mhurhangee/patent-ind-claim-en huggingface dataset:
An image processing apparatus for improving a texture component of an input image comprising: a memory storing information on at least one random patch; and at least one processor configured to: obtain correlations between a pixel block included in an input image and each of a plurality of random patches obtained from the information on the at least one random patch, obtain weights respectively for the plurality of random patches on a basis of the obtained correlations and apply the weights respectively to the plurality of random patches, and obtain an output image by applying, to the pixel block, the plurality of random patches to which the weights are respectively applied. a memory storing information on at least one random patch; and at least one processor configured to: obtain correlations between a pixel block included in an input image and each of a plurality of random patches obtained from the information on the at least one random patch, obtain weights respectively for the plurality of random patches on a basis of the obtained correlations and apply the weights respectively to the plurality of random patches, and obtain an output image by applying, to the pixel block, the plurality of random patches to which the weights are respectively applied. obtain correlations between a pixel block included in an input image and each of a plurality of random patches obtained from the information on the at least one random patch, obtain weights respectively for the plurality of random patches on a basis of the obtained correlations and apply the weights respectively to the plurality of random patches, and obtain an output image by applying, to the pixel block, the plurality of random patches to which the weights are respectively applied.
An emissions reduction system for reducing emissions from a ship's exhaust, the emissions reduction system comprising: (a) an emissions control system positioned within a housing , the emissions control system having an exhaust inlet for receiving diesel engine exhaust and an exhaust outlet , and (b) an emissions capturing system for capturing the ship's exhaust for treatment characterized in that the emissions capturing system includes a telescopic duct having two ends, the telescopic duct having telescopic sections of differing diameter to allow the various telescopic sections to fit within one another in a telescoping manner, and where one end of the telescopic duct is adapted to extend to the ship to capture the ship's exhaust and the other end of the telescopic duct is adapted to connect to the exhaust inlet of the emissions control system . (a) an emissions control system positioned within a housing , the emissions control system having an exhaust inlet for receiving diesel engine exhaust and an exhaust outlet , and (b) an emissions capturing system for capturing the ship's exhaust for treatment
A microphone chip , wherein the microphone chip comprises: a substrate and a diaphragm that are disposed oppositely; a reflector attached to a side that is of the diaphragm and that is closer to the substrate ; a grating group located between the substrate and the diaphragm ; and optical emitters and an optical detector that are located between the substrate and the grating group, wherein the grating group comprises a plurality of gratings , and distances (d1, d2) between at least two gratings in the plurality of gratings and the reflector are different, wherein a difference g between the distances (d1, d2) between the at least two gratings in the plurality of gratings and the reflector meets: (2n - 1) x λ/8 - λ/16 ≤ g ≤ (2n - 1) x λ/8 + λ/16, wherein n is an integer greater than 0, and characterized in that the microphone chip comprises two of the optical emitters , and wavelengths of light emitted by the two optical emitters are respectively λ 1 and λ 2 , wherein λ is the maximum value of the multiplexed wavelengths λ 1 and λ 2 and meets λ = λ 1 × λ 2 λ 1 − λ 2 . a substrate and a diaphragm that are disposed oppositely; a reflector attached to a side that is of the diaphragm and that is closer to the substrate ; a grating group located between the substrate and the diaphragm ; and optical emitters and an optical detector that are located between the substrate and the grating group, wherein the grating group comprises a plurality of gratings , and distances (d1, d2) between at least two gratings in the plurality of gratings and the reflector are different, wherein a difference g between the distances (d1, d2) between the at least two gratings in the plurality of gratings and the reflector meets: (2n - 1) x λ/8 - λ/16 ≤ g ≤ (2n - 1) x λ/8 + λ/16, wherein n is an integer greater than 0, and characterized in that the microphone chip comprises two of the optical emitters , and wavelengths of light emitted by the two optical emitters are respectively λ 1 and λ 2 , wherein λ is the maximum value of the multiplexed wavelengths λ 1 and λ 2 and meets λ = λ 1 × λ 2 λ 1 − λ 2 . (2n - 1) x λ/8 - λ/16 ≤ g ≤ (2n - 1) x λ/8 + λ/16, wherein n is an integer greater than 0, and characterized in that the microphone chip comprises two of the optical emitters , and wavelengths of light emitted by the two optical emitters are respectively λ 1 and λ 2 , wherein λ is the maximum value of the multiplexed wavelengths λ 1 and λ 2 and meets λ = λ 1 × λ 2 λ 1 − λ 2 .
