mhurhangee/patent-ind-claim-en huggingface dataset:
An imaging apparatus comprising: an optical member that refracts first light and second light having mutually different wavelengths of light with refractive indexes corresponding to the respective wavelengths so as to shift a position of a first image of the first light and a position of a second image of the second light; a light transmissive filter that has a first filter region through which only the first light is transmitted and a second filter region through which only the second light is transmitted; a directional sensor that has a plurality of pixels which pupil-divide and selectively receive each of the first light transmitted through the first filter region and the second light transmitted through the second filter region , where pixels for receiving the first light and pixels for receiving the second light are alternately arranged; and an image acquisition section that acquires the first image and the second image from the directional sensor , wherein the optical member shifts the position of the first image and the position of the second image on the directional sensor by a pitch of the pixels on the basis of a difference in refractive index due to a difference between the wavelength of the first light and the wavelength of the second light, the light transmissive filter is provided inside an imaging lens through which the first light and the second light are transmitted, and the light transmissive filter is provided between a first lens group and a second lens group of the imaging lens which is composed of the first lens group and the second lens group . an optical member that refracts first light and second light having mutually different wavelengths of light with refractive indexes corresponding to the respective wavelengths so as to shift a position of a first image of the first light and a position of a second image of the second light; a light transmissive filter that has a first filter region through which only the first light is transmitted and a second filter region through which only the second light is transmitted; a directional sensor that has a plurality of pixels which pupil-divide and selectively receive each of the first light transmitted through the first filter region and the second light transmitted through the second filter region , where pixels for receiving the first light and pixels for receiving the second light are alternately arranged; and an image acquisition section that acquires the first image and the second image from the directional sensor , wherein the optical member shifts the position of the first image and the position of the second image on the directional sensor by a pitch of the pixels on the basis of a difference in refractive index due to a difference between the wavelength of the first light and the wavelength of the second light, the light transmissive filter is provided inside an imaging lens through which the first light and the second light are transmitted, and the light transmissive filter is provided between a first lens group and a second lens group of the imaging lens which is composed of the first lens group and the second lens group .
A system for providing a spectral image, wherein the system comprises: a data providing unit for providing projection data comprising first projection data and second projection data acquired using a CT system comprising a detector, wherein the first projection data has been acquired using a first acquisition spectrum and the second projection data has been acquired using a second acquisition spectrum, wherein the first projection data has been acquired by a first part of the detector and the second projection data has been acquired by a second part of the detector, wherein the first part and the second part of the detector acquire projection data with the first acquisition spectrum and the second acquisition spectrum, respectively, due to an anode heel effect, and a spectral image generation unit for generating a spectral image based on the provided projection data. a data providing unit for providing projection data comprising first projection data and second projection data acquired using a CT system comprising a detector, wherein the first projection data has been acquired using a first acquisition spectrum and the second projection data has been acquired using a second acquisition spectrum, wherein the first projection data has been acquired by a first part of the detector and the second projection data has been acquired by a second part of the detector, wherein the first part and the second part of the detector acquire projection data with the first acquisition spectrum and the second acquisition spectrum, respectively, due to an anode heel effect, and a spectral image generation unit for generating a spectral image based on the provided projection data.
A solar power generation system comprising: a solar module in which a plurality of solar cells are connected in series; a power converter connected to the solar module , the power converter being configured to control an output voltage of the solar module such that the output voltage matches a target output voltage; and a control device configured to determine the target output voltage, characterised in that the control device is configured to determine a lower limit value of the target output voltage based on a following general formula, V TL I rr T = V OC I rr T ⋅ n − 1 n − V BD T − α where I rr denotes a used light intensity and wherein the used light intensity is the light intensity received by the solar module when the solar module is in use, T denotes a temperature of the solar module, V TL (I rr , T) denotes the lower limit value of the target output voltage under the used light intensity and the temperature, V OC (I rr , T) denotes an open-circuit voltage of the solar module under the used light intensity and the temperature, n denotes the number of the solar cells connected in series, V BD (T) denotes a positive value of a reverse breakdown voltage of one of the solar cells at the temperature, and α denotes a tolerable error. a solar module in which a plurality of solar cells are connected in series; a power converter connected to the solar module , the power converter being configured to control an output voltage of the solar module such that the output voltage matches a target output voltage; and a control device configured to determine the target output voltage, characterised in that the control device is configured to determine a lower limit value of the target output voltage based on a following general formula, V TL I rr T = V OC I rr T ⋅ n − 1 n − V BD T − α where I rr denotes a used light intensity and wherein the used light intensity is the light intensity received by the solar module when the solar module is in use, T denotes a temperature of the solar module, V TL (I rr , T) denotes the lower limit value of the target output voltage under the used light intensity and the temperature, V OC (I rr , T) denotes an open-circuit voltage of the solar module under the used light intensity and the temperature, n denotes the number of the solar cells connected in series, V BD (T) denotes a positive value of a reverse breakdown voltage of one of the solar cells at the temperature, and α denotes a tolerable error.
