mhurhangee/patent-ind-claim-en huggingface dataset:
Base module for a switch cabinet system, wherein the base module has a housing with a first housing side and further housing sides , wherein the first housing side has a grid of openings , wherein the housing has connection elements for functional modules , wherein the connection elements are each arranged in the region of the openings of the first housing side , wherein the connection elements comprise data connections , extra-low-voltage connections and low-voltage connections , wherein the data connections are connected to one another by means of a data line of the base module , wherein a field-bus connection for the data line can be provided, wherein the data line is arranged inside the housing , wherein an extra-low-voltage line and a low-voltage line are arranged inside the housing , wherein the extra-low-voltage line is connected to the extra-low-voltage connections , and the low-voltage line is connected to the low-voltage connections , wherein an extra-low-voltage of up to 50 V AC and/or 120 V DC can be provided via the extra-low-voltage line and the extra-low-voltage connections , and a low-voltage above the extra-low-voltage and up to 1000 V AC and/or 1500 V DC can be provided via the low-voltage line and the low-voltage connections , characterized in that the housing has two channels , wherein the data connections and the extra-low-voltage connections are arranged in a first channel , and the low-voltage connections are arranged in a second channel , wherein a first partition is arranged between the first channel and the second channel .
An outer packing material for vacuum insulation material comprising a gas barrier film including a metal aluminum film, and an adhesive layer disposed directly on the metal aluminum film; wherein the adhesive layer includes an adhesive agent component and a silicon-containing compound in which at least one of a hydrolysable group and a hydroxyl group directly bonds to a silicon atom; and the atomic ratio of the silicon atom in the adhesive layer is 1.5 at% or more and 7.0 at% or less. the adhesive layer includes an adhesive agent component and a silicon-containing compound in which at least one of a hydrolysable group and a hydroxyl group directly bonds to a silicon atom; and the atomic ratio of the silicon atom in the adhesive layer is 1.5 at% or more and 7.0 at% or less.
An apparatus for energy expenditure estimation, the apparatus comprising: - a heart rate sensor for producing a heart rate value indicative of a heart rate of an individual, - a processing system communicatively connected to the heart rate sensor, and - a heat-flux sensor for producing a heat-flux value indicative of a heat-flux (q) flowing through a measurement area on a skin of the individual, wherein the processing system is communicatively connected to the heat-flux sensor and configured to produce an estimate of the energy expenditure based on the heart rate value and the heat-flux value, characterized in that the processing system is configured to increase a relative weight of the heart rate value on the estimate of the energy expenditure with respect to a relative weight of the heat-flux value on the estimate of the energy expenditure in response to an increase of the heart rate. - a heart rate sensor for producing a heart rate value indicative of a heart rate of an individual, - a processing system communicatively connected to the heart rate sensor, and - a heat-flux sensor for producing a heat-flux value indicative of a heat-flux (q) flowing through a measurement area on a skin of the individual,
Method for producing a swaging on a rope, particularly a wire rope, the method comprising the steps of: • providing a compression sleeve having at least one rope insertion hole (1.1) for individually inserting the at least one rope individually in one or more insertion hole(s); • inserting the at least one rope , particularly a wire rope, in the rope insertion hole (1.1); • compressing the compression sleeve ; and • post-processing the compressed compression sleeve to provide the swaging, wherein the post-processing step comprises forming at least one hole (1.2) in the compressed compression sleeve at a site where the rope was previously disposed, characterized in that the diameter of the at least one hole (1.2) is equal to or larger than the diameter of the rope . • providing a compression sleeve having at least one rope insertion hole (1.1) for individually inserting the at least one rope individually in one or more insertion hole(s); • inserting the at least one rope , particularly a wire rope, in the rope insertion hole (1.1); • compressing the compression sleeve ; and • post-processing the compressed compression sleeve to provide the swaging, wherein the post-processing step comprises forming at least one hole (1.2) in the compressed compression sleeve at a site where the rope was previously disposed, characterized in that the diameter of the at least one hole (1.2) is equal to or larger than the diameter of the rope .