An injectable nanoparticulate pharmaceutical dosage form according to (A), or (B), or (C) comprising: (A) meloxicam, or a salt thereof, wherein the meloxicam is in the form of particles having an effective average particle size of less than 150 nm; a surface stabilizer; and water; or (B) meloxicam, or a salt thereof, wherein the meloxicam is in the form of particles having an effective average particle size of less than 2000 nm; polyvinylpyrrolidone as a surface stabilizer; and water; or (C) meloxicam, or a salt thereof, wherein the meloxicam is in the form of particles having an effective average particle size of less than 2000 nm; sodium deoxycholate as a surface stabilizer; and water. (A) meloxicam, or a salt thereof, wherein the meloxicam is in the form of particles having an effective average particle size of less than 150 nm; a surface stabilizer; and water; or (B) meloxicam, or a salt thereof, wherein the meloxicam is in the form of particles having an effective average particle size of less than 2000 nm; polyvinylpyrrolidone as a surface stabilizer; and water; or (C) meloxicam, or a salt thereof, wherein the meloxicam is in the form of particles having an effective average particle size of less than 2000 nm; sodium deoxycholate as a surface stabilizer; and water.
A roller shutter including: a chamber with an opening, a roller curtain movable between a retracted configuration in which said roller curtain is substantially fully contained within said chamber and an extended configuration in which at least part of said roller curtain extends beyond said chamber through said opening, and at least one guide rail along and relative to which said roller curtain is movable between said retracted configuration and said extended configuration, wherein said roller curtain includes a plurality of slat members interlocked with each other for relative pivotal movement, said plurality of slat members collectively forming a first major surface and a second major surface, and a first layer of fire-resistant and/or heat-resistant fabric fixedly mounted to said first major surface of said plurality of slat members and a second layer of fire-resistant and/or heat-resistant fabric fixedly mounted to said second major surface of said plurality of slat members, characterized in that said guide rail includes at least a first sealing member which, when said roller curtain is in said extended configuration, contacts or presses into said first layer of fire-resistant and/or heat-resistant fabric to form a first seal which at least hinders the passage of smoke there-through. a chamber with an opening, a roller curtain movable between a retracted configuration in which said roller curtain is substantially fully contained within said chamber and an extended configuration in which at least part of said roller curtain extends beyond said chamber through said opening, and at least one guide rail along and relative to which said roller curtain is movable between said retracted configuration and said extended configuration, wherein said roller curtain includes a plurality of slat members interlocked with each other for relative pivotal movement, said plurality of slat members collectively forming a first major surface and a second major surface, and a first layer of fire-resistant and/or heat-resistant fabric fixedly mounted to said first major surface of said plurality of slat members and a second layer of fire-resistant and/or heat-resistant fabric fixedly mounted to said second major surface of said plurality of slat members, a plurality of slat members interlocked with each other for relative pivotal movement, said plurality of slat members collectively forming a first major surface and a second major surface, and a first layer of fire-resistant and/or heat-resistant fabric fixedly mounted to said first major surface of said plurality of slat members and a second layer of fire-resistant and/or heat-resistant fabric fixedly mounted to said second major surface of said plurality of slat members, characterized in that said guide rail includes at least a first sealing member which, when said roller curtain is in said extended configuration, contacts or presses into said first layer of fire-resistant and/or heat-resistant fabric to form a first seal which at least hinders the passage of smoke there-through.