A method for managing and separating a tongue from a tongue blank, comprising cutting a first edge of a tongue from a tongue blank by rotating a tool which comprises a curved shaped outer edge configured to cut said first edge of the tongue and a protruding part , displacing the tongue by the protruding part to a tongue queue .
A catalytic cracking process comprising the following steps: i) spraying a heavy feedstock oil into a riser reactor via a first nozzle, and subjecting it to a catalytic cracking reaction therein to obtain a catalytic cracking reaction product; ii) separating the catalytic cracking reaction product to obtain a catalytic cracking gasoline and a catalytic cracking light cycle oil; iii) splitting the catalytic cracking gasoline obtained in step ii) and optionally a catalytic cracking gasoline from an external source to obtain a light gasoline fraction, a medium gasoline fraction and a heavy gasoline fraction; iv) subjecting the catalytic cracking light cycle oil obtained in step ii) and optionally a catalytic cracking light cycle oil from an external source to a hydrotreatment to obtain a hydrogenated light cycle oil; v) mixing a portion of the light gasoline fraction obtained in step iii) with at least a portion of the hydrogenated light cycle oil obtained in step iv) to obtain a mixed fraction; vi) spraying the mixed fraction obtained in step v) into a riser reactor via a second nozzle, and subjecting it to a catalytic cracking reaction therein; and vii) spraying a portion of the medium gasoline fraction obtained in step iii) into a riser reactor via a third nozzle, and subjecting it to a catalytic cracking reaction therein, wherein the cut point between the light gasoline fraction and the medium gasoline fraction is between about 60 and about 80 °C, and the cut point between the medium gasoline fraction and the heavy gasoline fraction is between about 120 and about 130 °C. i) spraying a heavy feedstock oil into a riser reactor via a first nozzle, and subjecting it to a catalytic cracking reaction therein to obtain a catalytic cracking reaction product; ii) separating the catalytic cracking reaction product to obtain a catalytic cracking gasoline and a catalytic cracking light cycle oil; iii) splitting the catalytic cracking gasoline obtained in step ii) and optionally a catalytic cracking gasoline from an external source to obtain a light gasoline fraction, a medium gasoline fraction and a heavy gasoline fraction; iv) subjecting the catalytic cracking light cycle oil obtained in step ii) and optionally a catalytic cracking light cycle oil from an external source to a hydrotreatment to obtain a hydrogenated light cycle oil; v) mixing a portion of the light gasoline fraction obtained in step iii) with at least a portion of the hydrogenated light cycle oil obtained in step iv) to obtain a mixed fraction; vi) spraying the mixed fraction obtained in step v) into a riser reactor via a second nozzle, and subjecting it to a catalytic cracking reaction therein; and vii) spraying a portion of the medium gasoline fraction obtained in step iii) into a riser reactor via a third nozzle, and subjecting it to a catalytic cracking reaction therein,
An article of footwear having an upper and a sole structure secured to the upper , the upper including a knitted component comprising: a monofilament knit element formed by at least one monofilament strand , the monofilament knit element forming a substantial majority of the upper and extending through at least a portion of each of a forefoot region , a midfoot region , and a heel region of the article of footwear as well as underneath a bottom of a foot of a wearer; and a peripheral portion formed by a first yarn, wherein the monofilament knit element is formed of unitary knit construction with the peripheral portion of the knitted component such that the knitted component is a one-piece element, characterized in that the first yarn is a natural or synthetic twisted fiber yarn, and in that the monofilament knit element comprises two knitted layers formed of unitary knit construction using a single monofilament strand for each knitted layer, wherein the first knitted layer is formed from a first monofilament strand , and wherein the second knitted layer is formed from a second monofilament strand . a monofilament knit element formed by at least one monofilament strand , the monofilament knit element forming a substantial majority of the upper and extending through at least a portion of each of a forefoot region , a midfoot region , and a heel region of the article of footwear as well as underneath a bottom of a foot of a wearer; and a peripheral portion formed by a first yarn, wherein the monofilament knit element is formed of unitary knit construction with the peripheral portion of the knitted component such that the knitted component is a one-piece element, characterized in that the first yarn is a natural or synthetic twisted fiber yarn, and in that the monofilament knit element comprises two knitted layers formed of unitary knit construction using a single monofilament strand for each knitted layer, wherein the first knitted layer is formed from a first monofilament strand , and wherein the second knitted layer is formed from a second monofilament strand .
