mhurhangee/ep-ind-claims huggingface dataset:
Use of calcium sulfate in an inorganic mortar system for a chemical fastening of anchoring means in mineral surfaces to increase load values and/or to reduce shrinkage, the inorganic mortar system comprising - a curable aluminous cement component A further comprising at least one blocking agent selected from the group consisting of phosphoric acid, metaphosphoric acid, phosphorous acid and phosphonic acids, at least one plasticizer and water, - an initiator component B for initiating the curing process, component B comprising an initiator, at least one retarder, at least one mineral filler and water. - a curable aluminous cement component A further comprising at least one blocking agent selected from the group consisting of phosphoric acid, metaphosphoric acid, phosphorous acid and phosphonic acids, at least one plasticizer and water, - an initiator component B for initiating the curing process, component B comprising an initiator, at least one retarder, at least one mineral filler and water.
Packaging system, especially food packaging system, comprising or consisting of A) a first paper layer comprising particulate activated carbon, having a face and a reverse opposite the face, where the paper layer consists of a mass fraction of not less than 50% of recycled fibres, based on the total mass of the fibres in the paper layer, B) a first barrier layer disposed on the face and/or reverse of the paper layer or on at least one side of a carrier paper and consisting of or comprising a binder and a pigment, and C) a second barrier layer disposed on the first barrier layer and consisting of or comprising an acrylate copolymer and a wax. A) a first paper layer comprising particulate activated carbon, having a face and a reverse opposite the face, where the paper layer consists of a mass fraction of not less than 50% of recycled fibres, based on the total mass of the fibres in the paper layer, B) a first barrier layer disposed on the face and/or reverse of the paper layer or on at least one side of a carrier paper and consisting of or comprising a binder and a pigment, and C) a second barrier layer disposed on the first barrier layer and consisting of or comprising an acrylate copolymer and a wax.
A method for producing a polyvinyl acetal resin, comprising reacting a polyvinyl alcohol and a carbonyl compound at 40 to 200°C in the presence of an acid catalyst comprising carbon dioxide, wherein the polyvinyl alcohol and the carbonyl compound are reacted in a liquid containing carbon dioxide dissolved, the liquid containing water and optionally alcohol as a solvent, and, when a mixed solvent of water and alcohol is used, the content of water is 50% by weight or more, and wherein when a solubility of carbon dioxide in water is expressed in a molar fraction of carbon dioxide in a solution, the polyvinyl alcohol and the carbonyl compound are reacted under a reaction temperature and a pressure in a reactor such that the molar fraction becomes 1×10 -4 to 300×10 -4.
A medical data processing method, performed by a computer, for determining the alignment between a patient and a three-dimensional dataset which represents at least a part of a contour of the patient's body, wherein the contour is the shape of the surface of the patient's body, comprising the steps of: - acquiring the three-dimensional dataset; - acquiring at least two two-dimensional image datasets, wherein each two-dimensional image dataset represents a two-dimensional thermographic image of at least a part of the surface which comprises a plurality of points and wherein the two-dimensional images are taken from different and known viewing directions; - determining, for each point in the plurality of points, the pixels in the two-dimensional image datasets which capture the thermal radiation emitted from said point on the surface of the body using a descriptor which describes the thermal signature of the point and the area surrounding the point, wherein the descriptor is calculated from the properties of the pixel which represents the point in a two-dimensional image dataset and of pixels in the vicinity of this pixel; - calculating, for each point in the plurality of points, the spatial location of the point from the locations of the corresponding determined pixels in the two-dimensional image datasets and the viewing directions of the two-dimensional images; and - calculating alignment information which represents a virtual relative position between the three-dimensional dataset and the locations of the plurality of points, such that the measured locations of the plurality of points lie on the contour of the body as represented by the three-dimensional dataset. - acquiring the three-dimensional dataset; - acquiring at least two two-dimensional image datasets, wherein each two-dimensional image dataset represents a two-dimensional thermographic image of at least a part of the surface which comprises a plurality of points and wherein the two-dimensional images are taken from different and known viewing directions; - determining, for each point in the plurality of points, the pixels in the two-dimensional image datasets which capture the thermal radiation emitted from said point on the surface of the body using a descriptor which describes the thermal signature of the point and the area surrounding the point, wherein the descriptor is calculated from the properties of the pixel which represents the point in a two-dimensional image dataset and of pixels in the vicinity of this pixel; - calculating, for each point in the plurality of points, the spatial location of the point from the locations of the corresponding determined pixels in the two-dimensional image datasets and the viewing directions of the two-dimensional images; and - calculating alignment information which represents a virtual relative position between the three-dimensional dataset and the locations of the plurality of points, such that the measured locations of the plurality of points lie on the contour of the body as represented by the three-dimensional dataset.
