mhurhangee/ep-ind-claims huggingface dataset:
A method for picking up and collecting plant embryos, comprising the following steps: capturing a first optical image being an image of at least one plant embryo, arranged in a receptacle; detecting an isolated plant embryo in the captured first optical image; controlling a robotic arm having a pick-up unit mounted thereon to move the pick-up unit to a position in which it is able to pick up the isolated plant embryo; performing a picking up action for picking up the isolated plant embryo using the pick-up unit; controlling the robotic arm to move the pick-up unit to a predefined confirming position, capturing a second optical image in which a part associated with the picked-up plant embryo does not overlap with a part, if any, that is associated with the receptacle; confirming the presence of a picked-up plant embryo in the second optical image; controlling the robotic arm to move the pick-up unit to deposit the picked up plant embryo in a respective compartment in a tray comprising at least one compartment, if the picked up plant embryo is visible in the second optical image, or controlling the robotic arm to move the pick-up unit to a position in which it is able to pick up a further isolated plant embryo, if no picked up plant embryo is visible in the second optical image. capturing a first optical image being an image of at least one plant embryo, arranged in a receptacle; detecting an isolated plant embryo in the captured first optical image; controlling a robotic arm having a pick-up unit mounted thereon to move the pick-up unit to a position in which it is able to pick up the isolated plant embryo; performing a picking up action for picking up the isolated plant embryo using the pick-up unit; controlling the robotic arm to move the pick-up unit to a predefined confirming position, capturing a second optical image in which a part associated with the picked-up plant embryo does not overlap with a part, if any, that is associated with the receptacle; confirming the presence of a picked-up plant embryo in the second optical image; controlling the robotic arm to move the pick-up unit to deposit the picked up plant embryo in a respective compartment in a tray comprising at least one compartment, if the picked up plant embryo is visible in the second optical image, or controlling the robotic arm to move the pick-up unit to a position in which it is able to pick up a further isolated plant embryo, if no picked up plant embryo is visible in the second optical image.
A turbine of a combustion turbine engine, comprising a rotor blade and a stator blade, wherein the stator blade includes a sidewall projection extending toward the rotor blade and the rotor blade includes an angel wing projection extending toward the stator blade, the sidewall projection overhanging the angel wing projection, a trench cavity defined between the rotor blade and the stator blade, and a seal formed within the trench cavity, the seal comprising: a port disposed on an inboard surface of the sidewall projection; and a deflecting structure disposed on an outboard surface of the angel wing projection; wherein: the port is configured to direct a fluid expelled therefrom toward the deflecting structure; and the deflecting structure is configured to receive the fluid expelled from the port and deflect the fluid toward an inlet of the trench cavity; wherein the sidewall projection axially overlaps the angel wing projection; wherein the angel wing projection comprises a position inboard of the side wall projection; and wherein the fluid comprises a coolant; wherein an inboard trained reference line comprises a reference line originating at the port and aimed precisely in the inboard direction toward the axis of the turbine; characterized in that: the port is axially canted within +/- 20° of the inboard trained reference line; and the port is circumferentially canted within +/- 60° of the inboard trained reference line. a port disposed on an inboard surface of the sidewall projection; and a deflecting structure disposed on an outboard surface of the angel wing projection; wherein: the port is configured to direct a fluid expelled therefrom toward the deflecting structure; and the deflecting structure is configured to receive the fluid expelled from the port and deflect the fluid toward an inlet of the trench cavity; the port is configured to direct a fluid expelled therefrom toward the deflecting structure; and the deflecting structure is configured to receive the fluid expelled from the port and deflect the fluid toward an inlet of the trench cavity; wherein the sidewall projection axially overlaps the angel wing projection; wherein the angel wing projection comprises a position inboard of the side wall projection; and wherein the fluid comprises a coolant; wherein an inboard trained reference line comprises a reference line originating at the port and aimed precisely in the inboard direction toward the axis of the turbine; characterized in that: the port is axially canted within +/- 20° of the inboard trained reference line; and the port is circumferentially canted within +/- 60° of the inboard trained reference line. the port is axially canted within +/- 20° of the inboard trained reference line; and the port is circumferentially canted within +/- 60° of the inboard trained reference line.