A computer method of displaying a subject environment comprising: digitally generating a set of one or more images that form a first view depicting a subject environment in a user-desired state instead of in a current state, such that the first view is a diminished reality of the subject environment; and enabling computer-based user interaction with the set of images forming the first view in a manner that generates a second view, the second view being an augmented reality representation of the subject environment; wherein digitally generating a set of images that form a first view includes: receiving in a processor one or more 2D source images displaying the subject environment in the current state; determining line segments in the one or more 2D source images that define borders of the subject environment, including identifying visible line segments by the user, characterized by completing automatically the user-identified lines; and from the determined line segments, digitally forming, by employing 3D modeling from images technology, a 3D model of the diminished reality of the subject environment, each region of the 3D model being painted in its totality using colors and textures corresponding to unencumbered user-identified areas of the one or more sources images; wherein enabling computer-based user interaction includes providing a user interface to an augmented reality subsystem, the augmented reality subsystem enabling the user to superimpose virtual image elements on 3D model images in an emptied or partly emptied stage of the subject environment, thereby generating the second view, each virtual element representing a respective user-added, swapped or changed real-world object. digitally generating a set of one or more images that form a first view depicting a subject environment in a user-desired state instead of in a current state, such that the first view is a diminished reality of the subject environment; and enabling computer-based user interaction with the set of images forming the first view in a manner that generates a second view, the second view being an augmented reality representation of the subject environment; receiving in a processor one or more 2D source images displaying the subject environment in the current state; determining line segments in the one or more 2D source images that define borders of the subject environment, including identifying visible line segments by the user, characterized by completing automatically the user-identified lines; and from the determined line segments, digitally forming, by employing 3D modeling from images technology, a 3D model of the diminished reality of the subject environment, each region of the 3D model being painted in its totality using colors and textures corresponding to unencumbered user-identified areas of the one or more sources images;
A display device comprising: a first substrate comprising a display area (DPA) and a pad area (PDA); a wire pad (WPD) on the first substrate in the pad area (PDA); first banks (BNL1) on the first substrate in the display area (DPA) and spaced apart from each other; electrodes on the first banks (BNL1) and spaced apart from each other; a pad electrode base layer (PAD_R) directly on the wire pad (WPD), having a greater width than the wire pad (WPD), and covering sides of the wire pad (WPD); a first insulating layer (PAS1) covering parts of the electrodes and part of the pad electrode base layer (PAD_R); light-emitting elements on the first insulating layer (PAS1) in the display area (DPA), respective ends of one of the light-emitting elements being on different ones of the electrodes ; contact electrodes (CNE1, CNE2) on the electrodes and contacting first ends of the light-emitting elements ; and a pad electrode upper layer (PAD_C) on the first insulating layer (PAS1) in the pad area (PDA) and directly contacting the pad electrode base layer (PAD_R), wherein the pad electrode base layer (PAD_R) comprises the same material as the electrodes , and wherein the pad electrode upper layer (PAD_C) comprises the same material as the contact electrodes (CNE1, CNE2). a first substrate comprising a display area (DPA) and a pad area (PDA); a wire pad (WPD) on the first substrate in the pad area (PDA); first banks (BNL1) on the first substrate in the display area (DPA) and spaced apart from each other; electrodes on the first banks (BNL1) and spaced apart from each other; a pad electrode base layer (PAD_R) directly on the wire pad (WPD), having a greater width than the wire pad (WPD), and covering sides of the wire pad (WPD); a first insulating layer (PAS1) covering parts of the electrodes and part of the pad electrode base layer (PAD_R); light-emitting elements on the first insulating layer (PAS1) in the display area (DPA), respective ends of one of the light-emitting elements being on different ones of the electrodes ; contact electrodes (CNE1, CNE2) on the electrodes and contacting first ends of the light-emitting elements ; and a pad electrode upper layer (PAD_C) on the first insulating layer (PAS1) in the pad area (PDA) and directly contacting the pad electrode base layer (PAD_R), wherein the pad electrode base layer (PAD_R) comprises the same material as the electrodes , and wherein the pad electrode upper layer (PAD_C) comprises the same material as the contact electrodes (CNE1, CNE2).
An isolated antibody that specifically binds an epitope within a complement component C1s protein, wherein the antibody comprises: a CDR-L1 having the amino acid sequence of SEQ ID NO: 32, a CDR-L2 having the amino acid sequence of SEQ ID NO:33, a CDR-L3 having the amino acid sequence of SEQ ID NO:3, a CDR-H1 having the amino acid sequence of SEQ ID NO:34, a CDR-H2 having the amino acid sequence of SEQ ID NO:35, and a CDR-H3 having the amino acid sequence of SEQ ID NO:36, and wherein the antibody binds complement C1s protein with a dissociation constant (K D ) of no more than 0.5 nM. a CDR-L1 having the amino acid sequence of SEQ ID NO: 32, a CDR-L2 having the amino acid sequence of SEQ ID NO:33, a CDR-L3 having the amino acid sequence of SEQ ID NO:3, a CDR-H1 having the amino acid sequence of SEQ ID NO:34, a CDR-H2 having the amino acid sequence of SEQ ID NO:35, and a CDR-H3 having the amino acid sequence of SEQ ID NO:36, and wherein the antibody binds complement C1s protein with a dissociation constant (K D ) of no more than 0.5 nM.
