire cavity .
A three-dimensional modeling apparatus configured to produce a three-dimensional object, the three-dimensional modeling apparatus comprising: a nozzle configured to eject a molten material; a plasticization section which includes a flat screw having a groove extending in a first volute shape and a driving motor configured to rotate the flat screw, the plasticization section rotating the flat screw to thereby guide the molten material, as a plasticized thermoplastic material, to the nozzle through the groove; and an ejection control mechanism that is disposed in a flow path between the flat screw and the nozzle, and is configured to control an outflow of the molten material from the nozzle, characterised by a screw facing surface having a plurality of guide grooves connected to a communication hole and extending from the communication hole to the outer periphery in a second volute shape. a nozzle configured to eject a molten material; a plasticization section which includes a flat screw having a groove extending in a first volute shape and a driving motor configured to rotate the flat screw, the plasticization section rotating the flat screw to thereby guide the molten material, as a plasticized thermoplastic material, to the nozzle through the groove; and an ejection control mechanism that is disposed in a flow path between the flat screw and the nozzle, and is configured to control an outflow of the molten material from the nozzle, characterised by a screw facing surface having a plurality of guide grooves connected to a communication hole and extending from the communication hole to the outer periphery in a second volute shape.