mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: receiving a plurality of input images of a scene taken from different vantage points; processing the plurality of input images to generate a sparse reconstruction representation of the scene , the sparse reconstruction representation including a sparse point cloud specifying locations of a plurality of points that correspond to three-dimensional locations of surfaces of objects in the scene; based in part on the sparse reconstruction representation, processing the plurality of input images to generate respective dense reconstruction representations of each of the plurality of input images , the respective dense reconstruction representations each including respective depth images for the plurality of input images (11 5), the depth images including color and depth information; projecting front surfaces of the depth images using a forward depth test to generate a plurality of front-warped images; projecting back surfaces of the depth images using an inverted depth test to generate a plurality of back-warped images; stitching the front-warped images and the back-warped images to generate a two-layer panorama having a front surface panorama and a back surface panorama; and fusing the front surface panorama and the back surface panorama in the two-layer panorama to generate the three-dimensional image comprising a multi-layered geometric mesh suitable for rendering the scene in the three-dimensional space. receiving a plurality of input images of a scene taken from different vantage points; processing the plurality of input images to generate a sparse reconstruction representation of the scene , the sparse reconstruction representation including a sparse point cloud specifying locations of a plurality of points that correspond to three-dimensional locations of surfaces of objects in the scene; based in part on the sparse reconstruction representation, processing the plurality of input images to generate respective dense reconstruction representations of each of the plurality of input images , the respective dense reconstruction representations each including respective depth images for the plurality of input images (11 5), the depth images including color and depth information; projecting front surfaces of the depth images using a forward depth test to generate a plurality of front-warped images; projecting back surfaces of the depth images using an inverted depth test to generate a plurality of back-warped images; stitching the front-warped images and the back-warped images to generate a two-layer panorama having a front surface panorama and a back surface panorama; and fusing the front surface panorama and the back surface panorama in the two-layer panorama to generate the three-dimensional image comprising a multi-layered geometric mesh suitable for rendering the scene in the three-dimensional space.
A lighting device for vehicles, in particular a signal light, with a light source for emitting a light beam and an optical unit associated with the light source for generating a predetermined light function, wherein the optical unit has a holographic element (H1, H2, H3, H4, H5) and a lens arranged in the main emission direction in front of the same, wherein the holographic element (H1, H2, H3, H4, H5) has such a diffraction structure that the light beam from the light source striking the holographic element (H1, H2, H3, H4, H5) is varied according to a predetermined illumination pattern, characterised in that the lens has at least one illumination surface (7; 17, 17', 17"), wherein the illumination surface is provided with scattering optical elements, wherein a single holographic element (H1, H2, H3, H4, H5) is associated with the illumination surface (7; 17, 17', 17") such that the holographic light beam emitted by the holographic element (H1, H2, H3, H4, H5) is emitted in the direction of the illumination surface (7; 17, 17', 17") arranged at a distance (a) from the at least one holographic element (H1, H2, H3, H4, H5), wherein a distribution of light onto the lens is exclusively effected by the holographic element (H1, H2, H3, H4, H5) and wherein the holographic element (H1, H2, H3, H4, H5) is at a greater distance (a) from the lens than from the light source .
A composite material for storing thermal energy, wherein said composite material comprises a matrix comprising an elastomeric material, said elastomeric material made from a precursor comprising: rubber; a material incorporated into said rubber, said material comprising a thermoplastic vulcanizate (TPV), microparticles of TPV, thermoplastic incorporating microparticles of rubber, thermoplastic incorporating microparticles of cured thermoplastic, thermoplastic incorporating microparticles of uncured thermoplastic, or any combination thereof, and at least one cross-linking agent; wherein said composite material further comprises at least one type of encapsulated microparticulate phase change material (PCM) dispersed within said elastomeric material. rubber; a material incorporated into said rubber, said material comprising a thermoplastic vulcanizate (TPV), microparticles of TPV, thermoplastic incorporating microparticles of rubber, thermoplastic incorporating microparticles of cured thermoplastic, thermoplastic incorporating microparticles of uncured thermoplastic, or any combination thereof, and at least one cross-linking agent;
A device for the preparation of cleaning compressed air adapted to clean filters (F1, F2) of solid water particles on an air cooling machine, which are arranged between an air outlet from a cooling chamber of the cooling machine and an air inlet to the cooling machine, wherein the device comprises a pressure cylinder (GC) provided with at least one inlet of compressed air and at least one outlet of cleaning compressed air, which is via at least one quick-acting valve (V3, V4) connectable to the outlets (F11, F21) of at least two filters (F1, F2) of solid water particles from the cooling air, characterized in that the pressure cylinder (GC) is provided with two inlets of compressed air, wherein the first inlet is connected to an inlet of atmospheric air via a first check valve (CV1), an air cooler (AC), a piston compressor (C) and an inlet valve (V1) and the second inlet of the pressure cylinder (GC) is connected by a bypass line of compressed air to an inlet of compressed air via a second check valve (CV2), wherein independently controllable quick-acting valves (V3, V4) are inserted between the outlets of the cleaning compressed air from the pressure cylinder (GC) and the inlets of the cleaning compressed air to the outlets (F11, F21) of the filters (F1, F2).