Lubricant-conducting apparatus ; the lubricant-conducting apparatus having a first element ; the first element having a first side piece which configures a first sealing lip ; the first element having a second side piece which configures a second sealing lip ; the first element having an intermediate piece which is provided with at least one hole ; the first side piece merging along a first sectional face into the intermediate piece ; the second side piece merging along a second sectional face into the intermediate piece ; the first side piece , the second side piece and the intermediate piece forming a first cavity with a first opening which is different from the hole ; the first element having a third side piece which configures a third sealing lip ; the first element having a fourth side piece which configures a fourth sealing lip ; the third side piece merging along a third sectional face into the intermediate piece ; the fourth side piece merging along a fourth sectional face into the intermediate piece ; the third side piece , the fourth side piece and the intermediate piece forming a second cavity with a second opening which is different from the hole ; and the hole connecting the first cavity and the second cavity to one another in a lubricant-conducting manner; characterized by a second element with a first groove ; and by a third element with a second groove ; at least one lubricant-conducting connection which leads through the second element opening into the first groove ; at least one lubricant-conducting connection which leads through the third element opening into the second groove ; the first side piece and the second side piece engaging into the first groove in such a way that the first sealing lip bears against the first groove along a first contact face, and the second sealing lip bears against the first groove along a second contact face; the third side piece and the fourth side piece engaging into the second groove in such a way that the third sealing lip bears against the second groove along a third contact face, and the fourth sealing lip bears against the second groove along a fourth contact face; the first side piece , the second side piece , the third side piece , the fourth side piece , the first sealing lip , the second sealing lip , the third sealing lip , the fourth sealing lip , the intermediate piece , the first sectional face, the second sectional face, the third sectional face, the fourth sectional face, the first cavity , the second cavity , the first opening , the second opening , the first groove , the second groove , the first contact face, the second contact face, the third contact face and the fourth contact face running in a rotationally symmetrical manner about a common axis of symmetry; it being possible for the second element to be attached to a first transmission part ; and it being possible for the third element to be attached to a second transmission part .
Filter device with a filter housing comprising at least two ports , such as an inlet for unfiltered medium and an outlet for filtrate, and receiving a replaceable filter element , wherein a fluid-conveying connection present in an open position between the inlet and outlet is blocked in a closed position by means of a shut-off device and wherein the shut-off device can be moved into these individual positions by means of an actuating device , characterised in that the shut-off device comprises a partition wall positioned obliquely with respect to the longitudinal orientation of the filter housing , the top side of said partition wall opening, in the open position, into one port and the bottom side of said partition wall opening into the other port in each case; and the partition wall , when moved into the closed position by means of the actuating device , blocks at least the inlet by means of at least one shut-off element . the shut-off device comprises a partition wall positioned obliquely with respect to the longitudinal orientation of the filter housing , the top side of said partition wall opening, in the open position, into one port and the bottom side of said partition wall opening into the other port in each case; and the partition wall , when moved into the closed position by means of the actuating device , blocks at least the inlet by means of at least one shut-off element .
A method for differentiating induced pluripotent stem cells (iPSCs) into chondrocytes and integrating them into a matrix/scaffold to provide a cartilage implant, said method comprising the steps of: - seeding a surface of a substrate with iPSCs, wherein the surface is coated with nanoparticles in a particle density of at least 500 particles/μm 2 and less than 1500 particles/μm 2 , and parts of the surface in between said nanoparticles are coated with a coating agent , wherein growth differentiation factor 5 (GDF5) molecules are attached to said nanoparticles ; - adding a first differentiation medium to the seeded iPSCs; - allowing the seeded iPSCs to differentiate at least into chondrocyte progenitor cells on the surface in the presence of the first differentiation medium; and - integrating the obtained differentiated cells into a matrix/scaffold. - seeding a surface of a substrate with iPSCs, wherein the surface is coated with nanoparticles in a particle density of at least 500 particles/μm 2 and less than 1500 particles/μm 2 , and parts of the surface in between said nanoparticles are coated with a coating agent , wherein growth differentiation factor 5 (GDF5) molecules are attached to said nanoparticles ; - adding a first differentiation medium to the seeded iPSCs; - allowing the seeded iPSCs to differentiate at least into chondrocyte progenitor cells on the surface in the presence of the first differentiation medium; and - integrating the obtained differentiated cells into a matrix/scaffold.
Kitchen appliance comprising a stirring unit and a pot , wherein an insert pot is provided, which can be inserted in the pot such that an interspace remains between the pot and the insert pot , wherein the stirring unit has a tool for blending and/or chopping that is located in the interspace when the insert pot is inserted, wherein a scraper is provided, the kitchen appliance being arranged such that the scraper can be moved relative to the insert pot , characterized in that the relative movement between the scraper and the insert pot is carried out by means of the stirring unit .
