mhurhangee/patent-ind-claim-en huggingface dataset:
An energy storage device comprising: a. a first electrode; and b. a second electrode separated from the first electrode by a dielectric, wherein at least one of the first electrode and the second electrode comprises a 3D turbostratic graphene network comprising carbon nanodots interconnected through carbon-carbon bonds. a. a first electrode; and b. a second electrode separated from the first electrode by a dielectric, wherein at least one of the first electrode and the second electrode comprises a 3D turbostratic graphene network comprising carbon nanodots interconnected through carbon-carbon bonds.
A holding device for a weapon barrel having a holder , at least one first holding latch and a holding latch frame , wherein the holder may be fastened to the weapon barrel, wherein the at least one first holding latch is arranged in the holding latch frame , characterized in that the holding device has at least one first gas pressure spring and at least one second gas pressure spring , wherein the at least one first gas pressure spring and the at least one second gas pressure spring are arranged offset in the longitudinal direction of the weapon to be held by the holding device , wherein the direction of action of the at least one first gas pressure spring and the direction of action of the at least one second gas pressure spring oppose one another, wherein the at least one first gas pressure spring is arranged between the holder and the holding latch frame , wherein the at least one second gas pressure spring is arranged between the holder and the holding latch frame .
A structure for a photonic integrated circuit, comprising: a substrate ; a first portion of n-type semiconductor material on a first surface area of the substrate; a second portion of n-type semiconductor material on a second surface area of the substrate; a waveguide ; and an element between the first portion and the second portion, the waveguide on and in contact with the element, wherein the element is configured to reduce electric current flow from the first portion to the second portion during propagation of light via the waveguide. a substrate ; a first portion of n-type semiconductor material on a first surface area of the substrate; a second portion of n-type semiconductor material on a second surface area of the substrate; a waveguide ; and an element between the first portion and the second portion, the waveguide on and in contact with the element, wherein the element is configured to reduce electric current flow from the first portion to the second portion during propagation of light via the waveguide.
A hookah bowl for facilitating smoking of tobacco with an interior space defined by an inner surface and one or more walls separating the inner space into a plurality of compartments for holding organic matter to be smoked by a user; wherein the bowl is comprised of a plurality of components; wherein the plurality of components further comprises: a first, inner bowl component ; and a second, outer bowl component ; characterised in that the second, outer bowl component comprises a support ridge for a lower terminus of the first, inner bowl component and a top ridge partially covering the upper terminus of the first, inner bowl component , wherein the ridges fixedly maintain a position of the first, inner bowl component with respect to the second, outer bowl component when the components are coupled.
Rotary clothes dryer with a vertical pole , a spreading frame for receiving a washing line , and a locking device for locking the spreading frame in a closed position, wherein the spreading frame has a plurality of arms and a plurality of spreading arms for supporting the arms , wherein the arms are mounted pivotably about pivot axes in a lower collar , which is displaceable along the pole , and wherein the spreading arms are articulated in articulation axes on an upper collar , which is fixed to the pole , and on the arms , characterized in that the pivot points of the articulation axes of the spreading arms in the arms are spaced apart radially further from a vertical centre axis of the pole than the pivot points of the pivot axes in the lower collar and the pivot points of the articulation axes in the upper collar , and in that the locking device has at least one rigid engagement element fastened to the upper collar and a plurality of rigid mating elements which are fastened to a respective free end of the arms and are interlocked in the closed state of the spreading frame , and in that the spreading frame has a displacement device for vertically displacing the arms in the closed state of the spreading frame . the pivot points of the articulation axes of the spreading arms in the arms are spaced apart radially further from a vertical centre axis of the pole than the pivot points of the pivot axes in the lower collar and the pivot points of the articulation axes in the upper collar , and in that the locking device has at least one rigid engagement element fastened to the upper collar and a plurality of rigid mating elements which are fastened to a respective free end of the arms and are interlocked in the closed state of the spreading frame , and in that the spreading frame has a displacement device for vertically displacing the arms in the closed state of the spreading frame .
A luminaire, in particular a built-in luminaire, comprising a light guide panel forming a room-side direct light surface and held in a housing ; and a strip-shaped arrangement of LEDs associated with at least one end face of the light guide panel for coupling light into the light guide panel, wherein the light guide panel and the housing base each centrally have an elongated recess closed at both ends for receiving a light coupling unit ; wherein the housing base and the side walls of the housing surrounding the light guide panel are configured as reflection surfaces; and wherein the light guide panel is held areally contacting the housing base by means of a light guide frame , said light guide frame having fixing lugs which pass through the light guide panel and the housing base and which contact the rear side of the housing base .