A steel material, having excellent corrosion resistance in a dew condensation environment containing a sulfide gas, comprising, by weight percent, 0.02 to 0.2% of carbon (C), 0.1 to 1.0% of silicon (Si), 0.2 to 2.0% of manganese (Mn), 0.03% or less of phosphorus (P), 0.03% or less of sulfur (S), 0.05 to 0.5% of copper (Cu), 0.05 to 0.5% of nickel (Ni), 0.02 to 0.5% of molybdenum (Mo), 0.1% or less of aluminum (Al), 0.05 to 0.5% of chromium (Cr), 0.001 to 0.01% of calcium (Ca), and the balance of iron (Fe) and inevitable impurities, wherein a sensitivity index of sulfide dew point corrosion, given by Relational Expression 1, is 1.78 or more to 2.25 or less: Sensitivity Index of Sulfide Dew point corrosion = 0.4 Ca / S + 5 Cr + 6Mo + 2 Cu + Ni − 0.5 Mn where Ca, S, Cr, Mo, Cu, Ni, and Mn denote contents by weight percent of corresponding elements, and wherein a content of the Ni is greater than a content of the Cu, and is 1.5 times or less the content of the Cu. wherein a sensitivity index of sulfide dew point corrosion, given by Relational Expression 1, is 1.78 or more to 2.25 or less: Sensitivity Index of Sulfide Dew point corrosion = 0.4 Ca / S + 5 Cr + 6Mo + 2 Cu + Ni − 0.5 Mn where Ca, S, Cr, Mo, Cu, Ni, and Mn denote contents by weight percent of corresponding elements, and
A two-piece fastener for attachment to a panel, comprising: a retainer adapted to be received within a hole in a panel , said retainer having a shank with peripheral gripping means for engaging a wall of the panel hole, the retainer further having a central through-hole and a retainer head of enlarged diameter; and wherein an insert having multiple self-clinching features (16 and 18) of successively increasing diameter adapted for attachment to the retainer by insertion into the retainer through-hole causing deformation of a retainer through-hole wall by one or more of the self-clinching features (16 and 18), said insert having a flange at one end configured to contact an opposite side of the panel being clamped between the retainer head and the flange . a retainer adapted to be received within a hole in a panel , said retainer having a shank with peripheral gripping means for engaging a wall of the panel hole, the retainer further having a central through-hole and a retainer head of enlarged diameter; and wherein an insert having multiple self-clinching features (16 and 18) of successively increasing diameter adapted for attachment to the retainer by insertion into the retainer through-hole causing deformation of a retainer through-hole wall by one or more of the self-clinching features (16 and 18), said insert having a flange at one end configured to contact an opposite side of the panel being clamped between the retainer head and the flange .
A combiner positioning system for a head-up display , the system comprising: - a combiner for the head-up display , wherein the combiner is movable between a stowed position and a display position; - positioning means built to move the combiner from the stowed position into the display position; and - actuation means built to disengage locking means ; wherein - the positioning means comprise spring means built to move the combiner from the stowed position into the display position by means of a spring force in case the locking means are disengaged; wherein the combiner is built to be moved manually from the display position into the stowed position, wherein in the stowed position the combiner is built to lock into place by engaging the locking means , characterized in that the positioning means comprise a linear guidance with two gear racks , one at each lateral side of the combiner , which combiner comprises a carrier in its lower section, which carrier is attached to a support shaft connecting two gear wheels arranged at the ends of the support shaft and built to engage with the gear racks to move the combiner along a length axis of the linear guidance , wherein the positioning means comprise a damper attached at the support shaft and built to damp the movement of the spring means . - a combiner for the head-up display , wherein the combiner is movable between a stowed position and a display position; - positioning means built to move the combiner from the stowed position into the display position; and - actuation means built to disengage locking means ; wherein - the positioning means comprise spring means built to move the combiner from the stowed position into the display position by means of a spring force in case the locking means are disengaged; wherein the combiner is built to be moved manually from the display position into the stowed position, wherein in the stowed position the combiner is built to lock into place by engaging the locking means , characterized in that the positioning means comprise a linear guidance with two gear racks , one at each lateral side of the combiner , which combiner comprises a carrier in its lower section, which carrier is attached to a support shaft connecting two gear wheels arranged at the ends of the support shaft and built to engage with the gear racks to move the combiner along a length axis of the linear guidance , wherein the positioning means comprise a damper attached at the support shaft and built to damp the movement of the spring means .
A multipart line , wherein line parts are provided with at least one plug assembly , having at least one retaining element , at their ends, wherein a plug part of the plug assembly of a line part and a coupling part of the plug assembly of the adjacent line part are connectable or connected by fitting and latching the at least one retaining element over the plug part and drawing back the coupling part in opposition to the fitting direction for bringing the retaining element into a locking position, characterised in that in the fitting region of the plug part of the mutually connectable or connected plug assemblies , i.e. in the space or gap which, after the latching of the at least one retaining element on the plug part , remains between the front side of .a flange of the plug part , or the front side of an enclosure at least partially surrounding this, and the front side of a flange of the coupling part or the retaining element , and/or an enclosure at least partially surrounding the coupling part and the retaining element , at least one insulating element is provided, which is formed as an axially compressible, closed ring which is provided with an inner through opening and made from a material with low thermal conductivity, at least in the outer region of the insulating element , for preventing thermal conduction through the insulating element to the outside thereof, wherein, after the fitting procedure, the insulating element lies axially compressed in the spacing or gap remaining between the plug assemblies and fills the fitting region completely in an insulating manner.
