mhurhangee/patent-ind-claim-en huggingface dataset:
A composite assembly which can be cured to form a multi-component composite structure, said composite assembly comprising: a structural component which comprises a structural element composed of a unidirectional fiber body that comprises an uncured thermosetting resin and unidirectional continuous fibers , and a multi-directional continuous fiber body composed mainly of woven fibres; said structural component comprising a structural component face ; and a moldable component which comprises a moldable body comprising an uncured thermosetting resin and discontinuous fibers, said moldable component comprising a moldable component face ; wherein said structural component face and said moldable component face share a common interface located within the interior of said composite assembly , and either: a) the multi-directional continuous fiber body is located adjacent to the unidirectional fiber body so that said structural component face of said structural component is made up of the face of the unidirectional fiber body and the face of the multi-directional continuous fiber body , or b) the multi-directional continuous fiber body is located between the unidirectional fiber body and the moldable component ; and wherein the coefficient of thermal expansion of said structural component at said interface and the coefficient of thermal expansion of said moldable component at said interface are such that micro cracks do not form along said interface when said composite assembly is cured to form said multi-component composite structure. a structural component which comprises a structural element composed of a unidirectional fiber body that comprises an uncured thermosetting resin and unidirectional continuous fibers , and a multi-directional continuous fiber body composed mainly of woven fibres; said structural component comprising a structural component face ; and a moldable component which comprises a moldable body comprising an uncured thermosetting resin and discontinuous fibers, said moldable component comprising a moldable component face ; a) the multi-directional continuous fiber body is located adjacent to the unidirectional fiber body so that said structural component face of said structural component is made up of the face of the unidirectional fiber body and the face of the multi-directional continuous fiber body , or b) the multi-directional continuous fiber body is located between the unidirectional fiber body and the moldable component ; and wherein the coefficient of thermal expansion of said structural component at said interface and the coefficient of thermal expansion of said moldable component at said interface are such that micro cracks do not form along said interface when said composite assembly is cured to form said multi-component composite structure.
A method for computing a set of chroma quantization parameter (QP) values for decoding a plurality of video units in a video coding hierarchy in a video picture , the video coding hierarchy having a first video coding level encompassing a second video coding level and a third video coding level , the second video coding level also encompassing the third video coding level, the plurality of video units comprising a plurality of quantization groups at the third video coding level of the video coding hierarchy, the video coding hierarchy specifying QP offset values for each of the first, second, and third levels of the video coding hierarchy, the method comprising: identifying an initial set of chroma quantization parameter (QP) offset values at each of the first and second levels of the video coding hierarchy in a video picture , each initial set of chroma QP offset values for specifying chroma QPs of video units encompassed by one level of the video coding hierarchy; for each of the plurality of quantization groups at the third video coding level, identifying an additional set of chroma QP offset values for the quantization group , each quantization group comprising a particular set of video units in the plurality of video units in the video picture , wherein different additional chroma QP offset values are identified for at least two quantization groups; and for each video unit in the plurality of video units, computing a set of chroma QP values by adding (i) the initial sets of chroma QP offset values that were identified for the plurality of video units, (ii) the additional set of chroma QP offset values that was identified for the quantization group to which the video unit belongs and (iii) a luma QP value applicable to the video unit, wherein the set of chroma QP values computed for the video unit are used to decode chroma components of the video unit. identifying an initial set of chroma quantization parameter (QP) offset values at each of the first and second levels of the video coding hierarchy in a video picture , each initial set of chroma QP offset values for specifying chroma QPs of video units encompassed by one level of the video coding hierarchy; for each of the plurality of quantization groups at the third video coding level, identifying an additional set of chroma QP offset values for the quantization group , each quantization group comprising a particular set of video units in the plurality of video units in the video picture , wherein different additional chroma QP offset values are identified for at least two quantization groups; and for each video unit in the plurality of video units, computing a set of chroma QP values by adding (i) the initial sets of chroma QP offset values that were identified for the plurality of video units, (ii) the additional set of chroma QP offset values that was identified for the quantization group to which the video unit belongs and (iii) a luma QP value applicable to the video unit, wherein the set of chroma QP values computed for the video unit are used to decode chroma components of the video unit.