A system for identifying Mura in a display, the system comprising: a memory; and a processor configured to execute instructions stored on the memory that, when executed by the processor, cause the processor to: pre-process an input image of the display showing a test image, wherein the pre-processing an input image comprises generating a plurality of image patches (416, 424, 434); extract a feature vector for each of the plurality of image patches, wherein the feature vector comprises at least one image moment feature and at least one texture feature; and classify each image patch based on a presence of a defect by providing the feature vector for each image patch to a machine learning classifier; wherein the generating a plurality of image patches comprises: identifying at least one local maxima candidate in the input image; adding each identified local maxima candidate to a candidate list; and generating an image patch for each local maxima candidate in the candidate list, wherein each image patch is centered at the corresponding local maxima candidate. a memory; and a processor configured to execute instructions stored on the memory that, when executed by the processor, cause the processor to: pre-process an input image of the display showing a test image, wherein the pre-processing an input image comprises generating a plurality of image patches (416, 424, 434); extract a feature vector for each of the plurality of image patches, wherein the feature vector comprises at least one image moment feature and at least one texture feature; and classify each image patch based on a presence of a defect by providing the feature vector for each image patch to a machine learning classifier; pre-process an input image of the display showing a test image, wherein the pre-processing an input image comprises generating a plurality of image patches (416, 424, 434); extract a feature vector for each of the plurality of image patches, wherein the feature vector comprises at least one image moment feature and at least one texture feature; and classify each image patch based on a presence of a defect by providing the feature vector for each image patch to a machine learning classifier; wherein the generating a plurality of image patches comprises: identifying at least one local maxima candidate in the input image; adding each identified local maxima candidate to a candidate list; and generating an image patch for each local maxima candidate in the candidate list, wherein each image patch is centered at the corresponding local maxima candidate. identifying at least one local maxima candidate in the input image; adding each identified local maxima candidate to a candidate list; and generating an image patch for each local maxima candidate in the candidate list, wherein each image patch is centered at the corresponding local maxima candidate.
A composition for a soft capsule shell comprising: a base containing a mixture of starch and carrageenan as a main component; a plasticizer containing sorbitol, maltitol and glycerin as main components; and water; wherein: the plasticizer contains 1 to 15 parts by mass of sorbitol, 1 to 30 parts by mass of maltitol and 30 to 60 parts by mass of glycerin, per 100 parts by mass of the mixture of starch and carrageenan.
A gas-containing unit comprising: a pair of reinforcement boards (110,120), wherein the reinforcement boards (110,120) are disposed parallel to each other; a tube member disposed between the reinforcement boards (110,120), wherein the tube member is configured such that gas is injected thereinto; and a support frame provided along an outer circumference of a pair of the reinforcement boards (110,120) to connect the reinforcement boards (110,120) to each other, characterized in that the pair of the reinforcement boards (110,120) has a plank-like shape when gas is not injected into the tube member, and is inflated along with the tube member when gas is injected into the tube member, thereby being transformed into a shape that bulges outwards. a pair of reinforcement boards (110,120), wherein the reinforcement boards (110,120) are disposed parallel to each other; a tube member disposed between the reinforcement boards (110,120), wherein the tube member is configured such that gas is injected thereinto; and a support frame provided along an outer circumference of a pair of the reinforcement boards (110,120) to connect the reinforcement boards (110,120) to each other, characterized in that the pair of the reinforcement boards (110,120) has a plank-like shape when gas is not injected into the tube member, and is inflated along with the tube member when gas is injected into the tube member, thereby being transformed into a shape that bulges outwards.