Method for ascertaining a suitable deployment of a terrestrial optoelectronic coordinate measuring device within measurement surroundings (3, 3a-3d), wherein the coordinate measuring device is embodied for a measuring beam-based determination of object coordinates, wherein - a measurement region (M, M') is surveyed from a first deployment , - the coordinate measuring device is moved away from the first deployment for the purposes of changing the deployment, - measurement surroundings (3, 3a-3d) are automatically optically captured within the scope of changing the deployment, - at least one task region (O, O'), as a region of the measurement surroundings (3, 3a-3d) to be surveyed , is ascertained automatically on the basis of the measurement surroundings (3, 3a-3d) captured thus, - at least one visual range (V, V'), as a region of the measurement surroundings (3, 3a-3d) surveyable from a position (P1-P3) of the coordinate measuring device adopted within the scope of the movement, is ascertained automatically on the basis of the measurement surroundings (3, 3a-3d) captured thus, - the position (P1-P3) is checked for the suitability thereof for a deployment, in particular for a second and next deployment, on the basis of an automatic combined analysis of the measurement region (M, M'), the task region (O, O') and the visual range (V, V'). - a measurement region (M, M') is surveyed from a first deployment , - the coordinate measuring device is moved away from the first deployment for the purposes of changing the deployment, - measurement surroundings (3, 3a-3d) are automatically optically captured within the scope of changing the deployment, - at least one task region (O, O'), as a region of the measurement surroundings (3, 3a-3d) to be surveyed , is ascertained automatically on the basis of the measurement surroundings (3, 3a-3d) captured thus, - at least one visual range (V, V'), as a region of the measurement surroundings (3, 3a-3d) surveyable from a position (P1-P3) of the coordinate measuring device adopted within the scope of the movement, is ascertained automatically on the basis of the measurement surroundings (3, 3a-3d) captured thus, - the position (P1-P3) is checked for the suitability thereof for a deployment, in particular for a second and next deployment, on the basis of an automatic combined analysis of the measurement region (M, M'), the task region (O, O') and the visual range (V, V').
A green-roof module comprising a trough formed in a supporting frame and bounded by side walls and a bottom , wherein the trough is divided by a partition into a lower section near the base, which forms a water collection tank, and an upper section for receiving plants, wherein the partition has three wall sections , in each case an adjoining, in cross-section, unbroken side section , in each case one of two mutually opposite side walls , and a centre section having a plurality of through-openings, wherein the side sections extend from the two opposite side walls to the centre section and are inclined in the direction of the base , characterised in that planting material is placed on the partition in the upper section .
Method of in-line testing liquid filled containers comprising the steps of: • in-line conveying (L1, L2) liquid filled containers towards, into and from a testing station on a mover of a linear motor , • performing on a selected one liquid filled container of said liquid filled containers a testing step in and by said testing station , thereby • keeping said at least selected one liquid filled container in said testing station stationary with respect to a translatory movement relative to said testing station , by holding said at least selected one liquid filled container in said testing station during said testing step on the mover of the linear motor • sensing an electromagnetic radiation from said at least selected one liquid filled container by said testing station by single or multiple subsequent stand-still picturing sensitive to said electromagnetic radiation, wherein a wall of the selected one liquid filled container and the liquid being transparent to said electromagnetic radiation. • in-line conveying (L1, L2) liquid filled containers towards, into and from a testing station on a mover of a linear motor , • performing on a selected one liquid filled container of said liquid filled containers a testing step in and by said testing station , thereby • keeping said at least selected one liquid filled container in said testing station stationary with respect to a translatory movement relative to said testing station , by holding said at least selected one liquid filled container in said testing station during said testing step on the mover of the linear motor • sensing an electromagnetic radiation from said at least selected one liquid filled container by said testing station by single or multiple subsequent stand-still picturing sensitive to said electromagnetic radiation, wherein a wall of the selected one liquid filled container and the liquid being transparent to said electromagnetic radiation.
