mhurhangee/ep-ind-claims huggingface dataset:
An electronic device (101, 201), comprising: a camera; a communication module; and a processor (120, 210) operably coupled with the camera and the communication module, wherein the processor (120, 210) is configured to: obtain a first image corresponding to an external object using the camera, generate metadata associated with the first image generate a second image smaller in data size than the first image using the first image, wherein pixel coordinates of the second image correspond to pixel coordinates of the first image, transmit the second image and the metadata to an external electronic device through the communication module, receive correction area information from the external electronic device through the communication module, wherein the correction area information is based on the metadata and information associated with an image area identified from the second image, and wherein the correction area information comprises a plurality of segmentation maps, and perform correction of the first image based on at least part of the correction area information, wherein the plurality of maps are related to a result of object recognition of at least one object in the second image, a reliability of the result of the object recognition, a result of texture recognition of the recognized objects in the second image and an accuracy of the texture recognition a camera; a communication module; and a processor (120, 210) operably coupled with the camera and the communication module, wherein the processor (120, 210) is configured to: obtain a first image corresponding to an external object using the camera, generate metadata associated with the first image generate a second image smaller in data size than the first image using the first image, wherein pixel coordinates of the second image correspond to pixel coordinates of the first image, transmit the second image and the metadata to an external electronic device through the communication module, receive correction area information from the external electronic device through the communication module, wherein the correction area information is based on the metadata and information associated with an image area identified from the second image, and wherein the correction area information comprises a plurality of segmentation maps, and perform correction of the first image based on at least part of the correction area information, wherein the plurality of maps are related to a result of object recognition of at least one object in the second image, a reliability of the result of the object recognition, a result of texture recognition of the recognized objects in the second image and an accuracy of the texture recognition
A road barrier post which includes apertures on alternate sides of the post which, in use, each receive and retain at least one cable therein wherein the same number of apertures are located on each side of the post wherein each aperture: has a side opening in the form of a mouth, the mouth comprising - a top surface (102, 103); and - a curved bottom surface; wherein the top surface comprises a distal region extending to the side of the post and forming a quick cable release portion and a proximate region forming the remainder of the top surface extending away from a median axis of the post to the distal region, wherein the distal region comprises a steeper angle with respect to the horizontal than the proximate region of the top surface, so as to reduce: - the travel path of, and/or; - any frictional contact with; the cable, during ejection from the aperture following a collision by a vehicle. - a top surface (102, 103); and - a curved bottom surface; wherein the top surface comprises a distal region extending to the side of the post and forming a quick cable release portion and a proximate region forming the remainder of the top surface extending away from a median axis of the post to the distal region, wherein the distal region comprises a steeper angle with respect to the horizontal than the proximate region of the top surface, so as to reduce: - the travel path of, and/or; - any frictional contact with; the cable, during ejection from the aperture following a collision by a vehicle.
A liquid tank having an accommodation space for accommodating a liquid, comprising a tank body having a mouth part with an opening for inflow and outflow of the liquid; a cap mounted on the mouth part to close the opening; a liquid passage through which the liquid in the liquid tank flows toward outside; a gas passage having a first path between an outer perimeter surface of the mouth part and a mounting part of the cap, the first path communicatively connecting to outside and a second path communicatively connecting to the first path and the accommodation space; a liquid flow valve provided on the liquid passage to allow or inhibit a flow of the liquid to outside; and an aeration valve provided on the gas passage to compensate for a negative pressure occurring in the accommodation space.
A method comprising the steps of: providing a sample holder comprising a holding space for holding a sample comprising a particle in a fluid medium; providing a driving signal, having a signal frequency ( f), a signal amplitude and a signal power, to the sample holder generating an acoustic wave in the sample holder for applying an acoustic force to the particle, the wave having a frequency; and determining an acoustic resonance frequency ( f 0) of the sample holder; wherein the method further comprises the steps of: determining a quality factor for the sample holder with respect to the resonance frequency ( f 0); and based on the quality factor at least one of: determining suitability of the sample holder for further use, determining an acoustic force in at least part of the sample holder, and controlling at least one of the signal frequency ( f), a signal amplitude ( a), a signal power, a sample composition of the sample in the holding space and a temperature of at least part of the sample and/or the sample holder. providing a sample holder comprising a holding space for holding a sample comprising a particle in a fluid medium; providing a driving signal, having a signal frequency ( f), a signal amplitude and a signal power, to the sample holder generating an acoustic wave in the sample holder for applying an acoustic force to the particle, the wave having a frequency; and determining an acoustic resonance frequency ( f 0) of the sample holder; wherein the method further comprises the steps of: determining a quality factor for the sample holder with respect to the resonance frequency ( f 0); and based on the quality factor at least one of: determining suitability of the sample holder for further use, determining an acoustic force in at least part of the sample holder, and controlling at least one of the signal frequency ( f), a signal amplitude ( a), a signal power, a sample composition of the sample in the holding space and a temperature of at least part of the sample and/or the sample holder. determining a quality factor for the sample holder with respect to the resonance frequency ( f 0); and based on the quality factor at least one of: determining suitability of the sample holder for further use, determining an acoustic force in at least part of the sample holder, and controlling at least one of the signal frequency ( f), a signal amplitude ( a), a signal power, a sample composition of the sample in the holding space and a temperature of at least part of the sample and/or the sample holder. determining suitability of the sample holder for further use, determining an acoustic force in at least part of the sample holder, and controlling at least one of the signal frequency ( f), a signal amplitude ( a), a signal power, a sample composition of the sample in the holding space and a temperature of at least part of the sample and/or the sample holder.