A process for removing hydrogen sulphide from a gas, comprising the steps of: • providing a gas comprising hydrogen sulphide • supply oxygen for the process if the gas does not comprise oxygen, or does not comprise sufficient oxygen for converting hydrogen sulphide to elementary sulphur; • lead gas comprising hydrogen sulphide and, if supplied, oxygen to a tank comprising: i) liquid layer comprising a foam forming liquid comprising one or more foam forming agents, and ii) a foam layer made from said foam forming liquid by one or more foam forming devices , wherein said foam layer is formed on the top of the foam forming liquid , and said foam layer is at least 0.5 meter high, such that said gas comprising hydrogen sulphide is led through said foam layer, and hydrogen sulphide in the gas is converted to hydrogen sulphide converting products, and • lead the cleaned gas to outlet for outletting cleaned gas and the hydrogen sulphide conversion products to another outlet for draining hydrogen sulphide conversion products. • providing a gas comprising hydrogen sulphide • supply oxygen for the process if the gas does not comprise oxygen, or does not comprise sufficient oxygen for converting hydrogen sulphide to elementary sulphur; • lead gas comprising hydrogen sulphide and, if supplied, oxygen to a tank comprising: i) liquid layer comprising a foam forming liquid comprising one or more foam forming agents, and ii) a foam layer made from said foam forming liquid by one or more foam forming devices , wherein said foam layer is formed on the top of the foam forming liquid , and said foam layer is at least 0.5 meter high, such that said gas comprising hydrogen sulphide is led through said foam layer, and hydrogen sulphide in the gas is converted to hydrogen sulphide converting products, and i) liquid layer comprising a foam forming liquid comprising one or more foam forming agents, and ii) a foam layer made from said foam forming liquid by one or more foam forming devices , • lead the cleaned gas to outlet for outletting cleaned gas and the hydrogen sulphide conversion products to another outlet for draining hydrogen sulphide conversion products.
Joining system comprising a joining station in which, on at least one side viewed in the longitudinal direction, a clamping frame unit is arranged, which comprises a clamping frame , wherein the clamping frame unit is arranged on a clamping frame transport unit that can be moved in the longitudinal direction and the clamping frame unit being arranged on the clamping frame transport unit so as to be movable in transverse direction and relative to the clamping frame transport unit between a working position (A) and a standby position (B), characterized in that a stationary clamping-down unit which interacts with the clamping frame unit in the working position (A) is arranged in the joining station , the clamping-down unit having a first clamping-down part which can be actuated by a clamping-down drive , and a second clamping-down part which interacts therewith in the working position (A), the clamping-down drive clamping the clamping frame unit in the vertical direction when actuated.
A computer-implemented method , comprising: determining a similarity between contents presented in a grayscale source image and a color reference image; and determining a color target image corresponding to the grayscale source image based on the similarity by using a deep learning network, comprising: determining , based on the similarity and from the grayscale image, a first set of blocks similar to the color reference image in content and a second set of blocks dissimilar to the color reference image in content, determining a first color for the first set of blocks based on a color of blocks in the color reference image corresponding to the first set of blocks, determining a second color for the second set of blocks independently of the color reference image, and transferring the grayscale source image based on the first and second colors to generate a color target image. determining a similarity between contents presented in a grayscale source image and a color reference image; and determining a color target image corresponding to the grayscale source image based on the similarity by using a deep learning network, comprising: determining , based on the similarity and from the grayscale image, a first set of blocks similar to the color reference image in content and a second set of blocks dissimilar to the color reference image in content, determining a first color for the first set of blocks based on a color of blocks in the color reference image corresponding to the first set of blocks, determining a second color for the second set of blocks independently of the color reference image, and transferring the grayscale source image based on the first and second colors to generate a color target image. determining , based on the similarity and from the grayscale image, a first set of blocks similar to the color reference image in content and a second set of blocks dissimilar to the color reference image in content, determining a first color for the first set of blocks based on a color of blocks in the color reference image corresponding to the first set of blocks, determining a second color for the second set of blocks independently of the color reference image, and transferring the grayscale source image based on the first and second colors to generate a color target image.
Confection package comprising of - a plastic mould product comprising a space for a confection, a space for one end of a handle , and a horizontal planar surface , wherein the space for a confection is fluidly separated from the space for one end of a handle and wherein the space for one end of a handle and the space for a confection is positioned below the planar surface , - a planar cover sheet sealed to the planar surface of the plastic mould product , - a volume of a freezable or frozen confection as present within the space for a confection, and - a handle comprising of an interior part of the handle which is positioned within the volume of freezable or frozen confection in the space for a confection and an exterior part which in use will allow the volume of freezable confection to be manually held by a user and which exterior part is positioned in the space for one end of the handle , wherein the interior part is connected to the exterior part by means of an offset intermediate part , and wherein - part of the intermediate part of the handle is sealed at its upper end to the planar cover sheet and at its lower end to an upper end of a wall part of the plastic mould product which wall part horizontally separates the space for a confection from the space for one end of a handle and wherein the upper end of the handle is positioned above the planar surface . - a plastic mould product comprising a space for a confection, a space for one end of a handle , and a horizontal planar surface , wherein the space for a confection is fluidly separated from the space for one end of a handle and wherein the space for one end of a handle and the space for a confection is positioned below the planar surface , - a planar cover sheet sealed to the planar surface of the plastic mould product , - a volume of a freezable or frozen confection as present within the space for a confection, and - a handle comprising of an interior part of the handle which is positioned within the volume of freezable or frozen confection in the space for a confection and an exterior part which in use will allow the volume of freezable confection to be manually held by a user and which exterior part is positioned in the space for one end of the handle , wherein the interior part is connected to the exterior part by means of an offset intermediate part , and wherein - part of the intermediate part of the handle is sealed at its upper end to the planar cover sheet and at its lower end to an upper end of a wall part of the plastic mould product which wall part horizontally separates the space for a confection from the space for one end of a handle and wherein the upper end of the handle is positioned above the planar surface .
