mhurhangee/ep-ind-claims huggingface dataset:
A precursor of a portable flameless storage heating apparatus capable of being stored in an oxygen-containing atmosphere and consisting of a flexible porous substrate made by mixing the following components: - a reducing agent providing an exothermic reaction upon oxidation and selected from the group consisting of: zinc, aluminum, and magnesium, - a promoter for the reduction of oxygen comprising carbon, and - a binding agent which is polytetrafluoroethylene; and forming the mixture into a desired shape. - a reducing agent providing an exothermic reaction upon oxidation and selected from the group consisting of: zinc, aluminum, and magnesium, - a promoter for the reduction of oxygen comprising carbon, and - a binding agent which is polytetrafluoroethylene;
A method for time synchronization of stations, STAs, (12a, 12b, 12c, 12d) in a wireless local area network, the method being performed by an access point, AP, the method comprising the steps of: transmitting a request to at least two STAs (12a, 12b, 12c, 12d) for the at least two STAs to transmit a response to the AP, the request indicating which frequency sub-band (107a, 107b, 107c, 107d) each of the at least two STAs is to use for transmitting the response; receiving the responses to the request from the at least two STAs, wherein each of the responses comprises orthogonal frequency-division multiple access, OFDMA, symbols; determining, for each of the at least two STAs, a time delay based on the responses; and transmitting control signalling to the at least two STAs, the control signalling comprising time alignment commands for the at least two STAs, wherein each time alignment command is based on the time delay for one of the at least two STAs. transmitting a request to at least two STAs (12a, 12b, 12c, 12d) for the at least two STAs to transmit a response to the AP, the request indicating which frequency sub-band (107a, 107b, 107c, 107d) each of the at least two STAs is to use for transmitting the response; receiving the responses to the request from the at least two STAs, wherein each of the responses comprises orthogonal frequency-division multiple access, OFDMA, symbols; determining, for each of the at least two STAs, a time delay based on the responses; and transmitting control signalling to the at least two STAs, the control signalling comprising time alignment commands for the at least two STAs, wherein each time alignment command is based on the time delay for one of the at least two STAs.
A method of forming a compressor rotor blade, the method comprising: creating a three-dimensional model of the blade; creating, with a finite element analysis tool, a stress profile of the blade; combining the stress profile with the three-dimensional model of the blade; assigning different materials and different layer-by-layer additive manufacturing processes to different regions of the blade based upon the stress profile; forming the blade, wherein forming the blade comprises: forming a root of the blade with a first material composition and with a first layer-by-layer additive manufacturing process; forming a platform connected to the root; forming an airfoil connected to the platform, wherein the airfoil is formed with a second material composition and with a second layer-by-layer additive manufacturing process that is different from the first layer-by-layer additive manufacturing process; and forming a tip connected to the airfoil, wherein the tip is formed with a third layer-by-layer additive manufacturing process that is different from the second layer-by-layer additive manufacturing process. creating a three-dimensional model of the blade; creating, with a finite element analysis tool, a stress profile of the blade; combining the stress profile with the three-dimensional model of the blade; assigning different materials and different layer-by-layer additive manufacturing processes to different regions of the blade based upon the stress profile; forming the blade, wherein forming the blade comprises: forming a root of the blade with a first material composition and with a first layer-by-layer additive manufacturing process; forming a platform connected to the root; forming an airfoil connected to the platform, wherein the airfoil is formed with a second material composition and with a second layer-by-layer additive manufacturing process that is different from the first layer-by-layer additive manufacturing process; and forming a tip connected to the airfoil, wherein the tip is formed with a third layer-by-layer additive manufacturing process that is different from the second layer-by-layer additive manufacturing process. forming a root of the blade with a first material composition and with a first layer-by-layer additive manufacturing process; forming a platform connected to the root; forming an airfoil connected to the platform, wherein the airfoil is formed with a second material composition and with a second layer-by-layer additive manufacturing process that is different from the first layer-by-layer additive manufacturing process; and forming a tip connected to the airfoil, wherein the tip is formed with a third layer-by-layer additive manufacturing process that is different from the second layer-by-layer additive manufacturing process.