Method for injection moulding of a preform adapted for stretch blow moulding of a container, the preform comprising a bottom, a tubular wall extending upwards from the bottom in an elongated manner thereby forming a body part and a neck part following the body part, the neck part located opposite the bottom forming a pouring opening, and the neck part being provided with an internal attachment means for accommodating an insert piece, the method comprising the following steps: - inserting a mould core into an injection mould thereby forming a mould for defining the preform, characterised in that the mould core, in the zone for defining said neck part, comprises a combination of a raised portion and a shallow groove with a depth (d) of 0.01 to 1 mm provided in the raised portion and rotationally symmetrical with respect to the longitudinal axis of the mould core, for defining the internal attachment means, - injecting into the mould a thermoplastic plastic composition with stretch blow mouldable material, thereby forming the preform provided with the internal attachment means, - removing the mould core and the injection mould, with release of the aforementioned preform with internal attachment means. - inserting a mould core into an injection mould thereby forming a mould for defining the preform, characterised in that the mould core, in the zone for defining said neck part, comprises a combination of a raised portion and a shallow groove with a depth (d) of 0.01 to 1 mm provided in the raised portion and rotationally symmetrical with respect to the longitudinal axis of the mould core, for defining the internal attachment means, - injecting into the mould a thermoplastic plastic composition with stretch blow mouldable material, thereby forming the preform provided with the internal attachment means, - removing the mould core and the injection mould, with release of the aforementioned preform with internal attachment means.
A Zika virus (ZIKV) vaccine, comprising: a ribonucleic acid polynucleotide having an open reading frame encoding a ZIKV antigenic polypeptide formulated in a lipid nanoparticle, wherein the RNA polynucleotide is messenger RNA (mRNA).
A multilayer structure for the production of a floor covering of a transport vehicle, said multilayer structure successively comprising an upper wear layer of plastic material, a first adhesive layer, a woven reinforcement produced from glass fibers, polyamide fibers or polyester fibers, a second adhesive layer, a non-woven textile layer comprising self-extinguishing fibers, said layers being bonded together to form the multilayer structure, characterized in that the upper wear layer has a thickness of between 0.15 and 1 mm, and in that the first and second adhesives layers are produced from polyurethane glue or consist of a hot melt film or a double face film.
A vehicle seat including a backrest provided with a framework and at least one safety device, said device including an interface part and an airbag housing coupled to said interface part, characterized in that said interface part includes a rear face, provided with at least one clip-fastening lug clip-fastened to a suitable part of said framework ensuring a pre-hold, and a front face, provided at two distant locations with first and second positioning means, and in that said housing includes a rear face provided with third and fourth positioning means, cooperating respectively with said first and second positioning means for precisely positioning said interface part with respect to said housing, said rear face of the housing being provided with a clip-fastening lug which is clip-fastened in a housing of said framework ensuring its pre-hold, and at least one screw ensuring a fixed securing of said housing and interface part to said framework.
