mhurhangee/patent-ind-claim-en huggingface dataset:
Deformation device with a machine frame on which a pair of tools is arranged, wherein at least one of the tools is arranged on the machine frame so as to be relatively movable along a movement path and wherein end surfaces of the tools arranged opposite each other form a size-variable working gap and wherein a first optical safety device is assigned to one of the tools , in particular to the movable tool , to secure the working gap , wherein said first optical safety device comprises a first beam source to provide a first beam bundle parallel to the end surfaces of the tools and a first light receiver to receive the first beam bundle, wherein a second optical safety device is assigned to one of the tools , in particular to the movable tool , wherein said second safety device comprises a second beam source to provide a second beam bundle and a second light receiver to receive the second beam bundle to secure a side surface of the tool aligned normal to the movement path and bordering on the end surface , characterised in that the second optical safety device is arranged on the machine frame or on the movable tool together with the first optical safety device and in that the optical safety devices are adjustable together along the movement path , wherein the second optical safety device is designed for securing a front side of the tool facing the user, in particular the movable tool and in that the second beam source is designed to provide beams at least in a safety area having a box-shaped extension whose largest surface is arranged at a predefinable distance to the front side of the tool and in that the second beam source and the second light receiver are arranged at opposing narrows sides of the safety area .
An electric fan , comprising: a cover having an open side; an impeller disposed in the cover ; a diffuser comprising a diffuser body and a plurality of vanes , the diffuser body being located at a side of the impeller adjacent to the cover , the plurality of vanes being disposed at an end of the diffuser body adjacent to the impeller and spaced apart from one another along an outer circumference of the impeller , wherein an outlet angle (β) of each vane is in the range 45° to 90°, wherein the outlet angle (β) of a respective vane is the included angle between a tangent to a mean camber line of the respective vane at the outlet along an airflow direction and a circumferential direction; and a refluxer disposed at an end of the diffuser body away from the impeller ; and characterized in that two adjacent vanes define a diffuser flow passage therebetween having a cross-sectional area that linearly increases in a direction from the inlet of the diffuser flow passage to the outlet of the diffuser flow passage , and in that the diffuser flow passage comprises a first flow passage and a second flow passage sequentially connected in the direction from the inlet of the diffuser flow passage to the outlet of the diffuser flow passage , a cross-sectional area of the first flow passage linearly increases, and an increase rate of a cross-sectional area of the second flow passage is less than an increase rate of the cross-sectional area of the first flow passage. a cover having an open side; an impeller disposed in the cover ; a diffuser comprising a diffuser body and a plurality of vanes , the diffuser body being located at a side of the impeller adjacent to the cover , the plurality of vanes being disposed at an end of the diffuser body adjacent to the impeller and spaced apart from one another along an outer circumference of the impeller , wherein an outlet angle (β) of each vane is in the range 45° to 90°, wherein the outlet angle (β) of a respective vane is the included angle between a tangent to a mean camber line of the respective vane at the outlet along an airflow direction and a circumferential direction; and a refluxer disposed at an end of the diffuser body away from the impeller ; and characterized in that two adjacent vanes define a diffuser flow passage therebetween having a cross-sectional area that linearly increases in a direction from the inlet of the diffuser flow passage to the outlet of the diffuser flow passage , and in that the diffuser flow passage comprises a first flow passage and a second flow passage sequentially connected in the direction from the inlet of the diffuser flow passage to the outlet of the diffuser flow passage , a cross-sectional area of the first flow passage linearly increases, and an increase rate of a cross-sectional area of the second flow passage is less than an increase rate of the cross-sectional area of the first flow passage.