Spindle for spinning machines having a single motor drive, which has a rotor and a stator connected to a spindle bearing housing , • wherein the rotor is mounted in the stator by means of at least two passive magnetic radial bearings , • wherein the rotor is driven by a motor ; and • wherein the rotor is mounted by means of an active magnetic axial bearing , characterized in that the stator is connected to the spindle bearing housing by means of at least one damping element . • wherein the rotor is mounted in the stator by means of at least two passive magnetic radial bearings , • wherein the rotor is driven by a motor ; and • wherein the rotor is mounted by means of an active magnetic axial bearing ,
A method for isolating a pathogen from a sample, the method comprising providing a vessel containing a sample that comprises a pathogen; removably coupling the vessel to a cartridge via a cartridge interface that is configured to provide communication between the vessel and the cartridge; flowing a plurality of magnetic particles from the cartridge into the vessel to thereby form a mixture in the vessel that comprises the sample and the magnetic particles, wherein a plurality of the particles are conjugated to a capture moiety specific to the pathogen; flowing the mixture from the vessel into the cartridge; flowing a fluid from the cartridge into the vessel to flush any residual mixture from the vessel into the cartridge; incubating the mixture in the cartridge to allow the particles to bind to the pathogen, thereby forming pathogen/magnetic particle complexes; applying a magnetic field to capture pathogen/magnetic particle complexes on a surface of a first magnetic trap; washing the captured pathogen/magnetic particle complexes with a wash solution, thereby isolating the pathogen/magnetic particle complexes; removing the magnetic field; re-introducing the wash solution, thereby re-suspending the pathogen/magnetic particle complexes; flowing the resuspended pathogen/magnetic particle complexes from the first magnetic trap through a channel and into a second magnetic trap; and engaging the second magnetic trap, thereby re-capturing the pathogen/magnetic particle complexes; wherein the first magnetic trap is configured to capture the pathogen/magnetic particle complexes from a macro-scale volume of fluid, and the second magnetic trap is configured to concentrate substantially all of the pathogen/magnetic particle complexes into a micro-scale volume of fluid.
A method for treatment of slurry produced in a livestock farm , said method comprising the steps of: guiding said slurry from said livestock farm to a dewatering unit in which said slurry is at least partially dewatered by extracting a watery fraction of said slurry , guiding said slurry from said dewatering unit to a steam dryer , drying said slurry in said steam dryer , guiding said dried slurry into a pyrolysis reactor to produce pyrolysis gas and biochar through a pyrolysis process in said pyrolysis reactor , guiding at least a portion of said pyrolysis gas to a combustion unit in which said pyrolysis gas portion is combusted to raise the temperature of said combusted pyrolysis gas , guiding said combusted pyrolysis gas to said pyrolysis reactor to drive said pyrolysis process, guiding said combusted pyrolysis gas from said pyrolysis reactor to said steam dryer to increase the temperature of steam in said steam dryer , and heating said watery fraction of said slurry in a slurry heating system to a temperature above 75° Celsius by means of steam from said steam dryer . guiding said slurry from said livestock farm to a dewatering unit in which said slurry is at least partially dewatered by extracting a watery fraction of said slurry , guiding said slurry from said dewatering unit to a steam dryer , drying said slurry in said steam dryer , guiding said dried slurry into a pyrolysis reactor to produce pyrolysis gas and biochar through a pyrolysis process in said pyrolysis reactor , guiding at least a portion of said pyrolysis gas to a combustion unit in which said pyrolysis gas portion is combusted to raise the temperature of said combusted pyrolysis gas , guiding said combusted pyrolysis gas to said pyrolysis reactor to drive said pyrolysis process, guiding said combusted pyrolysis gas from said pyrolysis reactor to said steam dryer to increase the temperature of steam in said steam dryer , and heating said watery fraction of said slurry in a slurry heating system to a temperature above 75° Celsius by means of steam from said steam dryer .
