mhurhangee/ep-ind-claims huggingface dataset:
A system comprising a retro reflector (117, 217) adapted to be arranged outside and facing a main reflector (115, 215), said retro reflector and said main reflector being arranged inside a lamp housing, a light source (109, 209) is arranged inside said main reflector and said main reflector is adapted to reflect a part of the light generated by said light source along an optical axis, said retro reflector has an exit aperture (121, 221) where through a part of the light generated by said light source can pass; said retro reflector being adapted to reflect a part of the light generated by said light source towards said main reflector, such that said main reflector reflects the reflected light through said exit aperture wherein said retro reflector comprises: • an air inlet (125, 225), where through cooling air can be directed towards said light source and; • an air outlet (127, 227) allowing said cooling air to flow out, characterized in that said main reflector is surrounded by a number of cooling fins (129, 229), and in that said system comprises a separation plate having an aperture, said retro reflector and/or said main reflector being is arranged in said aperture, where said separation plate is adapted to divide said lamp housing into a first housing compartment and a second housing compartment, where said main reflector is arranged in said second housing compartment and said retro reflector is arranged in said first compartment and wherein: - a first blower (123, 223) is adapted to blow air from said first compartment into said retro reflector and thereafter out of said lamp housing, and - a second blower is adapted to blow cooling air from said first compartment towards the bottom part of said light source, where after said cooling air leaves said lamp housing through a number of openings between said cooling fins. • an air inlet (125, 225), where through cooling air can be directed towards said light source and; • an air outlet (127, 227) allowing said cooling air to flow out, - a first blower (123, 223) is adapted to blow air from said first compartment into said retro reflector and thereafter out of said lamp housing, and - a second blower is adapted to blow cooling air from said first compartment towards the bottom part of said light source, where after said cooling air leaves said lamp housing through a number of openings between said cooling fins.
A process for dissolving deposits comprising alkaline earth metal sulfates in underground installations or installation parts for production of mineral oil and/or natural gas and/or water from underground formations, by injecting an aqueous formulation for dissolution of the deposits into the underground installations and allowing it to act on the deposits, wherein the aqueous formulation comprises at least 15% by weight to 98.98% by weight of water, 1% by weight to 75% by weight of methanesulfonic acid, 0.01% by weight to 5% by weight of at least one water-miscible organic solvent, and 0.01% by weight to 5% by weight of at least one corrosion inhibitor, where the pH of the formulation used is ≤ 2.5 and the sum of components,, and is at least 80% by weight based on the sum of all constituents. 15% by weight to 98.98% by weight of water, 1% by weight to 75% by weight of methanesulfonic acid, 0.01% by weight to 5% by weight of at least one water-miscible organic solvent, and 0.01% by weight to 5% by weight of at least one corrosion inhibitor, where the pH of the formulation used is ≤ 2.5 and the sum of components,, and is at least 80% by weight based on the sum of all constituents.
An in-cell touch liquid crystal display panel, comprising a first substrate, second substrate, and a liquid crystal layer provided between the first substrate and the second substrate, wherein the touch liquid crystal display panel is an In-Plane Switching display panel, the first substrate is an array substrate and comprises a plurality of pixel units, wherein each of the plurality of pixel units comprises a pixel electrode, a common electrode and a conductive player, each of the plurality of pixel units comprises an opaque region of said pixel unit and a transparent region of said pixel unit, and the opaque region of said pixel unit surrounds the transparent region of said pixel unit; wherein the common electrode is disposed above the pixel electrode through an insulating layer, and the conductive layer is deposited on and electrically connected in parallel to the common electrode characterised in that the conductive layer is a transparent conductive layer and is deposited in the transparent region of the pixel unit.
A method for imaging of a sample, the method including the steps of: 1. recording images from at least one projection angle and carrying out image pair cross-correlation analysis encoding velocity data for the sample in terms of Cartesian coordinates; and 2. using an iterative method, reconstructing a 3D velocity field from the image pair cross-correlations from the analysis in step 1; wherein step 2 is performed without first reconstructing 3D images from the images recorded in step 1. 1. recording images from at least one projection angle and carrying out image pair cross-correlation analysis encoding velocity data for the sample in terms of Cartesian coordinates; and 2. using an iterative method, reconstructing a 3D velocity field from the image pair cross-correlations from the analysis in step 1;
A compound of general formula, wherein R 1 is optionally substituted alkyl, and R 2 is optionally substituted alkyl or phenyl. R 1 is optionally substituted alkyl, and R 2 is optionally substituted alkyl or phenyl.