A bird's-eye view video generation device comprising: a video data acquisition unit configured to acquire video data from a plurality of cameras configured to capture videos of surroundings of a vehicle; a bird's-eye view video generator configured to generate a bird's-eye view video from a virtual viewpoint (P) above the vehicle by performing viewpoint conversion processing on the video data acquired by the video data acquisition unit to synthesize the viewpoint-converted videos ; an obstacle information acquisition unit configured to acquire information from at least one detector configured to detect at least one obstacle (Q, Q1, Q2) around the vehicle and to specify a position of the detected obstacle (Q, Q1, Q2) on the bird's-eye view video ; and a display controller configured to display the bird's-eye view video in a display , characterized in that , when the position of the obstacle (Q, Q1, Q2) that is specified by the obstacle information acquisition unit overlaps a synthesis boundary (B, B1, B2, B3, B4) between the videos in the bird's-eye view video , the bird's-eye view video generator is further configured to generate a bird's-eye view video obtained by changing the position (P) of the virtual viewpoint of the bird's-eye view video to a position (PA, PB, PC) from which the obstacle (Q, Q1, Q2) does not overlap the synthesis boundary (B1A, B2A, B3A, B4A; B1B B2B, B3B, B4B; B1C, B2C, B3C, B4C) in the bird's-eye view video . a video data acquisition unit configured to acquire video data from a plurality of cameras configured to capture videos of surroundings of a vehicle; a bird's-eye view video generator configured to generate a bird's-eye view video from a virtual viewpoint (P) above the vehicle by performing viewpoint conversion processing on the video data acquired by the video data acquisition unit to synthesize the viewpoint-converted videos ; an obstacle information acquisition unit configured to acquire information from at least one detector configured to detect at least one obstacle (Q, Q1, Q2) around the vehicle and to specify a position of the detected obstacle (Q, Q1, Q2) on the bird's-eye view video ; and a display controller configured to display the bird's-eye view video in a display , characterized in that , when the position of the obstacle (Q, Q1, Q2) that is specified by the obstacle information acquisition unit overlaps a synthesis boundary (B, B1, B2, B3, B4) between the videos in the bird's-eye view video , the bird's-eye view video generator is further configured to generate a bird's-eye view video obtained by changing the position (P) of the virtual viewpoint of the bird's-eye view video to a position (PA, PB, PC) from which the obstacle (Q, Q1, Q2) does not overlap the synthesis boundary (B1A, B2A, B3A, B4A; B1B B2B, B3B, B4B; B1C, B2C, B3C, B4C) in the bird's-eye view video .
A magnetic phase-transformation material, characterized in that the magnetic phase-transformation material is represented by the formula: Ni a-m Mn b-n Co m+n Ti c , wherein a + b + c = 100, 20 < a ≤ 90, 5 ≤ b < 50, 5 ≤ c ≤ 30, 0 ≤ m ≤ a, 0 ≤ n ≤ b, 0 < m + n < a + b, and wherein, any one or combination of a, b, c, m, n represent an atomic percentage content.
A screen element for use in a screen assembly , comprising: parallel screen element end portions ; parallel screen element side portions perpendicular to the screen element end portions ; and a screen element screening surface having elongated screen surface elements running parallel to the screen element end portions and forming a series of screening openings which are elongated slots, wherein the screening openings have a distance of between 43 μm and 2000 μm between inner surfaces of the screen surface elements , wherein the screen surface elements have a thickness of between 43 μm and 100 μm and wherein the screen element is an injection molded piece. parallel screen element end portions ; parallel screen element side portions perpendicular to the screen element end portions ; and a screen element screening surface having elongated screen surface elements running parallel to the screen element end portions and forming a series of screening openings which are elongated slots, wherein the screening openings have a distance of between 43 μm and 2000 μm between inner surfaces of the screen surface elements , wherein the screen surface elements have a thickness of between 43 μm and 100 μm and wherein the screen element is an injection molded piece.
An electrically conductive composite material comprising carbon nanotubes and graphene nanoplatelets within a polymer matrix, wherein the carbon nanotubes have an average length greater than 10 μm; and wherein the graphene nanoplatelets form in the range of 0.005 wt.% to 0.06 wt.% of the composite material.
A method for the fermentative production of a saccharide comprising at least one N-acetylneuraminic acid moiety, the method comprising the steps of a) providing at least one genetically engineered microbial cell which comprises (i) a sialic acid biosynthesis pathway comprising a glucosamine-6-phosphate N -acetyltransferase, an N-acetylglucosamine-6-phosphate epimerase and an N-acetylmannosamine-6-phosphate phosphatase; (ii) a cytidine 5'-monophospho-(CMP)- N -acetylneuraminic acid synthetase; and (iii) a heterologous sialyltransferase; b) cultivating the at least one genetically-engineered microbial cell in a fermentation broth and under conditions permissive for the production of said saccharide comprising at least one N -acetylneuraminic acid moiety; and optionally c) recovering said saccharide comprising at least one N -acetylneuraminic acid moiety. a) providing at least one genetically engineered microbial cell which comprises (i) a sialic acid biosynthesis pathway comprising a glucosamine-6-phosphate N -acetyltransferase, an N-acetylglucosamine-6-phosphate epimerase and an N-acetylmannosamine-6-phosphate phosphatase; (ii) a cytidine 5'-monophospho-(CMP)- N -acetylneuraminic acid synthetase; and (iii) a heterologous sialyltransferase; (i) a sialic acid biosynthesis pathway comprising a glucosamine-6-phosphate N -acetyltransferase, an N-acetylglucosamine-6-phosphate epimerase and an N-acetylmannosamine-6-phosphate phosphatase; (ii) a cytidine 5'-monophospho-(CMP)- N -acetylneuraminic acid synthetase; and (iii) a heterologous sialyltransferase; b) cultivating the at least one genetically-engineered microbial cell in a fermentation broth and under conditions permissive for the production of said saccharide comprising at least one N -acetylneuraminic acid moiety; and optionally c) recovering said saccharide comprising at least one N -acetylneuraminic acid moiety.