A computer implemented medical data processing method comprising the following steps: • an identified tracking structure of a patient is acquired (S1.1), wherein the identified tracking structure is an anatomical structure of the patient identified in image data which describes at least one anatomical structure of the patient and is a structure which shall be tracked; and • the identified tracking structure is tessellated (S1.2) into a plurality of sub-tracking structures (1 to 9), which can be tracked individually, characterized in that • the sub-tracking structures (1 to 9) are formed by grouping parts of the identified tracking structure having the same range of similarity of movement together. • an identified tracking structure of a patient is acquired (S1.1), wherein the identified tracking structure is an anatomical structure of the patient identified in image data which describes at least one anatomical structure of the patient and is a structure which shall be tracked; and • the identified tracking structure is tessellated (S1.2) into a plurality of sub-tracking structures (1 to 9), which can be tracked individually, characterized in that • the sub-tracking structures (1 to 9) are formed by grouping parts of the identified tracking structure having the same range of similarity of movement together.
Use of cholesterol C25-hydroxylase to hydroxylate ergosterol in order to produce 25-hydroxyergosterol, wherein the production occurs within a yeast cell in which ERG6 and ERG5 are inactivated, and the yeast also expresses a sterol Δ24-reductase.
An image analyzing apparatus for extracting voids from a three-dimensional image of a fiber-reinforced composite material, the image analyzing apparatus comprising: a processor which is configured to execute image processing to the three-dimensional image, wherein the processor is configured to: binarize the three-dimensional image and creates a binary image; transform the binary image into a distance and creates a distance image, the image analyzing apparatus being characterized in that the processor is configured to: execute closing processing to the binary image by using the distance image; extract voids from differences between images before and after the closing processing; among the extracted voids, classify voids that are adjacent to a background voxel as open voids, and classifies voids that are not adjacent to a background voxel as closed voids; and execute opening processing to the open voids in order to eliminate fake voids, which are voids in which a part of the background is falsely classified as open voids. binarize the three-dimensional image and creates a binary image; transform the binary image into a distance and creates a distance image, the image analyzing apparatus being characterized in that the processor is configured to: execute closing processing to the binary image by using the distance image; extract voids from differences between images before and after the closing processing; among the extracted voids, classify voids that are adjacent to a background voxel as open voids, and classifies voids that are not adjacent to a background voxel as closed voids; and execute opening processing to the open voids in order to eliminate fake voids, which are voids in which a part of the background is falsely classified as open voids. execute closing processing to the binary image by using the distance image; extract voids from differences between images before and after the closing processing; among the extracted voids, classify voids that are adjacent to a background voxel as open voids, and classifies voids that are not adjacent to a background voxel as closed voids; and execute opening processing to the open voids in order to eliminate fake voids, which are voids in which a part of the background is falsely classified as open voids.
An observation device comprising: a stage on which a vessel in which a subject is stored is installed; an image-forming optical system that includes an objective lens forming an image of the subject stored in the vessel; and a scan control unit adapted to move the stage with respect to the image-forming optical system to scan respective observation positions in the vessel by the image-forming optical system; characterized by an acceleration-determination-information acquisition unit adapted to acquire at least one piece of information among information about the subject, information about the vessel, information about an observation method, or information about an observation condition, wherein the scan control unit is adapted to control an acceleration of the stage on the basis of the at least one piece of information, the vessel is a well plate, the information about the vessel is information representing the well plate, and the scan control unit sets the acceleration to be higher as the number of wells of the well plate is larger. a stage on which a vessel in which a subject is stored is installed; an image-forming optical system that includes an objective lens forming an image of the subject stored in the vessel; and a scan control unit adapted to move the stage with respect to the image-forming optical system to scan respective observation positions in the vessel by the image-forming optical system; characterized by an acceleration-determination-information acquisition unit adapted to acquire at least one piece of information among information about the subject, information about the vessel, information about an observation method, or information about an observation condition, wherein the scan control unit is adapted to control an acceleration of the stage on the basis of the at least one piece of information, the vessel is a well plate, the information about the vessel is information representing the well plate, and the scan control unit sets the acceleration to be higher as the number of wells of the well plate is larger.
A heat exchange tube assembly comprising: a first flattened heat exchange tube segment extending longitudinally; a second flattened heat exchange tube segment extending longitudinally in spaced aligned relationship with said first flattened heat exchange tube segment; and a web member extending between and connecting a trailing edge of said first heat exchange tube segment and a leading edge of said second heat exchange tube segment; wherein said web member has at least one drainage opening extending therethrough characterized in that said at least one drainage opening is positioned off-centered to be in the proximity of the trailing edge of said first heat exchange tube segment or in the proximity of the leading edge of said second heat exchange tube segment. a first flattened heat exchange tube segment extending longitudinally; a second flattened heat exchange tube segment extending longitudinally in spaced aligned relationship with said first flattened heat exchange tube segment; and a web member extending between and connecting a trailing edge of said first heat exchange tube segment and a leading edge of said second heat exchange tube segment; wherein said web member has at least one drainage opening extending therethrough characterized in that said at least one drainage opening is positioned off-centered to be in the proximity of the trailing edge of said first heat exchange tube segment or in the proximity of the leading edge of said second heat exchange tube segment.