A process for obtaining a lipid from a microbial cell, said process comprising: a) lysing a cell to form a lysed cell composition; b) adding a base to the lysed cell composition, raising the pH of the lysed cell composition to 8 or above to demulsify the cell composition; c) one or more of cl, c2, c3 and c4; c1) adding a salt to the lysed cell composition to demulsify the cell composition c2) heating the lysed cell composition to demulsify the cell composition c3) agitating the lysed cell composition to demulsify the cell composition c4) adding a second base to the lysed cell composition to demulsify the cell composition; and d) separating a lipid from the demulsified cell composition; wherein the lipid contains less than 5% by weight of an organic solvent. a) lysing a cell to form a lysed cell composition; b) adding a base to the lysed cell composition, raising the pH of the lysed cell composition to 8 or above to demulsify the cell composition; c) one or more of cl, c2, c3 and c4; c1) adding a salt to the lysed cell composition to demulsify the cell composition c2) heating the lysed cell composition to demulsify the cell composition c3) agitating the lysed cell composition to demulsify the cell composition c4) adding a second base to the lysed cell composition to demulsify the cell composition; and c1) adding a salt to the lysed cell composition to demulsify the cell composition c2) heating the lysed cell composition to demulsify the cell composition c3) agitating the lysed cell composition to demulsify the cell composition c4) adding a second base to the lysed cell composition to demulsify the cell composition; d) separating a lipid from the demulsified cell composition;
A substrate for a light-emitting diode, comprising: a metal base, an insulation layer which comprises a dielectric material that mainly contains a ceramic and which has a portion placed on a first top of said metal base, and a top conductor which is divided into at least two or more regions, each of said at least two or more regions being at least partially embedded within said insulation layer and at least partially exposed out of the top of said insulation layer on the side opposite to said first top, a surface of said top conductor being suitable for electrical connection to a light emitting diode, wherein: the thickness Tm, expressed in micrometers, of said metal base in a thickness direction, which is defined as a direction intersecting perpendicularly with said first top of said metal base, is not less than 100 micrometers, the thickness Tc, expressed in micrometers, of said top conductor in said thickness direction is not less than 20 micrometers and is 100 micrometers or less, and the thickness Ti, expressed in micrometers, of said portion of said insulation layer between said first top and said top conductor in said thickness direction and said thickness Tc of said top conductor in said thickness direction meet the relation expressed by a formula shown below : [Math. 1] − 40 × Ti + 260 ≤ Tc ≤ − 40 × Ti + 1700 a metal base, an insulation layer which comprises a dielectric material that mainly contains a ceramic and which has a portion placed on a first top of said metal base, and a top conductor which is divided into at least two or more regions, each of said at least two or more regions being at least partially embedded within said insulation layer and at least partially exposed out of the top of said insulation layer on the side opposite to said first top, a surface of said top conductor being suitable for electrical connection to a light emitting diode, the thickness Tm, expressed in micrometers, of said metal base in a thickness direction, which is defined as a direction intersecting perpendicularly with said first top of said metal base, is not less than 100 micrometers, the thickness Tc, expressed in micrometers, of said top conductor in said thickness direction is not less than 20 micrometers and is 100 micrometers or less, and the thickness Ti, expressed in micrometers, of said portion of said insulation layer between said first top and said top conductor in said thickness direction and said thickness Tc of said top conductor in said thickness direction meet the relation expressed by a formula shown below : [Math. 1] − 40 × Ti + 260 ≤ Tc ≤ − 40 × Ti + 1700
Carrier module for fieldbus modules , comprising: - a first plug-in connector for electrically and mechanically connecting a left-hand-side fieldbus module to the carrier module , and - a second plug-in connector for electrically and mechanically connecting a right-hand-side fieldbus module to the carrier module , characterized in that the carrier module can be latched onto a load-bearing profile and can be moved on the load-bearing profile, wherein the first plug-in connector comprises a first low-voltage plug-in connector , a first extra-low-voltage plug-in connector and a first data plug-in connector and the second plug-in connector comprises a second low-voltage plug-in connector , a second extra-low-voltage plug-in connector and a second data plug-in connector , and wherein the first low-voltage plug-in connector , the first extra-low-voltage plug-in connector and the first data plug-in connector are arranged in a first row on a first side of the carrier module and the second low-voltage plug-in connector , the second extra-low-voltage plug-in connector and the second data plug-in connector are arranged in a second row on a second side of the carrier module . - a first plug-in connector for electrically and mechanically connecting a left-hand-side fieldbus module to the carrier module , and - a second plug-in connector for electrically and mechanically connecting a right-hand-side fieldbus module to the carrier module , characterized in that the carrier module can be latched onto a load-bearing profile and can be moved on the load-bearing profile,
System having a base or charging station for a robot and having a robot which has an environmental sensor device , wherein the environmental sensor device has a receiver device which is designed to capture a reference sound signal (RSS), and wherein the environmental sensor device has a computer device which is designed to calibrate the environmental sensor device on the basis of the captured reference sound signal (RSS) and to check it thereby, characterized in that a reference sound source (RQ) for emitting the reference sound signal (RSS) is integrated in the base or charging station.