A coated transparency, comprising: a substrate; a first dielectric layer formed over at least a portion of the substrate, a continuous metallic layer formed over at least a portion of the first dielectric layer, the metallic layer having a thickness less than 8 nm; a primer layer formed over at least a portion of the metallic layer; a second dielectric layer formed over at least a portion of the primer layer, wherein the second dielectric layer comprises a zinc oxide film and a zinc stannate film deposited over the zinc oxide film; and an overcoat formed over at least a portion of the second dielectric layer, wherein the coating when used on a No. 3 surface of a reference IGU provides a SHGC of greater than or equal to 0.6 and a U-value of less than or equal to 0.35, characterized in that the first dielectric layer comprises a first layer comprising zinc stannate, a second layer comprising zinc oxide, a third layer comprising zinc stannate, and a fourth layer comprising zinc oxide. a substrate; a first dielectric layer formed over at least a portion of the substrate, a continuous metallic layer formed over at least a portion of the first dielectric layer, the metallic layer having a thickness less than 8 nm; a primer layer formed over at least a portion of the metallic layer; a second dielectric layer formed over at least a portion of the primer layer, wherein the second dielectric layer comprises a zinc oxide film and a zinc stannate film deposited over the zinc oxide film; and an overcoat formed over at least a portion of the second dielectric layer, wherein the coating when used on a No. 3 surface of a reference IGU provides a SHGC of greater than or equal to 0.6 and a U-value of less than or equal to 0.35, characterized in that the first dielectric layer comprises a first layer comprising zinc stannate, a second layer comprising zinc oxide, a third layer comprising zinc stannate, and a fourth layer comprising zinc oxide.
A data intermediary system , comprising: a processor ; and a storage unit , wherein the storage unit stores therein usage information indicating usage of a plurality of services that a user has used in the past; wherein the processor acquires information indicating a data item that needs to be provided by a user as required by a provider of a first service that the user wishes to use, based on terms of use of the first service, selects a second service from the plurality of services that the user has used in the past, based on the usage information, extracts a difference between the data items that needs to be provided based on the terms of use of the first service and data items provided based on terms of use of the second service, outputs information indicating the extracted difference, and controls, upon receiving information indicating that the user has accepted the terms of use of the first service, a flow of data from a provider holding the data that needs to be provided based on the terms of use of the first service to the provider that provides the first service. a processor ; and a storage unit , wherein the storage unit stores therein usage information indicating usage of a plurality of services that a user has used in the past; wherein the processor acquires information indicating a data item that needs to be provided by a user as required by a provider of a first service that the user wishes to use, based on terms of use of the first service, selects a second service from the plurality of services that the user has used in the past, based on the usage information, extracts a difference between the data items that needs to be provided based on the terms of use of the first service and data items provided based on terms of use of the second service, outputs information indicating the extracted difference, and controls, upon receiving information indicating that the user has accepted the terms of use of the first service, a flow of data from a provider holding the data that needs to be provided based on the terms of use of the first service to the provider that provides the first service.
Full-field OCT method for generating an image representation of an ocular fundus , having the following steps: a. emitting short-coherent light from a light source ; b. splitting the short-coherent light into an object beam path and a reference beam path by way of a beam splitter , wherein the object beam path is guided onto the ocular fundus ; c. guiding the reference beam path and a part of the object beam path reflected by the ocular fundus onto an image sensor such that interference between the reference beam path and the object beam path arises on the image sensor , wherein the reference beam path is incident on the image sensor at an angle that deviates from the object beam path and wherein the reference beam path , prior to the incidence on the image sensor , is incident on an optical correction element in order to reduce a chromatic deviation within the reference beam path ; d. ascertaining intensity information and phase information from a recording of the image sensor by way of a computation unit ; e. calculating a focus-corrected image of the ocular fundus from the ascertained intensity information and phase information using the computation unit. a. emitting short-coherent light from a light source ; b. splitting the short-coherent light into an object beam path and a reference beam path by way of a beam splitter , wherein the object beam path is guided onto the ocular fundus ; c. guiding the reference beam path and a part of the object beam path reflected by the ocular fundus onto an image sensor such that interference between the reference beam path and the object beam path arises on the image sensor , wherein the reference beam path is incident on the image sensor at an angle that deviates from the object beam path and wherein the reference beam path , prior to the incidence on the image sensor , is incident on an optical correction element in order to reduce a chromatic deviation within the reference beam path ; d. ascertaining intensity information and phase information from a recording of the image sensor by way of a computation unit ; e. calculating a focus-corrected image of the ocular fundus from the ascertained intensity information and phase information using the computation unit.