An electric compressor comprising: a metal housing (11, 12); a compressing portion and an electric motor accommodated in the housing (11,12); an inverter for driving the electric motor; and an inverter cover fixed to the housing (11, 12), the inverter cover accommodates the inverter, the inverter cover having a metal plate that is arranged to cover the inverter, the metal plate having a bolt insertion hole for fixing the inverter cover to the housing (11, 12), the inverter cover being fixed to the housing (11, 12) by a metal bolt having a head and a threaded portion, wherein the threaded portion of the bolt passes through the bolt insertion hole, and the head of the bolt and the periphery of the bolt insertion hole are electrically connected to each other, the inverter cover being formed of plastic by being molded in a mold, using the metal plate as a core, the electric compressor being characterized in that the metal plate has an inner surface that faces the inverter, the inverter cover has a plastic power connector integrated therewith, the power connector having a metal terminal electrically connectable with an external power source, and an inner insulating portion is formed to extend from the power connector and along the inner surface of the metal plate. a metal housing (11, 12); a compressing portion and an electric motor accommodated in the housing (11,12); an inverter for driving the electric motor; and an inverter cover fixed to the housing (11, 12), the inverter cover accommodates the inverter, the inverter cover having a metal plate that is arranged to cover the inverter, the metal plate having a bolt insertion hole for fixing the inverter cover to the housing (11, 12), the inverter cover being fixed to the housing (11, 12) by a metal bolt having a head and a threaded portion, wherein the threaded portion of the bolt passes through the bolt insertion hole, and the head of the bolt and the periphery of the bolt insertion hole are electrically connected to each other, the inverter cover being formed of plastic by being molded in a mold, using the metal plate as a core, the electric compressor being characterized in that the metal plate has an inner surface that faces the inverter, the inverter cover has a plastic power connector integrated therewith, the power connector having a metal terminal electrically connectable with an external power source, and an inner insulating portion is formed to extend from the power connector and along the inner surface of the metal plate.
A cutting assembly for use in a hair cutting device, the cutting assembly comprising: a cutting element; a light guiding element for guiding light from a light source to a cutting element; the cutting element comprising an optical waveguide for receiving light from the light guiding element, wherein a portion of a sidewall of the optical waveguide forms a cutting face for contacting hair; characterized in that the light guiding element comprises a taper transition section in which a diameter of the light guiding element reduces from a first diameter to a second diameter. a cutting element; a light guiding element for guiding light from a light source to a cutting element; the cutting element comprising an optical waveguide for receiving light from the light guiding element, wherein a portion of a sidewall of the optical waveguide forms a cutting face for contacting hair; characterized in that the light guiding element comprises a taper transition section in which a diameter of the light guiding element reduces from a first diameter to a second diameter.
A soil resistant fiber structure, comprising a fiber and a soil resistant resin fixed to at least a part of a surface of the fiber, wherein the resin has, in at least a part inside the resin, one or more regions dyed with osmium oxide as observed with a transmission electron microscope, wherein the regions have a hydrophilic component and a hydrophobic component, wherein the hydrophilic component is polyethylene glycol, wherein the hydrophobic component is a fluororesin, at least one of the regions is circular, the circular regions have a maximum diameter of 100 nm or more and 500 nm or less, and the soil resistant fiber structure has a mass concentration ratio of oxygen atoms to fluorine atoms (O/F) of 3 or more as obtained by measuring the surface of the fiber with an energy dispersive X-ray analyzer. wherein the resin has, in at least a part inside the resin, one or more regions dyed with osmium oxide as observed with a transmission electron microscope, wherein the regions have a hydrophilic component and a hydrophobic component, wherein the hydrophilic component is polyethylene glycol, wherein the hydrophobic component is a fluororesin, at least one of the regions is circular, the circular regions have a maximum diameter of 100 nm or more and 500 nm or less, and the soil resistant fiber structure has a mass concentration ratio of oxygen atoms to fluorine atoms (O/F) of 3 or more as obtained by measuring the surface of the fiber with an energy dispersive X-ray analyzer.
A method of combating late potato blight comprising the steps of (i) obtaining a saponin-rich component from Hedra helix by a process comprising the steps of: (a) treating a portion of the fruit of the plant with an extraction solvent in which saponin-containing compounds are soluble; and (b) treating the portion of plant or the extract obtained therefrom to remove fatty acid residues from said portion of plant or extract thereof; and (ii) applying to a crop a composition comprising a saponin rich component obtained by the process of step (i). (i) obtaining a saponin-rich component from Hedra helix by a process comprising the steps of: (a) treating a portion of the fruit of the plant with an extraction solvent in which saponin-containing compounds are soluble; and (b) treating the portion of plant or the extract obtained therefrom to remove fatty acid residues from said portion of plant or extract thereof; and (a) treating a portion of the fruit of the plant with an extraction solvent in which saponin-containing compounds are soluble; and (b) treating the portion of plant or the extract obtained therefrom to remove fatty acid residues from said portion of plant or extract thereof; and (ii) applying to a crop a composition comprising a saponin rich component obtained by the process of step (i).
14'-Acetoxybadrakemin, 14'-Acetoxycolladonin or 14'-Hydroxycolladonin or the salts, hydrates, solvates, polymorphs, stereoisomers, optical isomers, geometric isomers, enantiomers, diastereoisomers and / or combinations thereof for use in the treatment of cancer.