Use of a self gassing liquid composition comprising: an aqueous fermentation base having at least one fermentable carbohydrate, wherein the at least one fermentable carbohydrate is selected from glucose, fructose, sucrose and/or combinations thereof from a fruit juice, and at least one gas producing organism; and at least one surfactant in an amount of from 0.01 % to to 60% based on the total weight of the composition; as a personal care product. an aqueous fermentation base having at least one fermentable carbohydrate, wherein the at least one fermentable carbohydrate is selected from glucose, fructose, sucrose and/or combinations thereof from a fruit juice, and at least one gas producing organism; and at least one surfactant in an amount of from 0.01 % to to 60% based on the total weight of the composition; as a personal care product.
An ultra-high charge capacity dielectric material (UHCC dielectric material) comprising: at least one layer of material comprising: organometallic particles in a substantially continuous phase (17, 17', 19, 20, 21, 21-1, 21-2, 21-3, 21-4, 21-5); and wherein the organometallic particles comprise stacked organometallic molecules.
Electrical connection element, which is made as stamped part out of a sheet metal and comprises at least one cantilevered tongue which is bent out of the sheet plane to a first side of the sheet metal and extends in a plane parallel to the sheet plane, wherein the connection element comprises two fingers (17, 18) cantilevered in insertion direction of the connection element which extend in parallel to the at least one cantilevered tongue in the sheet plane and form the front end, in insertion direction, of the connection element; characterized in that each finger (17, 18) has two contact bulges spaced apart in the longitudinal direction of the fingers.
A method of installing an unbonded flexible pipe with a bore for transportation of fluid wherein the unbonded flexible pipe comprises an outer sheath, an inner sealing sheath inside the outer polymer sheath, an annulus between said outer sheath and said inner sealing sheath and at least one metallic armor layer comprising iron located in said annulus, wherein the method comprises filling at least a part of the annulus with an evenly distributed corrosion promoting liquid comprising water before or after installing the unbonded flexible pipe between a first installation and a second installation.
An indirect evaporative cooler for cooling a stream of inlet supply air from a first temperature to a second, lower temperature using a stream of liquid coolant and a stream of exhaust or purge air, comprising: a first flow channel for receiving the stream of inlet supply air; a second flow channel, defined in part by a sheet of a membrane, adjacent to the first flow channel and for receiving the stream of exhaust air at a temperature lower than the first temperature; and a first separation wall, spaced apart from the sheet of membrane, defining a liquid coolant flow channel for the stream of liquid coolant, the separation wall comprising a material impermeable to the liquid coolant and conductive of the heat from the stream of inlet supply air; wherein: the membrane is at least partially permeable to water vapor, the indirect evaporative cooler is configured such that the stream of liquid coolant can flow on a side of the membrane opposite the second flow channel, and such that the liquid coolant can transfer mass as a vapor through the membrane to the stream of exhaust air in response to receiving heat transferred from the stream of inlet supply air in the first flow channel. a first flow channel for receiving the stream of inlet supply air; a second flow channel, defined in part by a sheet of a membrane, adjacent to the first flow channel and for receiving the stream of exhaust air at a temperature lower than the first temperature; and a first separation wall, spaced apart from the sheet of membrane, defining a liquid coolant flow channel for the stream of liquid coolant, the separation wall comprising a material impermeable to the liquid coolant and conductive of the heat from the stream of inlet supply air; wherein: the membrane is at least partially permeable to water vapor, the indirect evaporative cooler is configured such that the stream of liquid coolant can flow on a side of the membrane opposite the second flow channel, and such that the liquid coolant can transfer mass as a vapor through the membrane to the stream of exhaust air in response to receiving heat transferred from the stream of inlet supply air in the first flow channel.
A bumper beam of a sheet metal formed to a closed hollow structure comprising a first side wall and a second side wall, wherein the sheet metal comprises a first longitudinal side and a second longitudinal side, wherein the sheet metal is formed such that the first longitudinal side is formed to a horizontal member located inside the closed hollow structure and such that the second side wall forms a recess into which the first longitudinal side extends, wherein the first longitudinal side and the recess are configured to form a locking of the horizontal member when the bumper beam is deformed due to an impact, wherein the second longitudinal side is welded to the closed hollow structure, characterized in that, in the recess, the first longitudinal side is unwelded to the second side wall. wherein the sheet metal comprises a first longitudinal side and a second longitudinal side, wherein the sheet metal is formed such that the first longitudinal side is formed to a horizontal member located inside the closed hollow structure and such that the second side wall forms a recess into which the first longitudinal side extends, wherein the first longitudinal side and the recess are configured to form a locking of the horizontal member when the bumper beam is deformed due to an impact, wherein the second longitudinal side is welded to the closed hollow structure, characterized in that, in the recess, the first longitudinal side is unwelded to the second side wall.