A method for estimating an orientation of a first motor vehicle in a road motor vehicle convoy relative to a second vehicle in the convoy, the first vehicle and the second vehicle following each other within the convoy, the method being characterised in that it comprises steps consisting of: - with a measuring device , acquire the relative position of at least two test patterns (C1, C2, C3) placed on the first vehicle of the convoy, the relative position comprising the distance (d1, d2, d3) and the angular position (α 1 , α 2 , α 3 ) of said sight with respect to the measuring device, the measuring device being associated with the second vehicle of the convoy; - a processing unit calculates the orientation (θ) of the first vehicle on the basis of the measured relative position data and prior knowledge of the relative position of the test patterns on the first vehicle. - with a measuring device , acquire the relative position of at least two test patterns (C1, C2, C3) placed on the first vehicle of the convoy, the relative position comprising the distance (d1, d2, d3) and the angular position (α 1 , α 2 , α 3 ) of said sight with respect to the measuring device, the measuring device being associated with the second vehicle of the convoy; - a processing unit calculates the orientation (θ) of the first vehicle on the basis of the measured relative position data and prior knowledge of the relative position of the test patterns on the first vehicle.
A computer-implemented method of determining a layer thickness of an object comprising: obtaining an interference signal from the object from an interferometric imaging system; and via a processor: computing an envelope of the interference signal; iteratively applying a harmonic frequency modulation to the envelope a predetermined number of times, thereby generating a time domain modulated signal; performing a Fourier transform of the modulated signal, thereby generating a frequency domain modulated signal; and identifying a frequency of the frequency domain modulated signal having a greatest intensity, and then converting the identified frequency to a depth, the depth corresponding to the thickness of the object, or converting the frequency domain modulated signal to a depth profile, and then identifying a depth of the depth profile having a greatest intensity, the depth having the greatest intensity corresponding to the thickness of the object. obtaining an interference signal from the object from an interferometric imaging system; and via a processor: computing an envelope of the interference signal; iteratively applying a harmonic frequency modulation to the envelope a predetermined number of times, thereby generating a time domain modulated signal; performing a Fourier transform of the modulated signal, thereby generating a frequency domain modulated signal; and identifying a frequency of the frequency domain modulated signal having a greatest intensity, and then converting the identified frequency to a depth, the depth corresponding to the thickness of the object, or converting the frequency domain modulated signal to a depth profile, and then identifying a depth of the depth profile having a greatest intensity, the depth having the greatest intensity corresponding to the thickness of the object.
Method for manufacturing an elastomer composite, characterized in that the method comprises the following steps of: - winding a plurality of metal monofilaments with a substantially circular cross section and a diameter Df ranging from 0.05 mm to 6 mm onto a plurality of storage reels , each reel having an axis of revolution and comprising a hub that defines a cylindrical gauge with a radius of curvature Rm in the axial plane that is substantially axially constant, said radius of curvature Rm being greater than 59 mm, each metal monofilament being wound around the hub of each storage reel, - storing the plurality of reels, each reel comprising a winding of one of the metal monofilaments , - unwinding the plurality of metal monofilaments from the plurality of reels, - disposing the plurality of metal monofilaments parallel to one another, - embedding the plurality of metal monofilaments in an elastomer matrix so as to form the elastomer composite. - winding a plurality of metal monofilaments with a substantially circular cross section and a diameter Df ranging from 0.05 mm to 6 mm onto a plurality of storage reels , each reel having an axis of revolution and comprising a hub that defines a cylindrical gauge with a radius of curvature Rm in the axial plane that is substantially axially constant, said radius of curvature Rm being greater than 59 mm, each metal monofilament being wound around the hub of each storage reel, - storing the plurality of reels, each reel comprising a winding of one of the metal monofilaments , - unwinding the plurality of metal monofilaments from the plurality of reels, - disposing the plurality of metal monofilaments parallel to one another, - embedding the plurality of metal monofilaments in an elastomer matrix so as to form the elastomer composite.
A bio-electrode composition comprising: (A) an ionic material; and (B) a lithium titanate powder, wherein the component (A) is a polymer compound comprising a repeating unit-a having at least one of structures shown by the following general formulae -1 to -4, wherein Rf 1 and Rf 2 each represent a hydrogen atom, a fluorine atom, an oxygen atom, a methyl group, or a trifluoromethyl group, provided that when Rf 1 represents an oxygen atom, Rf 2 also represents the oxygen atom to form a carbonyl group together with a carbon atom bonded therewith; Rf 3 and Rf 4 each represent a hydrogen atom, a fluorine atom, or a trifluoromethyl group, provided that at least one of Rf 1 to Rf 4 is a fluorine atom or a trifluoromethyl group; Rf 5 , Rf 6 , and Rf 7 each represent a fluorine atom, or a linear or branched alkyl group having 1 to 4 carbon atoms and at least one or more fluorine atoms; "m" represents an integer of 1 to 4; and M + represents an ion selected from an ammonium ion, a sodium ion, a potassium ion, and a silver ion. (A) an ionic material; and (B) a lithium titanate powder,