A system for transmitting a position of an ownship aircraft , wherein the system is configured to be mounted on the ownship aircraft , the system characterized in that it comprises: a positioning system configured to receive positioning signals ; a cellular transceiver ; an automatic-dependent surveillance - broadcast 'ADS-B' transceiver ; and processing circuitry configured to: determine the position of the ownship aircraft based on the positioning signals ; determine that the ownship aircraft is located in an identified risk volume based on the position of the ownship aircraft ; cause the ADS-B transceiver to transmit ADS-B signals indicating the position of the ownship aircraft in response to determining that the ownship aircraft is located in the identified risk volume; and characterised by being configured to cause the cellular transceiver to transmit cellular signals indicating the position of the ownship aircraft simultaneously with the ADS-B transceiver transmitting the ADS-B signals in response to determining that the ownship aircraft is located in the identified risk volume. a positioning system configured to receive positioning signals ; a cellular transceiver ; an automatic-dependent surveillance - broadcast 'ADS-B' transceiver ; and processing circuitry configured to: determine the position of the ownship aircraft based on the positioning signals ; determine that the ownship aircraft is located in an identified risk volume based on the position of the ownship aircraft ; cause the ADS-B transceiver to transmit ADS-B signals indicating the position of the ownship aircraft in response to determining that the ownship aircraft is located in the identified risk volume; and characterised by being configured to cause the cellular transceiver to transmit cellular signals indicating the position of the ownship aircraft simultaneously with the ADS-B transceiver transmitting the ADS-B signals in response to determining that the ownship aircraft is located in the identified risk volume. determine the position of the ownship aircraft based on the positioning signals ; determine that the ownship aircraft is located in an identified risk volume based on the position of the ownship aircraft ; cause the ADS-B transceiver to transmit ADS-B signals indicating the position of the ownship aircraft in response to determining that the ownship aircraft is located in the identified risk volume; and characterised by being configured to cause the cellular transceiver to transmit cellular signals indicating the position of the ownship aircraft simultaneously with the ADS-B transceiver transmitting the ADS-B signals in response to determining that the ownship aircraft is located in the identified risk volume.
An SDC2 gene methylation detection reagent, comprising amplification primers as shown in SEQ ID NO.3 and SEQ ID NO.4.
A method of cleansing skin comprising: (A) massaging the skin using an agent in the form of O/W-type emulsion, which contains an oil, a compound having 2-6 carbon atoms and having one or two hydroxyl group(s), a surfactant and water, and has a continuous phase consisting of an aqueous phase; (C) massaging the skin using an agent consisting of an isotropic liquid phase, obtained by allowing water to vaporize off from the agent, so as to turn each of the oil phase and the aqueous phase into a continuous phase to thereby form the isotropic liquid phase; and (B) massaging the skin using an agent which has a continuous phase consisting of an oil phase, obtained by allowing water to vaporize off from the agent consisting of the isotropic liquid phase, so as to turn the continuous phase into the oil phase. (A) massaging the skin using an agent in the form of O/W-type emulsion, which contains an oil, a compound having 2-6 carbon atoms and having one or two hydroxyl group(s), a surfactant and water, and has a continuous phase consisting of an aqueous phase; (C) massaging the skin using an agent consisting of an isotropic liquid phase, obtained by allowing water to vaporize off from the agent, so as to turn each of the oil phase and the aqueous phase into a continuous phase to thereby form the isotropic liquid phase; and (B) massaging the skin using an agent which has a continuous phase consisting of an oil phase, obtained by allowing water to vaporize off from the agent consisting of the isotropic liquid phase, so as to turn the continuous phase into the oil phase.