Roll changing device for a machine for producing and/or finishing a material web, which comprises a support rail to be positioned in the machine transversely to the web running direction and at least one transport carriage (4, 5) moving along the support rail, which guides the roller to be changed out of the machine and guides the new roller in again, characterized in that the support rail is coupled to a mounting rail which runs parallel and can be displaced in the machine along the support rail and partially beyond the support rail in order to mount and dismount the support rail.
A composition comprising an active compound contained within a microcapsule, the microcapsule having a wall comprising a polyurea and a cross linking agent, the cross linking agent being the product of the reaction of a hydroxide salt with the copolymerization product of styrene and maleic anhydride, wherein the polyurea is formed by hydrolysis of an isocyanate monomer to form an amine, which in turn reacts with another isocyanate monomer to form the polyurea.
A computer-implemented method for recognizing the gingival margin of a tooth, comprising: receiving into the computer (12, 18) surface model data that digitally defines a three-dimensional surface of at least a portion of a mouth, the portion containing at least one tooth (110, 114, 116); presenting a rendering of the surface model data in a user interface; receiving input data specifying a point on the rendered surface model associated with a tooth (110, 114, 116); receiving further input data specifying a virtual auxiliary surface (108, 108', 108", 118) intersecting the surface model of the tooth; deriving, using a processor of the computer, a perimeter on the surface model of the tooth (110, 114, 116) based on the input data, wherein the perimeter is derived based on where the auxiliary surface (108, 108', 108", 118) and surface model intersect each other, and wherein the perimeter encloses the point; and analyzing, using the processor of the computer, the surface model along a plurality of paths outwardly extending from points on the perimeter along the three-dimensional surface to produce gingival margin data, which is data that defines a boundary (124, 134, 136) in the surface model separating the tooth surface and surrounding surfaces of the mouth. receiving into the computer (12, 18) surface model data that digitally defines a three-dimensional surface of at least a portion of a mouth, the portion containing at least one tooth (110, 114, 116); presenting a rendering of the surface model data in a user interface; receiving input data specifying a point on the rendered surface model associated with a tooth (110, 114, 116); receiving further input data specifying a virtual auxiliary surface (108, 108', 108", 118) intersecting the surface model of the tooth; deriving, using a processor of the computer, a perimeter on the surface model of the tooth (110, 114, 116) based on the input data, wherein the perimeter is derived based on where the auxiliary surface (108, 108', 108", 118) and surface model intersect each other, and wherein the perimeter encloses the point; and analyzing, using the processor of the computer, the surface model along a plurality of paths outwardly extending from points on the perimeter along the three-dimensional surface to produce gingival margin data, which is data that defines a boundary (124, 134, 136) in the surface model separating the tooth surface and surrounding surfaces of the mouth.
A vehicle power plant comprising: an internal combustion engine, comprising: a crankcase; a crankshaft disposed at least in part in the crankcase; a cylinder block connected to the crankcase, the cylinder block defining a cylinder having a cylinder axis, the cylinder defining at least one exhaust port for discharging exhaust fluid from the cylinder and at least one intake port for receiving air into the cylinder; a piston movably disposed within the cylinder and being operatively connected to the crankshaft, the piston being movable along the cylinder axis in a reciprocating motion; an exhaust valve assembly for selectively opening and at least partially closing the at least one exhaust port; and a lubricant reservoir for containing lubricant; a turbocharger fluidly communicating with the at least one intake port and the at least one exhaust port; and a first pump fluidly connected to the lubricant reservoir, the crankcase, and the turbocharger for pumping lubricant from the lubricant reservoir to the crankcase and to the turbocharger; characterised by a second pump fluidly connected to the turbocharger and the exhaust valve assembly for pumping lubricant from the turbocharger to the exhaust valve assembly. an internal combustion engine, comprising: a crankcase; a crankshaft disposed at least in part in the crankcase; a cylinder block connected to the crankcase, the cylinder block defining a cylinder having a cylinder axis, the cylinder defining at least one exhaust port for discharging exhaust fluid from the cylinder and at least one intake port for receiving air into the cylinder; a piston movably disposed within the cylinder and being operatively connected to the crankshaft, the piston being movable along the cylinder axis in a reciprocating motion; an exhaust valve assembly for selectively opening and at least partially closing the at least one exhaust port; and a lubricant reservoir for containing lubricant; a crankcase; a crankshaft disposed at least in part in the crankcase; a cylinder block connected to the crankcase, the cylinder block defining a cylinder having a cylinder axis, the cylinder defining at least one exhaust port for discharging exhaust fluid from the cylinder and at least one intake port for receiving air into the cylinder; a piston movably disposed within the cylinder and being operatively connected to the crankshaft, the piston being movable along the cylinder axis in a reciprocating motion; an exhaust valve assembly for selectively opening and at least partially closing the at least one exhaust port; and a lubricant reservoir for containing lubricant; a turbocharger fluidly communicating with the at least one intake port and the at least one exhaust port; and a first pump fluidly connected to the lubricant reservoir, the crankcase, and the turbocharger for pumping lubricant from the lubricant reservoir to the crankcase and to the turbocharger; characterised by a second pump fluidly connected to the turbocharger and the exhaust valve assembly for pumping lubricant from the turbocharger to the exhaust valve assembly.