A compressible container for drinks made of plastic material, such as PET, suitable for a hot-filling process, having a longitudinal symmetry axis and having a first length along said longitudinal symmetry axis, which comprises: a) a cylindrical threaded neck for the passage of the drink, b) a shoulder, c) a closed bottom, d) a central body, comprised between said shoulder and said bottom, and defining a vacuum compensation area comprising four compensation panels arranged along the side walls of said central body, said compensation panels having a trapezoidal shape, each compensation panel having the bases inverted with respect to the adjacent compensation panel, characterized in that the minor base length to major base length ratio of said compensation panels is in the range between 0.20 and 0.35, and in that two recesses are symmetrically positioned on the bottom with respect to a diametrical line passing through the center of the bottom in a position corresponding to the compensation panels having the major base facing the shoulder, the width of said recesses being in the range between the length of said minor base and the length of said major base. a) a cylindrical threaded neck for the passage of the drink, b) a shoulder, c) a closed bottom, d) a central body, comprised between said shoulder and said bottom, and defining a vacuum compensation area comprising four compensation panels arranged along the side walls of said central body, said compensation panels having a trapezoidal shape, each compensation panel having the bases inverted with respect to the adjacent compensation panel,
A weighted structure having increased density per unit size comprising a metal and polymer viscoelastic composite comprising: (a) a metal particulate, the particulate having a particle size distribution wherein no more than 5 wt% of the metal particulate has a diameter less than 10 microns, at least 10wt% of the particulate has a diameter falling in the range 10 to 100 microns, at least 10wt% of the particulate has a diameter falling in the range 100 to 250 microns and at least 10wt% of the particulate has a diameter falling in the range 100 to 500 microns, the particulate being provided with an exterior coating of interfacial modifier and having a circularity of greater than 13; and (b) a polymer phase; wherein the viscoelastic composite has a tensile elongation of about at least 5%. (a) a metal particulate, the particulate having a particle size distribution wherein no more than 5 wt% of the metal particulate has a diameter less than 10 microns, at least 10wt% of the particulate has a diameter falling in the range 10 to 100 microns, at least 10wt% of the particulate has a diameter falling in the range 100 to 250 microns and at least 10wt% of the particulate has a diameter falling in the range 100 to 500 microns, the particulate being provided with an exterior coating of interfacial modifier and having a circularity of greater than 13; and (b) a polymer phase;
A refrigeration system with a refrigeration circuit and a flow rate control system, the circuit comprising a hermetic variable capacity compressor fluidly connected to a closed circuit, the hermetic variable capacity compressor having an electronic system to control the compressor, the closed circuit comprising a condenser, an evaporator, a heat exchanger, a suction line and a fluid expansion device; a flow rate control valve positioned between an outlet of the condenser and before an inlet of the fluid expansion device; the condenser being connected from the outlet of the hermetic variable capacity compressor in series with the expansion device, with the heat exchanger and with the evaporator, the suction line being connected to the outlet of the evaporator which passes through the heat exchanger to the inlet of the hermetic variable capacity compressor; the fluid expansion device having a nominal expansion capacity equal to or greater than the closed circuit nominal flow rate capacity, the flow rate control system being such that the electronic system of the hermetic variable capacity compressor is configured to keep the flow rate control valve closed while the amount of fluid in the condenser is below the nominal expansion capacity, and control the flow rate control valve to always maintain the fluid passing through the fluid expansion device at the same level as the nominal expansion capacity of the fluid expansion device, the flow rate control valve being pulsated proportionally to the capacity of the hermetic variable capacity compressor so that the fluid is dammed in the condenser and released when it has reached an amount substantially equal to the nominal expansion capacity.
Insert (1; 11) for a cylinder of an internal combustion engine for removing contaminants in the region of a firing land of a piston which can be guided in the cylinder when passing through a top dead centre position of the piston, having at least one first annular element (2; 2A, 2B) which can be attached fixedly in a radial cut-out of the cylinder, and at least one second annular element (3; 13) which is inserted into a radial groove (9; 19) of the first annular element (2; 2A, 2B), which radial groove (9; 19) is configured in the first annular element (2; 2A, 2B), the second annular element (3; 13) being radially movable and axially substantially immovable in the groove relative to the first annular element (2; 2A; 2B).
An air conditioner, AC, comprising: a housing; a heat exchanger arranged inside the housing for exchanging heat with air flowing from the outside; a frame arranged for partitioning the inside of the housing; and a discharging plate arranged to have a plurality of discharging holes to discharge the heat exchanged air and to form a space with the frame, wherein the discharging plate comprises a plate flange arranged to bend along at least a portion of the circumference of the discharging plate and to form a gap from one side of the housing, wherein the discharging plate is arranged to form the gap between an inner side of the housing and an outer side of the plate flange, and characterised by a separation member located between the plate flange and the housing, such that the plate flange is separated from one side of the housing. a housing; a heat exchanger arranged inside the housing for exchanging heat with air flowing from the outside; a frame arranged for partitioning the inside of the housing; and a discharging plate arranged to have a plurality of discharging holes to discharge the heat exchanged air and to form a space with the frame, wherein the discharging plate comprises a plate flange arranged to bend along at least a portion of the circumference of the discharging plate and to form a gap from one side of the housing, wherein the discharging plate is arranged to form the gap between an inner side of the housing and an outer side of the plate flange, and characterised by a separation member located between the plate flange and the housing, such that the plate flange is separated from one side of the housing.