A method for the assessment of animal welfare compliance on a slaughtered animal by means of an image acquisition unit with an image acquisition range in which a section of a surface of the slaughtered animal can be optically captured and in which pixels can be captured, and wherein the image acquisition unit is capable of providing the pixel data of the pixels in a transferable form, and by means of an evaluation unit which is connected to the image acquisition unit and is capable of recording the pixel data, characterized in that a normative model of the slaughter animal is stored in the evaluation unit and the normative model represents a formation of animal-related characteristics compliant with animal welfare (animal welfare indicators), and the evaluation unit is capable of correlating the pixel data with the normative model and identifying a deviation of the pixel data from the normative model and providing it in a transferable manner as a norm deviation of the slaughter animal from the normative model, comprising the following procedural steps: a) capture of the pixels by the image acquisition unit , b) provision of the pixel data of the captured pixels in a transferable manner by the image acquisition unit , c) acquisition of the provided pixel data by the evaluation unit , d) comparison of the acquired pixel data with the normative model by the evaluation unit , e) identification of an existing deviation of the pixel data from the normative model by the evaluation unit , f) outputable provision of the determined deviation as a deviation from the norm by the evaluation unit f1) assignment of the deviation from the norm to a slaughter animal related data set. a) capture of the pixels by the image acquisition unit , b) provision of the pixel data of the captured pixels in a transferable manner by the image acquisition unit , c) acquisition of the provided pixel data by the evaluation unit , d) comparison of the acquired pixel data with the normative model by the evaluation unit , e) identification of an existing deviation of the pixel data from the normative model by the evaluation unit , f) outputable provision of the determined deviation as a deviation from the norm by the evaluation unit f1) assignment of the deviation from the norm to a slaughter animal related data set.
A method of detecting Mycoplasma pneumoniae having two or more kinds of antigens which enable detection of said Mycoplasma pneumoniae, said method comprising detecting said Mycoplasma pneumoniae by an immunoassay using a monoclonal antibody or an antigen-binding fragment thereof which recognizes said two or more kinds of antigens, wherein said two or more kinds of antigens are P1 protein and P30 protein.
Atravel control unit of a working vehicle , comprising: a hydraulic continuously variable transmission which is interposedbetween an engine and a wheel , which includes a hydraulic pump driven by the engine and a hydraulic motor fluidly connected to the hydraulic pump , and wherein the hydraulic pump and the hydraulic motor are respectively of a continuous displacement variable type in which a displacement continuously varies; an operator sensor which detects a position of an acceleration operator ; and a controller which changes the displacement of the hydraulic pump based on the position of the acceleration operator , characterized in that : the controller sets the displacement of the hydraulic motor at an initial stage of starting to travel to a maximum displacement in a variable displacement range when the controller judges that a working implement is being driven, and sets the displacement of the hydraulic motor at the initial stage of starting to travel to a minimum displacement in the variable displacement range when the controller judges that the working implement is not being driven and a special condition which is set in advance is satisfied. a hydraulic continuously variable transmission which is interposedbetween an engine and a wheel , which includes a hydraulic pump driven by the engine and a hydraulic motor fluidly connected to the hydraulic pump , and wherein the hydraulic pump and the hydraulic motor are respectively of a continuous displacement variable type in which a displacement continuously varies; an operator sensor which detects a position of an acceleration operator ; and a controller which changes the displacement of the hydraulic pump based on the position of the acceleration operator , characterized in that : the controller sets the displacement of the hydraulic motor at an initial stage of starting to travel to a maximum displacement in a variable displacement range when the controller judges that a working implement is being driven, and sets the displacement of the hydraulic motor at the initial stage of starting to travel to a minimum displacement in the variable displacement range when the controller judges that the working implement is not being driven and a special condition which is set in advance is satisfied.
Profile , more particularly a tube, having at least one bent metal sheet which surrounds an interior space by at least 360° and whose longitudinal edges are connected to respectively adjacent wall sections of the metal sheet , wherein the longitudinal edges of respectively adjacent wall sections or longitudinal edges are spaced apart from one another by means of spacers arranged between them in such a way so that a gap exists, and are positively connected thereto by connecting means such as screws, rivets or the like, characterized in that deep-drawn cups are attached in at least one longitudinal edge or in at least one wall section in the connecting regions in which the connecting means are arranged.
A high strength spring steel wire characterized by consisting of, by mass%, C: 0.35 to 0.50%, Si: 1.00 to 3.00%, Mn: 0.10 to 2.00%, and B: 0.0010 to 0.0100%, restricting P to 0.015% or less and S to 0.015% or less, further optionally containing, by mass%, Ti: 0.100% or less restricting N to 0.0100% or less, and/or one or more of Mo: 0.05 to 1.00%, Cr: 0.05 to 1.50%, Ni: 0.05 to 1.00%, Cu: 0.05 to 1.00%, Nb: 0.010 to 0.100%, V: 0.05 to 0.20%, Sb: 0.001 to 0.050% and/or Al: 0.010 to 0.100%, having a balance of Fe and unavoidable impurities, and when raising the temperature in the range from 50°C to 600°C by 0.25°C/s and measuring the differential scanning calories, having the only peak of the exothermic reaction present at 450°C or more.