Lubricant composition for improving the sliding of winter sliding sports equipment characterized in that it comprises soy wax and a polyhydroxyalkanoate; - wherein the polyhydroxyalkanoate is either a homopolymer formed from only one monomer, or a co-polymer formed from at least two monomers, and wherein the monomer is selected from: 2-hydroxybutanoic acid, 3-hydroxybutanoic acid, 4-hydroxybutanoic acid, 3-hydroxyvaleric acid, 3-hydroxyhexanoic acid and 3-hydroxyoctanoic acid; and - wherein weight ratio between soy wax:polyhydroxyalkanoate is comprised between 2:1 and 200:1. - wherein the polyhydroxyalkanoate is either a homopolymer formed from only one monomer, or a co-polymer formed from at least two monomers, and wherein the monomer is selected from: 2-hydroxybutanoic acid, 3-hydroxybutanoic acid, 4-hydroxybutanoic acid, 3-hydroxyvaleric acid, 3-hydroxyhexanoic acid and 3-hydroxyoctanoic acid; and - wherein weight ratio between soy wax:polyhydroxyalkanoate is comprised between 2:1 and 200:1.
Process for producing methane gas by co-culturing in a reactor in an aerobic atmosphere, preferably ambient air, at least: - a first microorganism consisting of an anaerobic bacterium capable of producing hydrogen by fermentation in the presence of a substrate and/or a culture medium comprising or supplemented with carbohydrate(s), and - a second microorganism consisting of a methanogenic Archaea capable of producing methane from hydrogen and a substrate and/or culture medium comprising or supplemented with carbohydrate(s), and - an organic and mineral substrate comprising components of culture media capable of allowing the culture of both said first and second microorganisms, said culture medium comprising or being supplemented with carbohydrate(s), and being further supplemented with antioxidant compound(s). - a first microorganism consisting of an anaerobic bacterium capable of producing hydrogen by fermentation in the presence of a substrate and/or a culture medium comprising or supplemented with carbohydrate(s), and - a second microorganism consisting of a methanogenic Archaea capable of producing methane from hydrogen and a substrate and/or culture medium comprising or supplemented with carbohydrate(s), and - an organic and mineral substrate comprising components of culture media capable of allowing the culture of both said first and second microorganisms, said culture medium comprising or being supplemented with carbohydrate(s), and being further supplemented with antioxidant compound(s).
An illumination device comprising: a wavelength converting layer comprising a donor configured to absorb energy to reach an excited state, and to emit light of a first wavelength, and an acceptor configured to emit light of a second wavelength, longer than said first wavelength; wherein said donor and said acceptor are selected and arranged at a distance from each other such that non-radiative transfer of excitation energy from said donor to said acceptor occurs such that said acceptor emits a photon at said second wavelength after said transfer of energy; said illumination device further comprising a periodic plasmonic antenna array, embedded within said wavelength converting layer, and comprising a plurality of individual antenna elements arranged in an antenna array plane, said plasmonic antenna array being configured to support a first lattice resonance at said second wavelength, arising from coupling of localized surface plasmon resonances in said individual antenna elements to photonic modes supported by the system comprising the plasmonic antenna array and the wavelength converting layer, wherein said plasmonic antenna array is configured to comprise plasmon resonance modes such that light emitted from said plasmonic antenna array has an anisotropic angle distribution. a wavelength converting layer comprising a donor configured to absorb energy to reach an excited state, and to emit light of a first wavelength, and an acceptor configured to emit light of a second wavelength, longer than said first wavelength; wherein said donor and said acceptor are selected and arranged at a distance from each other such that non-radiative transfer of excitation energy from said donor to said acceptor occurs such that said acceptor emits a photon at said second wavelength after said transfer of energy; said illumination device further comprising a periodic plasmonic antenna array, embedded within said wavelength converting layer, and comprising a plurality of individual antenna elements arranged in an antenna array plane, said plasmonic antenna array being configured to support a first lattice resonance at said second wavelength, arising from coupling of localized surface plasmon resonances in said individual antenna elements to photonic modes supported by the system comprising the plasmonic antenna array and the wavelength converting layer, wherein said plasmonic antenna array is configured to comprise plasmon resonance modes such that light emitted from said plasmonic antenna array has an anisotropic angle distribution.