A terminal device for use in a communications network, the terminal device comprising a processor, and a memory, the memory containing instructions executable by the processor, such that the terminal device is operable to: determine location information relating to a location of the terminal device; use the determined location information to determine a cell of a predetermined grid in which the terminal device is located, the determined cell having linear dimensions of the same order of magnitude as a range of a proximity service; determine grid location information based upon determining an identifier for the determined cell; calculate a message integrity code based on the grid location information; and transmit a proximity service discovery message, as defined for the proximity service, wherein the proximity service discovery message includes the calculated message integrity code and does not include the grid location information. determine location information relating to a location of the terminal device; use the determined location information to determine a cell of a predetermined grid in which the terminal device is located, the determined cell having linear dimensions of the same order of magnitude as a range of a proximity service; determine grid location information based upon determining an identifier for the determined cell; calculate a message integrity code based on the grid location information; and transmit a proximity service discovery message, as defined for the proximity service, wherein the proximity service discovery message includes the calculated message integrity code and does not include the grid location information.
Apparatus for supplying dialysate for a dialysis apparatus, comprising a balancing device which comprises at least one balancing chamber for balancing fresh and used dialysate, and a metering device for filling the at least one balancing chamber with permeate and concentrates in a specified mixing ratio for producing dialysate, characterised in that the metering device comprises only a single metering pump , the metering device being designed such that specified volumes of the concentrates are conveyed into the at least one balancing chamber in successive working cycles using the single metering device .
A cladding device for a metal part defining a lining of an upright of a motor vehicle, said device comprising i) an upper part comprising a lower part defined in a recess and provided with two first holes intended for its coupling to said metal part and two second holes spaced in a longitudinal direction of said vehicle, and ii) a lower part comprising an upper part provided with two coupling elements intended to pass respectively through said second holes in order to couple said upper part to said lower part with clearance in a vertical direction of said vehicle, characterized in that said lower part comprises two third holes spaced in said longitudinal direction, and in that said upper part comprises two positioning pins intended to pass respectively through said third holes and having anti-rotation actions in opposite directions to prevent disorientation of said upper part with respect to said lower part .
A drug delivery device for expelling a dose of drug from a held cartridge, the drug delivery device defining a distal drug outlet end and an opposite proximal end and comprising: - a distal housing component holding a cartridge comprising a liquid drug and a piston slideable arranged therein in an axial direction, - a proximal housing component housing at least in part a dose setting and expelling mechanism comprising a piston rod for exerting a force on the piston of the cartridge in a distal direction for expelling a dose, wherein the distal housing component and the proximal housing component are displaceably arranged in axial direction relative to each other for reducing an axial distance between the piston rod and the piston of the cartridge , characterised in that a first geometry of the distal housing component cooperates with a second geometry of the proximal housing component to enable relative axial displacement but prevent relative rotation, wherein one of the distal housing component and the proximal housing component comprises a threaded adjustment component being held at an axial fixed location on said one of the distal housing component and the proximal housing component and defining a first thread being in threaded engagement with a second thread defined by the other of the distal housing component and the proximal housing component , and wherein the threaded adjustment component is rotatably fixated so that the adjustment component cannot be rotated without the use of a tool. - a distal housing component holding a cartridge comprising a liquid drug and a piston slideable arranged therein in an axial direction, - a proximal housing component housing at least in part a dose setting and expelling mechanism comprising a piston rod for exerting a force on the piston of the cartridge in a distal direction for expelling a dose,
A method to assemble a tiled display, the method comprising: cutting at least one length of a flexible substrate carrier material with at least one conducting track from a roll of a fixed width of continuous flexible substrate carrier material to form a flexible carrier substrate, wherein the conducting track extends end-to-end or is continuous on the flexible substrate carrier material such that the cutting can be performed anywhere; contacting a first flexible display tile to the at least one conducting track of the flexible carrier substrate; and contacting a second flexible display tile to the at least one conducting track of the flexible carrier substrate, wherein said first flexible display tile and said second flexible display tile are arranged in an adjacent position; each of said flexible display tiles having discrete luminous sources distributed thereon, each of said flexible display tiles being configured to drive the discrete luminous sources on it when connected to a power supply and when receiving data and control signals; and wherein the power, data and control signals are provided to the flexible display tiles through conducting tracks formed on the flexible carrier substrate. cutting at least one length of a flexible substrate carrier material with at least one conducting track from a roll of a fixed width of continuous flexible substrate carrier material to form a flexible carrier substrate, wherein the conducting track extends end-to-end or is continuous on the flexible substrate carrier material such that the cutting can be performed anywhere; contacting a first flexible display tile to the at least one conducting track of the flexible carrier substrate; and contacting a second flexible display tile to the at least one conducting track of the flexible carrier substrate, wherein said first flexible display tile and said second flexible display tile are arranged in an adjacent position; each of said flexible display tiles having discrete luminous sources distributed thereon, each of said flexible display tiles being configured to drive the discrete luminous sources on it when connected to a power supply and when receiving data and control signals; and wherein the power, data and control signals are provided to the flexible display tiles through conducting tracks formed on the flexible carrier substrate.