Connection element for a blood treatment device, in particular a dialysis machine, comprising an inlet line , for admitting a fluid into the connection element , an outlet line , for removing a fluid from the connection element , at least a first discharge line , for discharging a fluid from the connection element , characterized in that the first discharge line is formed in a subsection around the inlet line , and wherein the inlet line and the first discharge line are open to a first end section of the connection element , and the first end section is fluidically connected to the subsection . an inlet line , for admitting a fluid into the connection element , an outlet line , for removing a fluid from the connection element , at least a first discharge line , for discharging a fluid from the connection element , characterized in that the first discharge line is formed in a subsection around the inlet line , and wherein the inlet line and the first discharge line are open to a first end section of the connection element , and the first end section is fluidically connected to the subsection .
A press plate for creating deep structures in panel-like products, in particular in wood-based boards or laminates made of resin-coated papers, composed of a metallic base body with strip-shaped and/or frame-like webs , characterized in that the webs are inserted in depressions provided in the base body and have a higher thermal conductivity than the base body , wherein the deep structures are created by the webs .
An extrusion method with the following steps: a) A continuously supplied copper material in the form of a wire , a powder or a granulate is heated by a friction wheel of a rotary extruder ; b) The copper material plasticised by heating is fed through an accumulation channel widening in cross-section in a baffle plate to a downstream shaping die , wherein the exit cross-section of the accumulation channel immediately before entry into the die is larger than a shaping extrusion channel in the die to form a dead zone for the pressure build-up of the plastic copper material before entry into the die ; characterised by the following step: c) The temperature of the plastic copper material in the dead zone and in the die is set to a target value of at most 550 °C by reduction of the volume of the dead zone , wherein an accumulation channel is used which widens exclusively in a funnel shape in the region of the dead zone and has an exit cross-sectional area which is 40 to 60% larger than an entry cross-sectional area of the extrusion channel in the die , wherein the accumulation channel has an accumulation funnel widening towards the die in a funnel shape, having an entry cross-sectional area at a distance (A1) from the die , wherein the distance (A1) is at most 30% larger than the smallest diameter (D1) of the extrusion channel in the entry cross-sectional area of the extrusion channel . a) A continuously supplied copper material in the form of a wire , a powder or a granulate is heated by a friction wheel of a rotary extruder ; b) The copper material plasticised by heating is fed through an accumulation channel widening in cross-section in a baffle plate to a downstream shaping die , wherein the exit cross-section of the accumulation channel immediately before entry into the die is larger than a shaping extrusion channel in the die to form a dead zone for the pressure build-up of the plastic copper material before entry into the die ; characterised by the following step: c) The temperature of the plastic copper material in the dead zone and in the die is set to a target value of at most 550 °C by reduction of the volume of the dead zone , wherein an accumulation channel is used which widens exclusively in a funnel shape in the region of the dead zone and has an exit cross-sectional area which is 40 to 60% larger than an entry cross-sectional area of the extrusion channel in the die , wherein the accumulation channel has an accumulation funnel widening towards the die in a funnel shape, having an entry cross-sectional area at a distance (A1) from the die , wherein the distance (A1) is at most 30% larger than the smallest diameter (D1) of the extrusion channel in the entry cross-sectional area of the extrusion channel .
A micromechanical resonator comprising - an oscillating element (16; 26) manufactured of a silicon wafer, said wafer having a crystal orientation and comprising an n-type doping agent and said oscillating element having a geometry and an orientation with respect to the crystal orientation of the wafer, wherein the oscillating element is a beam or a plate being essentially homogeneously doped with said n-type doping agent, and - excitation means (10, 14; 27) functionally connected to said oscillating element to excite a desired resonance mode of said oscillating element, characterized in that the orientation of the oscillating element (16; 26) in the plane of the silicon wafer deviates less than 30° from an orientation at which an oscillating element of the same geometry and manufactured of the same silicon wafer would maximize the temperature coefficient of frequency of the micromechanical resonator for the desired resonance mode. - an oscillating element (16; 26) manufactured of a silicon wafer, said wafer having a crystal orientation and comprising an n-type doping agent and said oscillating element having a geometry and an orientation with respect to the crystal orientation of the wafer, wherein the oscillating element is a beam or a plate being essentially homogeneously doped with said n-type doping agent, and - excitation means (10, 14; 27) functionally connected to said oscillating element to excite a desired resonance mode of said oscillating element,
A method for receiving simultaneous downlink transmissions at a mobile station, the method comprising: transmitting , to an access point, AP, information indicating that endings of simultaneous data transmissions to the mobile station are to be adaptively aligned based on a data unit loss threshold, wherein the simultaneous data transmissions are between the AP and the mobile station over a pair of channels; beginning reception of a first data transmission , from the AP, on a first channel of the pair of channels; beginning reception of a second data transmission , from the AP, on a second channel of the pair of channels, wherein the second data transmission overlaps at least a portion of the first data transmission; and ending reception of the second data transmission upon an end of the first data transmission when endings are aligned based on the data unit loss threshold. transmitting , to an access point, AP, information indicating that endings of simultaneous data transmissions to the mobile station are to be adaptively aligned based on a data unit loss threshold, wherein the simultaneous data transmissions are between the AP and the mobile station over a pair of channels; beginning reception of a first data transmission , from the AP, on a first channel of the pair of channels; beginning reception of a second data transmission , from the AP, on a second channel of the pair of channels, wherein the second data transmission overlaps at least a portion of the first data transmission; and ending reception of the second data transmission upon an end of the first data transmission when endings are aligned based on the data unit loss threshold.