A device for the optical measurement of at least one dimension of a flat object such as a wafer, comprising at least one detector , more than two divergent light sources which are positioned opposite to the detector and are essentially point-shaped, the projections of which light sources the detector detects, as well as at least one manipulation unit for holding and/or moving the object , wherein the manipulation unit is designed as a rotatable rotor, which is connected to a vacuum-generating device, wherein the rotor has at least one opening at a support surface for the object , at which opening the vacuum can be applied, characterized in that at least one measuring plane is spread between the light sources and the at least one detector to maximize a measuring area and to determine a height and/or a deflection of the object from a measurement of edges of the same.
A rendering method comprising: generating clone objects of a predetermined object in 3D space to which a motion blur effect is to be applied based on information of the predetermined object illustrated by the graphics data, wherein information of the predetermined object include geometric information, material information and animation information illustrating changes in geometric and material information; and rendering the graphics data including the generated clone objects; the method characterized in that the number of generated clone objects is determined according to hardware resources of a device rendering the 3D graphics data. generating clone objects of a predetermined object in 3D space to which a motion blur effect is to be applied based on information of the predetermined object illustrated by the graphics data, wherein information of the predetermined object include geometric information, material information and animation information illustrating changes in geometric and material information; and rendering the graphics data including the generated clone objects; the method characterized in that the number of generated clone objects is determined according to hardware resources of a device rendering the 3D graphics data.
A method for scale identification comprising: providing a first logging tool comprising a tool body , a neutron source coupled to the tool body, and detectors coupled to the tool body; providing a second logging tool for measuring deviations in inner diameter of a tubing in a wellbore ; placing the first logging tool and the second logging tool into the wellbore; logging the interior of the tubing with the first logging tool and the second logging tool to generate data; determining whether an elemental yield is above a nominal value at a location in the tubing where the second logging tool identifies a deviation in the inner diameter of the tubing; and generating a log of scale location and type from the data. providing a first logging tool comprising a tool body , a neutron source coupled to the tool body, and detectors coupled to the tool body; providing a second logging tool for measuring deviations in inner diameter of a tubing in a wellbore ; placing the first logging tool and the second logging tool into the wellbore; logging the interior of the tubing with the first logging tool and the second logging tool to generate data; determining whether an elemental yield is above a nominal value at a location in the tubing where the second logging tool identifies a deviation in the inner diameter of the tubing; and generating a log of scale location and type from the data.
A fiber gun , comprising: a mandrel having a longitudinal axis and coupleable to a source including one or more fibers , the mandrel including: an uppermost portion ; a lowermost portion generally opposite the uppermost portion ; a length extending between the uppermost portion and the lowermost portion ; a cross-sectional area that varies along at least a portion of the length of the mandrel ; and a cross-sectional perimeter varies along at least a portion of the length of the mandrel , wherein the cross-sectional perimeter varies by at most 5%; a transport mechanism configured to move the one or more fibers from a first portion of the mandrel at and/or near the uppermost portion to a second portion of the mandrel at and/or near the lowermost portion of the mandrel ; and at least one cutter including one or more cutting elements , each of the one or more cutting elements disposed at least proximate to at least one cutting surface of the mandrel and configured to cut the one or more fibers , the at least one cutting surface being at and/or near the lowermost portion of the mandrel . a mandrel having a longitudinal axis and coupleable to a source including one or more fibers , the mandrel including: an uppermost portion ; a lowermost portion generally opposite the uppermost portion ; a length extending between the uppermost portion and the lowermost portion ; a cross-sectional area that varies along at least a portion of the length of the mandrel ; and a cross-sectional perimeter varies along at least a portion of the length of the mandrel , wherein the cross-sectional perimeter varies by at most 5%; an uppermost portion ; a lowermost portion generally opposite the uppermost portion ; a length extending between the uppermost portion and the lowermost portion ; a cross-sectional area that varies along at least a portion of the length of the mandrel ; and a cross-sectional perimeter varies along at least a portion of the length of the mandrel , wherein the cross-sectional perimeter varies by at most 5%; a transport mechanism configured to move the one or more fibers from a first portion of the mandrel at and/or near the uppermost portion to a second portion of the mandrel at and/or near the lowermost portion of the mandrel ; and at least one cutter including one or more cutting elements , each of the one or more cutting elements disposed at least proximate to at least one cutting surface of the mandrel and configured to cut the one or more fibers , the at least one cutting surface being at and/or near the lowermost portion of the mandrel .