A method of playing different digital media information encoded in different media formats, the method characterized by: receiving first digital media information at a digital media player having a first operating system being in a first idle state in memory of the digital media player and having a second operating system being in an active state in memory of the digital media player, the first digital media information being encoded according to a first media format; waking (245, 265) the first operating system from the first idle state, wherein the first operating system supports media playback for the first media format, and wherein the second operating system supports media playback for a second media format different than the first media format; persisting a state of at least one of plural hardware components of the digital media player; transferring control of the plural hardware components of the digital media player from the second operating system to the first operating system; and playing the first digital media information using a first application running in an operating environment provided by the first operating system. receiving first digital media information at a digital media player having a first operating system being in a first idle state in memory of the digital media player and having a second operating system being in an active state in memory of the digital media player, the first digital media information being encoded according to a first media format; waking (245, 265) the first operating system from the first idle state, wherein the first operating system supports media playback for the first media format, and wherein the second operating system supports media playback for a second media format different than the first media format; persisting a state of at least one of plural hardware components of the digital media player; transferring control of the plural hardware components of the digital media player from the second operating system to the first operating system; and playing the first digital media information using a first application running in an operating environment provided by the first operating system.
Method for checking positioning accuracy of a CNC machine, in particular, of a gantry machine, with a machine tool head and a machine table, using an x, y, z coordinate system, wherein the z coordinate is the coordinate perpendicular to the machine table surface, the method comprising the steps: a) arranging a plurality of vessels on the machine table, wherein the vessels are in fluid connection with each other to form a system of communicating vessels, wherein the system of communicating vessels is filled with a liquid, b) mounting a distance sensor to the machine tool head, c) positioning the machine tool head to a position perpendicular above the surface of the liquid in one of the vessels, d) approaching the surface of the liquid with the distance sensor and determining the z coordinate for which the distance sensor touches the surface of the liquid, or, for a predetermined z coordinate of the machine tool head, determining the distance between the distance sensor and the surface of the liquid; wherein steps c) and d) are repeated for each vessel to determine a respective z coordinate of the surface of the liquid. a) arranging a plurality of vessels on the machine table, wherein the vessels are in fluid connection with each other to form a system of communicating vessels, wherein the system of communicating vessels is filled with a liquid, b) mounting a distance sensor to the machine tool head, c) positioning the machine tool head to a position perpendicular above the surface of the liquid in one of the vessels, d) approaching the surface of the liquid with the distance sensor and determining the z coordinate for which the distance sensor touches the surface of the liquid, or, for a predetermined z coordinate of the machine tool head, determining the distance between the distance sensor and the surface of the liquid;
A manipulator system for coordinated control of at least two manipulators (101, 102), comprising: a main computer configured to execute a sequence controller, at least two multi-axis manipulators (101, 102), wherein each manipulator is associated with a manipulator controller (101s, 102s), which manipulator controllers (101s, 102s) are spatially separated from the main computer, each being configured in its own housing (150, 151), and wherein each manipulator (101, 102) comprises converters (103a, 103b, 103c, 104a, 104b, 104c) for controlling the actuators of the axes of the respective manipulator (101, 102), wherein the inverter (103a, 103b, 103c, 104a, 104b, 104c) associated with an actuator is arranged in the vicinity of the actuator, in such a way that the inverter (103a, 103b, 103c, 104a, 104b, 104c) can be moved along with a movement of the manipulator (101, 102), characterized in that each manipulator is associated with at least one axis controller (105, 106), and wherein the at least one axis controller (105, 106) is arranged on the respective manipulator (101, 102) in such a way that the at least one axis controller (105, 106) can be moved along with a movement of the manipulator (101, 102). a main computer configured to execute a sequence controller, at least two multi-axis manipulators (101, 102), wherein each manipulator is associated with a manipulator controller (101s, 102s), which manipulator controllers (101s, 102s) are spatially separated from the main computer, each being configured in its own housing (150, 151), and wherein each manipulator (101, 102) comprises converters (103a, 103b, 103c, 104a, 104b, 104c) for controlling the actuators of the axes of the respective manipulator (101, 102), wherein the inverter (103a, 103b, 103c, 104a, 104b, 104c) associated with an actuator is arranged in the vicinity of the actuator, in such a way that the inverter (103a, 103b, 103c, 104a, 104b, 104c) can be moved along with a movement of the manipulator (101, 102), characterized in that each manipulator is associated with at least one axis controller (105, 106), and wherein the at least one axis controller (105, 106) is arranged on the respective manipulator (101, 102) in such a way that the at least one axis controller (105, 106) can be moved along with a movement of the manipulator (101, 102).