A nanoparticle (NP), comprising a core and an ultrasound-deposited polyCOOH organic shell, wherein said core comprises a metal oxide comprising maghemite (gamma-Fe 2 O 3 ) and said shell comprises at least one ligand being bound to cerium within said shell, wherein the weight ratio of said cerium within said shell to said metal oxide within said core is at least 0.5%, wherein said ligand is selected from a Polyethylenimine (PEI) polymer, and a nucleic acid molecule.
A computer-implemented method for automatically determining an image quality assessment of a rendered medical image comprising: receiving a rendered medical image ; extracting one or more measures of interest from the rendered medical image; determining an image quality assessment of the rendered medical image using a machine learning based image quality assessment network based on the one or more measures of interest; and outputting the image quality assessment of the rendered medical image, characterized by , further comprising: receiving an input depth map of the rendered medical image; generating an estimated depth map from the rendered medical image; and comparing the input depth map with the estimated depth map, wherein determining an image quality assessment of the rendered medical image using a machine learning based image quality assessment network based on the one or more measures of interest comprises determining the image quality assessment of the rendered medical image using the machine learning based image quality assessment network based on results of the comparison. receiving a rendered medical image ; extracting one or more measures of interest from the rendered medical image; determining an image quality assessment of the rendered medical image using a machine learning based image quality assessment network based on the one or more measures of interest; and outputting the image quality assessment of the rendered medical image, characterized by , further comprising: receiving an input depth map of the rendered medical image; generating an estimated depth map from the rendered medical image; and comparing the input depth map with the estimated depth map, wherein determining an image quality assessment of the rendered medical image using a machine learning based image quality assessment network based on the one or more measures of interest comprises determining the image quality assessment of the rendered medical image using the machine learning based image quality assessment network based on results of the comparison. receiving an input depth map of the rendered medical image; generating an estimated depth map from the rendered medical image; and comparing the input depth map with the estimated depth map, wherein determining an image quality assessment of the rendered medical image using a machine learning based image quality assessment network based on the one or more measures of interest comprises determining the image quality assessment of the rendered medical image using the machine learning based image quality assessment network based on results of the comparison.
A label for a bottle, the label comprising: a background layer ; an upper layer ; a movable material layer disposed between the background layer and the upper layer , wherein the movable material layer is a flowable gel that has a viscosity between 50 cP and 5000 cP and/or wherein the thickness of the label is between 1 and 20 microns, wherein movable material of the movable material layer moves from a first location relative to the background layer to a second location relative to the background layer in response to a force applied to the first layer; wherein the movable material remains in the second location after the force is removed from the first layer, and wherein the moveable material is flowable at the second location. a background layer ; an upper layer ; a movable material layer disposed between the background layer and the upper layer , wherein the movable material layer is a flowable gel that has a viscosity between 50 cP and 5000 cP and/or wherein the thickness of the label is between 1 and 20 microns, wherein movable material of the movable material layer moves from a first location relative to the background layer to a second location relative to the background layer in response to a force applied to the first layer; wherein the movable material remains in the second location after the force is removed from the first layer, and wherein the moveable material is flowable at the second location.
Thermokinetic mixer for melt mixing plastics waste products, comprising a housing that surrounds a mixing chamber , a shaft that protrudes through the mixing chamber and can be connected to a drive unit, and comprising mixing blades that project substantially radially from the shaft , characterised in that at least one portion of the shaft that extends in the mixing chamber is polygonal and in each case at least two mixing blades are arranged diametrically on a sleeve-shaped central part which can be pushed onto the shaft , the inner surface of which central part is polygonal so as to match the shaft such that it is non-rotatably held on the shaft , with in each case one central part and at least two mixing blades being designed as one piece and the mixing blades being cuboid and being arranged in the mixing chamber in such a way that their base surfaces lie in planes aligned transversely axially to the shaft , such that the base surfaces of the mixing blades are substantially parallel to one another.