A motor vehicle door lock having a lock housing, a lock cover of a switching nut rotatably accommodated in the lock housing, a transfer lever, wherein the switching nut interacts with the transfer lever and wherein the switching nut is accommodated in the lock housing such that the switching nut is rotatable by means of an actuator acting on the switching nut outside the lock housing and a locking lever, whereby by means of a rotary movement the switching nut of the locking lever is adjustable by the transfer lever, characterized in that the lock cover has positioning means with which the transfer lever from a previous mounting position is placed with play in its final position in the lock housing.
A method of generating random numbers for cryptographic applications, in which - a recording of an environment is generated by means of a detection unit, - the recording is presented by means of a display device, - a virtual object is positioned by a user in the presentation of the recording in the environment, - real world coordinates for real world points in a real world coordinate system are determined for the environment, - virtual world coordinates for one or more virtual world points in a virtual world coordinate system are determined for the virtual object, - at least the real world coordinates of a real world point of the environment and the virtual world coordinates of a virtual world point of the virtual object are used to generate a random number, and - the random number and/or a value derived from the random number is/are used in a cryptographic application. - a recording of an environment is generated by means of a detection unit, - the recording is presented by means of a display device, - a virtual object is positioned by a user in the presentation of the recording in the environment, - real world coordinates for real world points in a real world coordinate system are determined for the environment, - virtual world coordinates for one or more virtual world points in a virtual world coordinate system are determined for the virtual object, - at least the real world coordinates of a real world point of the environment and the virtual world coordinates of a virtual world point of the virtual object are used to generate a random number, and - the random number and/or a value derived from the random number is/are used in a cryptographic application.
Formulation for producing a fire-retarding mineral insulating material comprising a mineral binding agent based on a sulphate aluminate cement and a porous bulk material in the form of expanded perlite, characterised in that - the mineral binding agent is contained in the formulation in a proportion selected from a range of 10 to 70 parts by weight, - the sulphate aluminate cement is contained in the mineral binding agent in a proportion selected from a range of 55 to 85 parts by weight, - the expanded perlite is of a closed-cell type such that there is a vacuum inside the approximately spherical cavities of the closed-cell expanded perlite particles - and that the closed-cell expanded perlite is contained in the formulation in a proportion selected from a range of 20 to 75 parts by weight. - the mineral binding agent is contained in the formulation in a proportion selected from a range of 10 to 70 parts by weight, - the sulphate aluminate cement is contained in the mineral binding agent in a proportion selected from a range of 55 to 85 parts by weight, - the expanded perlite is of a closed-cell type such that there is a vacuum inside the approximately spherical cavities of the closed-cell expanded perlite particles - and that the closed-cell expanded perlite is contained in the formulation in a proportion selected from a range of 20 to 75 parts by weight.
Multiple-dwelling unit, having at least one closed-off residential area, wherein the residential area comprises a plurality of rooms (2a-2n) and a building installation installed vertically in the residential building, wherein the multiple-dwelling unit, in a reusable basic design, is subdivided into a first building module and a second building module, the first building module and the second building module are separated from one another by a partition line and the partition line runs from the one side to the opposite side of the multiple-dwelling unit, wherein, proceeding from a partition line, a scalable surface-area expansion region is provided, by which the entire building surface area, in addition to the surface areas of the first building module and the second building module, can be enlarged, wherein the surface-area expansion region is straight, and the statics of the multiple-dwelling unit and of the maximum surface-area expansion region are designed in such a way that, in the event of a change in the surface-area expansion region up to its maximum value X, the statics of the multiple-dwelling unit do not need to be changed, wherein the surface-area expansion region, proceeding from the partition line, has a width B of a length dimension of 0 up to a width of a length dimension of X, floor areas and masonry areas are affected by the surface-area expansion region, and the first building module and the second building module extend over all the floors of the multiple-dwelling unit. the multiple-dwelling unit, in a reusable basic design, is subdivided into a first building module and a second building module, the first building module and the second building module are separated from one another by a partition line and the partition line runs from the one side to the opposite side of the multiple-dwelling unit, wherein, proceeding from a partition line, a scalable surface-area expansion region is provided, by which the entire building surface area, in addition to the surface areas of the first building module and the second building module, can be enlarged, wherein the surface-area expansion region is straight, and the statics of the multiple-dwelling unit and of the maximum surface-area expansion region are designed in such a way that, in the event of a change in the surface-area expansion region up to its maximum value X, the statics of the multiple-dwelling unit do not need to be changed, wherein the surface-area expansion region, proceeding from the partition line, has a width B of a length dimension of 0 up to a width of a length dimension of X, floor areas and masonry areas are affected by the surface-area expansion region, and the first building module and the second building module extend over all the floors of the multiple-dwelling unit.