A method of operating a turboprop engine having a high pressure spool and a low pressure spool rotating independently from one another, each spool containing at least one compressor stage , and the low pressure spool is connected to a propeller , the method comprising: determining a target temperature-corrected rotational speed of the low pressure spool for a given set of operating parameters; and controlling a mechanical speed of the low pressure spool to maintain the temperature-corrected rotational speed of the low pressure spool substantially constant throughout at least a portion of a range of a power demand on the turboprop engine . determining a target temperature-corrected rotational speed of the low pressure spool for a given set of operating parameters; and controlling a mechanical speed of the low pressure spool to maintain the temperature-corrected rotational speed of the low pressure spool substantially constant throughout at least a portion of a range of a power demand on the turboprop engine .
A fastener cartridge assembly for use with a circular surgical fastening device, wherein the fastener cartridge assembly comprises: a cartridge body comprising a circular deck ; a first plurality of fastener cavities opening through the circular deck, each of said first plurality of fastener cavities comprising two cavity ends and wherein said one cavity end of each of the first plurality of fastener cavities is positioned on a first circular axis having a first radius and wherein said other cavity end of each said first plurality of fastener cavities is positioned on a second circular axis that has a second radius that differs from the first radius; and a second plurality of fastener cavities opening through the circular deck, characterised in that each of the second plurality of fastener cavities are aligned on a third circular axis that comprises a third radius that differs from the first and second radii, wherein said third radius is greater than said first and second radii or less than said first and second radii. a cartridge body comprising a circular deck ; a first plurality of fastener cavities opening through the circular deck, each of said first plurality of fastener cavities comprising two cavity ends and wherein said one cavity end of each of the first plurality of fastener cavities is positioned on a first circular axis having a first radius and wherein said other cavity end of each said first plurality of fastener cavities is positioned on a second circular axis that has a second radius that differs from the first radius; and a second plurality of fastener cavities opening through the circular deck, characterised in that each of the second plurality of fastener cavities are aligned on a third circular axis that comprises a third radius that differs from the first and second radii, wherein said third radius is greater than said first and second radii or less than said first and second radii.
A surface having anti-icing properties, comprising: a surface; and a viscoelastic icephobic coating deposited on the surface, wherein the viscoelastic icephobic coating comprises an elastomer matrix and organogel particle beads dispersed throughout the elastomer matrix, wherein the organogel particle beads comprise a non-crosslinked liquid phase entrapped in a three-dimensionally crosslinked gel, wherein the elastomer matrix is cured to form the viscoelastic icephobic coating, and wherein the viscoelastic icephobic coating imparts anti-icing properties to the surface. a surface; and a viscoelastic icephobic coating deposited on the surface, wherein the viscoelastic icephobic coating comprises an elastomer matrix and organogel particle beads dispersed throughout the elastomer matrix, wherein the organogel particle beads comprise a non-crosslinked liquid phase entrapped in a three-dimensionally crosslinked gel, wherein the elastomer matrix is cured to form the viscoelastic icephobic coating, and wherein the viscoelastic icephobic coating imparts anti-icing properties to the surface.
A method comprising: receiving a liquid hydrocarbon sample from a flowline carrying the liquid hydrocarbon, the liquid hydrocarbon sample comprising liquid hydrocarbon and liquid water at a concentration greater than a water saturation level; mixing the liquid hydrocarbon sample with a solvent that has a water content below a water content threshold, wherein the concentration of liquid water in a mixture of the solvent and the liquid hydrocarbon sample is below the water saturation level; and after mixing the liquid hydrocarbon sample with the solvent, measuring a water cut of the mixture of the liquid hydrocarbon sample and the solvent and determining a water content in the liquid hydrocarbon sample. receiving a liquid hydrocarbon sample from a flowline carrying the liquid hydrocarbon, the liquid hydrocarbon sample comprising liquid hydrocarbon and liquid water at a concentration greater than a water saturation level; mixing the liquid hydrocarbon sample with a solvent that has a water content below a water content threshold, wherein the concentration of liquid water in a mixture of the solvent and the liquid hydrocarbon sample is below the water saturation level; and after mixing the liquid hydrocarbon sample with the solvent, measuring a water cut of the mixture of the liquid hydrocarbon sample and the solvent and determining a water content in the liquid hydrocarbon sample.