Modular audio playback equipment comprising a main module and one or more additional modules comprising a first additional module , the main module being arranged to operate individually or by being assembled with the additional module(s), the first additional module comprising at least one microphone , the main module comprising: audio playback components comprising a main speaker ; main communication components arranged to implement at least one wireless communication; power supply components arranged to acquire main power from the mains and to power the equipment from the main power supply; main assembly means arranged to assemble the main module with the additional module(s); a processor component arranged to detect if the main module is assembled with the first additional module and, if this is the case, to activate at least one additional function implemented by the equipment and using the at least one microphone ; the first additional module additionally comprising a battery arranged to power the equipment when it is not connected to the mains, and the main module and the first additional module are assembled, the first additional module further comprising first communication components arranged to communicate with the main communication components of the main module via wireless communication, the main module being arranged to, when the main module and the first additional module are not assembled, receive via wireless communication, audio signals produced by the microphone(s) of the first additional module to perform the additional function(s). audio playback components comprising a main speaker ; main communication components arranged to implement at least one wireless communication; power supply components arranged to acquire main power from the mains and to power the equipment from the main power supply; main assembly means arranged to assemble the main module with the additional module(s); a processor component arranged to detect if the main module is assembled with the first additional module and, if this is the case, to activate at least one additional function implemented by the equipment and using the at least one microphone ; the first additional module additionally comprising a battery arranged to power the equipment when it is not connected to the mains, and the main module and the first additional module are assembled,
An organic rankine cycle system configured to limit temperature of a working fluid below a threshold temperature, the system comprising: a heat source configured to provide waste heat fluid ; a heat exchanger coupled to the heat source , the heat exchanger comprising: a plurality of external and a plurality of internal enhancement features, wherein the external enhancement features are arranged to reduce a first heat transfer coefficient between the working fluid and the waste heat fluid from the heat source external to the heat exchanger and the internal enhancement features are arranged to increase a second heat transfer coefficient between the working fluid and the waste heat fluid from the heat source , internal to the heat exchanger . a heat source configured to provide waste heat fluid ; a heat exchanger coupled to the heat source , the heat exchanger comprising: a plurality of external and a plurality of internal enhancement features, wherein the external enhancement features are arranged to reduce a first heat transfer coefficient between the working fluid and the waste heat fluid from the heat source external to the heat exchanger and the internal enhancement features are arranged to increase a second heat transfer coefficient between the working fluid and the waste heat fluid from the heat source , internal to the heat exchanger .
A method for obtaining a purified recombinant osteopontin comprising: obtaining a transgenic microalgae expressing a recombinant osteopontin (rOPN); disrupting a cell structure of the transgenic microalgae in a liquid environment having a first pH of between 4.3 and 6.0 to produce soluble and insoluble cellular fractions, wherein the rOPN is in the soluble fraction; separating the soluble and insoluble fractions; increasing the pH of the soluble fraction to a second pH of between 6.0 and 8.5 in the presence of a soluble calcium salt at a concentration between 100 mM to 250 mM to form a precipitate containing the rOPN and a supernatant; separating the precipitate from the supernatant; solubilizing the rOPN in a liquid having a third pH of between 4.5 and 5.0; removing the calcium salt from the solubilized rOPN; applying the solubilized rOPN to an anion exchange medium, wherein the rOPN binds to the anion exchange medium; eluting the bound rOPN from the anion exchange medium; and collecting the rOPN to obtain a purified rOPN. obtaining a transgenic microalgae expressing a recombinant osteopontin (rOPN); disrupting a cell structure of the transgenic microalgae in a liquid environment having a first pH of between 4.3 and 6.0 to produce soluble and insoluble cellular fractions, wherein the rOPN is in the soluble fraction; separating the soluble and insoluble fractions; increasing the pH of the soluble fraction to a second pH of between 6.0 and 8.5 in the presence of a soluble calcium salt at a concentration between 100 mM to 250 mM to form a precipitate containing the rOPN and a supernatant; separating the precipitate from the supernatant; solubilizing the rOPN in a liquid having a third pH of between 4.5 and 5.0; removing the calcium salt from the solubilized rOPN; applying the solubilized rOPN to an anion exchange medium, wherein the rOPN binds to the anion exchange medium; eluting the bound rOPN from the anion exchange medium; and collecting the rOPN to obtain a purified rOPN.