Method for providing a substrate with an imprint, in which initially liquid printing ink is printed onto a strip and is at least partially dried there, and in which the at least partially dried printing ink is transferred onto the substrate from the strip, wherein, apart from the printing ink, a transfer coating, in particular a decorative transfer coating, is also applied to the substrate, wherein the transfer coating is a transfer ply of a transfer foil.
A differential device, comprising a differential case that houses a gear group (4, 5) including pinions and side gears, and a ring gear disposed fitted to the differential case, wherein the differential case and the ring gear are supported rotatably about a drive shaft to which the side gears are fitted and fixed, the ring gear comprises a helical gear having a ring-like structure, the ring gear abuts the differential case in an axial direction of the drive shaft, the ring gear has a gear portion on an outer periphery of the ring gear and a fitting portion fitted to the differential case on an inner periphery of the ring gear, and the gear portion is disposed completely outside the whole differential case in the radial direction of the drive shaft, the ring gear and the differential case are welded at an abutting portion between the ring gear and the differential case from outside in a radial direction of the ring gear, the differential device being characterized in that a bearing abuts the ring gear in the axial direction of the drive shaft. a differential case that houses a gear group (4, 5) including pinions and side gears, and a ring gear disposed fitted to the differential case, wherein the differential case and the ring gear are supported rotatably about a drive shaft to which the side gears are fitted and fixed, the ring gear comprises a helical gear having a ring-like structure, the ring gear abuts the differential case in an axial direction of the drive shaft, the ring gear has a gear portion on an outer periphery of the ring gear and a fitting portion fitted to the differential case on an inner periphery of the ring gear, and the gear portion is disposed completely outside the whole differential case in the radial direction of the drive shaft, the ring gear and the differential case are welded at an abutting portion between the ring gear and the differential case from outside in a radial direction of the ring gear, the differential device being characterized in that a bearing abuts the ring gear in the axial direction of the drive shaft.
A sample analysis cartridge (125, 930) comprising: an inlet chamber configured to receive a biological sample; a conduit fluidically connected to the inlet chamber and configured to receive the biological sample from the inlet chamber, the conduit comprising: a sensor chip including a first micro-environment sensor and a second microenvironment sensor, wherein each of the first micro-environment sensor and the second micro-environment sensor includes at least one transducer coated with a polymer layer, a first reagent, comprising a first thrombin-cleavable peptide with a detectable moiety, the first thrombin-cleavable peptide immobilized within or formed on the polymer layer of the first micro-environment sensor, a second reagent, comprising a second thrombin-cleavable peptide with a detectable moiety, immobilized within or formed on the polymer layer of the second micro-environment sensor, and a fluidic lock valve configured to lock the biological sample within the conduit; and a pump configured to push the biological sample over the first micro-environment sensor and the second micro-environment sensor to the fluidic lock. an inlet chamber configured to receive a biological sample; a conduit fluidically connected to the inlet chamber and configured to receive the biological sample from the inlet chamber, the conduit comprising: a sensor chip including a first micro-environment sensor and a second microenvironment sensor, wherein each of the first micro-environment sensor and the second micro-environment sensor includes at least one transducer coated with a polymer layer, a first reagent, comprising a first thrombin-cleavable peptide with a detectable moiety, the first thrombin-cleavable peptide immobilized within or formed on the polymer layer of the first micro-environment sensor, a second reagent, comprising a second thrombin-cleavable peptide with a detectable moiety, immobilized within or formed on the polymer layer of the second micro-environment sensor, and a fluidic lock valve configured to lock the biological sample within the conduit; and a sensor chip including a first micro-environment sensor and a second microenvironment sensor, wherein each of the first micro-environment sensor and the second micro-environment sensor includes at least one transducer coated with a polymer layer, a first reagent, comprising a first thrombin-cleavable peptide with a detectable moiety, the first thrombin-cleavable peptide immobilized within or formed on the polymer layer of the first micro-environment sensor, a second reagent, comprising a second thrombin-cleavable peptide with a detectable moiety, immobilized within or formed on the polymer layer of the second micro-environment sensor, and a fluidic lock valve configured to lock the biological sample within the conduit; and a pump configured to push the biological sample over the first micro-environment sensor and the second micro-environment sensor to the fluidic lock.