A probe member (DS) intended to be used for 2D and/or 3D imaging a soft tissue (A) in an intra oral cavity, comprising: a. a closed acoustic window (74; 74'; 142; 164; 192; 214) intended to face the soft tissue (A) to be imaged; b. an ultrasound transducer system (UTS) configured for: emitting an ultrasound signal in the form of a beam through the closed acoustic window (74; 74'; 142; 164; 192; 214) along at least one axis; and receiving a corresponding ultrasound return signal through the closed acoustic window (74; 74'; 142; 164; 192; 214); and c. a beam forming and scanning assembly (BFA) configured for driving the ultrasound beam axis through the closed acoustic window (74; 74'; 142; 164; 192; 214); the ultrasound transducer system (UTS) operating at a center frequency (fo) in the range from 10MHz to 100MHz. a. a closed acoustic window (74; 74'; 142; 164; 192; 214) intended to face the soft tissue (A) to be imaged; b. an ultrasound transducer system (UTS) configured for: emitting an ultrasound signal in the form of a beam through the closed acoustic window (74; 74'; 142; 164; 192; 214) along at least one axis; and receiving a corresponding ultrasound return signal through the closed acoustic window (74; 74'; 142; 164; 192; 214); and emitting an ultrasound signal in the form of a beam through the closed acoustic window (74; 74'; 142; 164; 192; 214) along at least one axis; and receiving a corresponding ultrasound return signal through the closed acoustic window (74; 74'; 142; 164; 192; 214); and c. a beam forming and scanning assembly (BFA) configured for driving the ultrasound beam axis through the closed acoustic window (74; 74'; 142; 164; 192; 214); the ultrasound transducer system (UTS) operating at a center frequency (fo) in the range from 10MHz to 100MHz.
An in vitro method of classifying a pediatric patient with septic shock as high risk or low risk of adverse outcome, the method comprising: analyzing a sample from a pediatric patient with septic shock to determine the expression levels of two or more biomarkers selected from the group consisting of JAK2, LYN, PRKCB, and SOS2; determining whether the expression levels of the two or more biomarkers are elevated above a cut-off level; and classifying the patient as endotype A / high risk or other than endotype A / high risk, wherein a classification of endotype A / high risk comprises: a) a non-elevated level of JAK2 and a non-elevated level of PRKCB; or b) a non-elevated level of JAK2, an elevated level of PRKCB, and a non-elevated level of LYN; and wherein a classification other than endotype A / high risk comprises: c) a non-elevated level of JAK2, an elevated level of PRKCB, and an elevated level of LYN; or d) an elevated level of JAK2, a non-elevated level of SOS2, and a highly elevated level of LYN; or e) elevated levels of JAK2 and SOS2; or f) an elevated level of JAK2, a non-elevated level of SOS2, and a non-highly elevated level of LYN. analyzing a sample from a pediatric patient with septic shock to determine the expression levels of two or more biomarkers selected from the group consisting of JAK2, LYN, PRKCB, and SOS2; determining whether the expression levels of the two or more biomarkers are elevated above a cut-off level; and classifying the patient as endotype A / high risk or other than endotype A / high risk, wherein a classification of endotype A / high risk comprises: a) a non-elevated level of JAK2 and a non-elevated level of PRKCB; or b) a non-elevated level of JAK2, an elevated level of PRKCB, and a non-elevated level of LYN; a) a non-elevated level of JAK2 and a non-elevated level of PRKCB; or b) a non-elevated level of JAK2, an elevated level of PRKCB, and a non-elevated level of LYN; and wherein a classification other than endotype A / high risk comprises: c) a non-elevated level of JAK2, an elevated level of PRKCB, and an elevated level of LYN; or d) an elevated level of JAK2, a non-elevated level of SOS2, and a highly elevated level of LYN; or e) elevated levels of JAK2 and SOS2; or f) an elevated level of JAK2, a non-elevated level of SOS2, and a non-highly elevated level of LYN. c) a non-elevated level of JAK2, an elevated level of PRKCB, and an elevated level of LYN; or d) an elevated level of JAK2, a non-elevated level of SOS2, and a highly elevated level of LYN; or e) elevated levels of JAK2 and SOS2; or f) an elevated level of JAK2, a non-elevated level of SOS2, and a non-highly elevated level of LYN.