An STED fluorescence light scanning microscope, comprising - a light source providing a beam of excitation light of a beam of excitation light polarization and an excitation wavelength for exciting a fluorophore in a sample to be imaged for spontaneous emission of fluorescence light, and providing an STED beam of suppression light of a beam of suppression light polarization and a suppression wavelength for suppressing spontaneous emission of fluorescence light by the fluorophore on a common optical axis of the beams (7, 8) of excitation light and suppression light, the suppression wavelength differing from the excitation wavelength; - an objective focusing both the beam of excitation light and the STED beam of suppression light into a focus volume around a focus point; - a detector adapted to detect fluorescence light spontaneously emitted by the fluorophore; and - a chromatic beam shaping device arranged on the common optical axis of the beam of excitation light and the STED beam of suppression light, and including a chromatic optical element adapted to shape the STED beam of suppression light such as to produce an intensity distribution of the suppression light around the focus point having an intensity zero essentially at the focus point, and to leave a shape of the excitation light such as to produce an intensity distribution of the excitation light around the focus point having a maximum essentially at the focus point, wherein the chromatic optical element is a birefringent chromatic optical element comprising a segmented chromatic waveplate and adapted to shape a polarization distribution (30, 34, 35, 36) of the STED beam of suppression light over its beam cross section. - a light source providing a beam of excitation light of a beam of excitation light polarization and an excitation wavelength for exciting a fluorophore in a sample to be imaged for spontaneous emission of fluorescence light, and providing an STED beam of suppression light of a beam of suppression light polarization and a suppression wavelength for suppressing spontaneous emission of fluorescence light by the fluorophore on a common optical axis of the beams (7, 8) of excitation light and suppression light, the suppression wavelength differing from the excitation wavelength; - an objective focusing both the beam of excitation light and the STED beam of suppression light into a focus volume around a focus point; - a detector adapted to detect fluorescence light spontaneously emitted by the fluorophore; and - a chromatic beam shaping device arranged on the common optical axis of the beam of excitation light and the STED beam of suppression light, and including a chromatic optical element adapted to shape the STED beam of suppression light such as to produce an intensity distribution of the suppression light around the focus point having an intensity zero essentially at the focus point, and to leave a shape of the excitation light such as to produce an intensity distribution of the excitation light around the focus point having a maximum essentially at the focus point,
A shaped magnetic macroporous scaffold formed into said shape by three-dimensional printing; wherein said shaped magnetic macroporous scaffold comprises: a. a magnetic macroporous powder comprising a thermoplastic polymer and magnetic microparticles; b. self-assembled mesoporous aggregates of magnetic nanoparticles; and i. optionally wherein said self-assembled mesoporous aggregates of magnetic nanoparticles further comprise one or more enzymes magnetically immobilized within said mesopores or on the surface of said magnetic nanoparticles; ii. optionally wherein said magnetic particles have a size of: between about 50-100μm, between about 10-50μm, between about 5-10μm, about 10μm, about 5μm, less than about 5μm, or greater than about 100μm; iii. optionally wherein said magnetic macroporous powder has an average size of about 150 μm, 75 μm or 15 μm; or iv. optionally wherein said magnetic particles have a concentration of between 0 and 10% by weight, 10 to 50% by weight, or 50 to 90% by weight. a. a magnetic macroporous powder comprising a thermoplastic polymer and magnetic microparticles; b. self-assembled mesoporous aggregates of magnetic nanoparticles; and i. optionally wherein said self-assembled mesoporous aggregates of magnetic nanoparticles further comprise one or more enzymes magnetically immobilized within said mesopores or on the surface of said magnetic nanoparticles; ii. optionally wherein said magnetic particles have a size of: between about 50-100μm, between about 10-50μm, between about 5-10μm, about 10μm, about 5μm, less than about 5μm, or greater than about 100μm; iii. optionally wherein said magnetic macroporous powder has an average size of about 150 μm, 75 μm or 15 μm; or iv. optionally wherein said magnetic particles have a concentration of between 0 and 10% by weight, 10 to 50% by weight, or 50 to 90% by weight. i. optionally wherein said self-assembled mesoporous aggregates of magnetic nanoparticles further comprise one or more enzymes magnetically immobilized within said mesopores or on the surface of said magnetic nanoparticles; ii. optionally wherein said magnetic particles have a size of: between about 50-100μm, between about 10-50μm, between about 5-10μm, about 10μm, about 5μm, less than about 5μm, or greater than about 100μm; iii. optionally wherein said magnetic macroporous powder has an average size of about 150 μm, 75 μm or 15 μm; or iv. optionally wherein said magnetic particles have a concentration of between 0 and 10% by weight, 10 to 50% by weight, or 50 to 90% by weight.