A photoelectric conversion element comprising: a first electrode; an electron-transporting layer; a hole-transporting layer; and a second electrode, characterized in that the hole-transporting layer includes a hole-transporting material, an alkali metal salt, and a hypervalent iodine compound. a first electrode; an electron-transporting layer; a hole-transporting layer; and a second electrode, characterized in that the hole-transporting layer includes a hole-transporting material, an alkali metal salt, and a hypervalent iodine compound.
A method, comprising: dividing, by a network side device, at least one cell into Y areas; dividing, by the network side device, a first one of the Y areas into X sub-areas; wherein 1≤Y≤X; generating, by the network side device, a first sequence group comprising N mutually orthogonal sequences, wherein N≥1, according to a sequence group corresponding to a first one of the X sub-areas; configuring, by the network side device, the sequence group for the first sub-area; and sending, by the network side device, to a first device and a second device, the first sequence group; receveing, by the first device, the first sequence group; paging and/or synchronizing, by the first device, with the second device by using the first sequence group; wherein the first device is user equipment located in the first sub-area and is a device that accesses the network side device, and wherein the second device is a device that can access the network side device by using the first device. dividing, by a network side device, at least one cell into Y areas; dividing, by the network side device, a first one of the Y areas into X sub-areas; wherein 1≤Y≤X; generating, by the network side device, a first sequence group comprising N mutually orthogonal sequences, wherein N≥1, according to a sequence group corresponding to a first one of the X sub-areas; configuring, by the network side device, the sequence group for the first sub-area; and sending, by the network side device, to a first device and a second device, the first sequence group; receveing, by the first device, the first sequence group; paging and/or synchronizing, by the first device, with the second device by using the first sequence group; wherein the first device is user equipment located in the first sub-area and is a device that accesses the network side device, and wherein the second device is a device that can access the network side device by using the first device.
Edging-strip winder for strip-shaped material, particularly for edging strips left over when longitudinally trimming a strip at the strip edges, comprising two winding mandrels (14, 15), which are mounted to be rotatable about the longitudinal axes thereof and arranged coaxially relative to one another by their longitudinal axes and which are respectively axially displaceable relative to one another and a winding segment into which the respective free ends (18, 19) of the winding mandrels (14, 15) can be brought into juxtaposition, wherein the two winding mandrels (14, 15) are mounted so as to be borne on a displacement base (22, 23) displaceable relative to a base frame of the edging-strip winder, characterised in that the winding segment is bounded by opposite side walls (38, 39), which are arranged parallel to one another in an operating position of the edging-strip winder and are pivotable laterally outwardly into a removal position of an edging-strip roll of the strip-shaped material so that a funnel-shaped removal opening for the edging-strip roll arises.
An electronic device, wherein said electronic device is a bridge between a content rendering device and one or more light sources (22,23), said electronic device comprising at least one processor configured to: - receive a stream of light commands; - control said one or more light sources (22,23) to render a dynamic light effect, at a normal speed, on the basis of said received light commands, - control said one or more light sources (22,23) to pause said dynamic light effect, and - control said one or more light sources (22,23) to resume said dynamic light effect, at a fast speed which is faster than said normal speed, on the basis of light commands, of said stream of light commands, received between pausing and resuming said dynamic light effect, and further control said one or more light sources (22,23) on the basis of light commands received after resuming said dynamic light effect at said fast speed, characterised in that said at least one processor is configured to determine said fast speed such that said dynamic light effect will finish at the same time it would have finished if said dynamic light effect had not been paused. - receive a stream of light commands; - control said one or more light sources (22,23) to render a dynamic light effect, at a normal speed, on the basis of said received light commands, - control said one or more light sources (22,23) to pause said dynamic light effect, and - control said one or more light sources (22,23) to resume said dynamic light effect, at a fast speed which is faster than said normal speed, on the basis of light commands, of said stream of light commands, received between pausing and resuming said dynamic light effect, and further control said one or more light sources (22,23) on the basis of light commands received after resuming said dynamic light effect at said fast speed,