A process for the production of polyurethane rigid foams by reaction of a) at least one polyisocyanate with b) compounds with at least two hydrogen atoms reactive with isocyanate groups, and c) at least one blowing agent, wherein for the compounds b) with at least two hydrogen atoms reactive with isocyanate groups a mixture of b1) at least one polyether alcohol with a hydroxyl number from 380 to 500 mg KOH/g, producible by addition of butylene oxide, optionally in combination with at least one further alkylene oxide, to at least one OH or NH functional starter compound with a functionality of 4 to 8 with the aid of a basic catalyst, b2) at least one polyether alcohol with a hydroxyl number from 360 to 450 mg KOH/g, producible by addition of an alkylene oxide to at least one aromatic or aliphatic amine, and b3) optionally at least one polyether polyol with a hydroxyl number from 140 to 280 mg KOH/g, producible by addition of an alkylene oxide to at least one OH or NH functional starter compound, is used. a) at least one polyisocyanate with b) compounds with at least two hydrogen atoms reactive with isocyanate groups, and c) at least one blowing agent, wherein for the compounds b) with at least two hydrogen atoms reactive with isocyanate groups a mixture of b1) at least one polyether alcohol with a hydroxyl number from 380 to 500 mg KOH/g, producible by addition of butylene oxide, optionally in combination with at least one further alkylene oxide, to at least one OH or NH functional starter compound with a functionality of 4 to 8 with the aid of a basic catalyst, b2) at least one polyether alcohol with a hydroxyl number from 360 to 450 mg KOH/g, producible by addition of an alkylene oxide to at least one aromatic or aliphatic amine, and b3) optionally at least one polyether polyol with a hydroxyl number from 140 to 280 mg KOH/g, producible by addition of an alkylene oxide to at least one OH or NH functional starter compound, is used. b1) at least one polyether alcohol with a hydroxyl number from 380 to 500 mg KOH/g, producible by addition of butylene oxide, optionally in combination with at least one further alkylene oxide, to at least one OH or NH functional starter compound with a functionality of 4 to 8 with the aid of a basic catalyst, b2) at least one polyether alcohol with a hydroxyl number from 360 to 450 mg KOH/g, producible by addition of an alkylene oxide to at least one aromatic or aliphatic amine, and b3) optionally at least one polyether polyol with a hydroxyl number from 140 to 280 mg KOH/g, producible by addition of an alkylene oxide to at least one OH or NH functional starter compound,
A method of intervention by at least one operator in a radioactive zone, the method comprising the following steps: - obtaining a digital model representing the three-dimensional topography of the radioactive zone; - intervention of at least one operator in the radioactive zone, the intervention step comprising at least the following sub-steps: * repeatedly, measuring an intensity of the radioactive radiation by a portable detector carried by the at least one operator, and determining the spatial coordinates of the portable detector at the time of measurement; * recording in the digital model of a plurality of said measurements and the corresponding spatial coordinates; * materialisation of the recorded measurements in an augmented reality device carried by the at least one operator, by a plurality of discrete holographic symbols, using the digital model, each holographic symbol indicating the intensity of the radioactive radiation of one of the recorded measurements and being placed so as to appear visible to the at least one operator at the corresponding spatial coordinates. - obtaining a digital model representing the three-dimensional topography of the radioactive zone; - intervention of at least one operator in the radioactive zone, the intervention step comprising at least the following sub-steps: * repeatedly, measuring an intensity of the radioactive radiation by a portable detector carried by the at least one operator, and determining the spatial coordinates of the portable detector at the time of measurement; * recording in the digital model of a plurality of said measurements and the corresponding spatial coordinates; * materialisation of the recorded measurements in an augmented reality device carried by the at least one operator, by a plurality of discrete holographic symbols, using the digital model, each holographic symbol indicating the intensity of the radioactive radiation of one of the recorded measurements and being placed so as to appear visible to the at least one operator at the corresponding spatial coordinates. * repeatedly, measuring an intensity of the radioactive radiation by a portable detector carried by the at least one operator, and determining the spatial coordinates of the portable detector at the time of measurement; * recording in the digital model of a plurality of said measurements and the corresponding spatial coordinates; * materialisation of the recorded measurements in an augmented reality device carried by the at least one operator, by a plurality of discrete holographic symbols, using the digital model, each holographic symbol indicating the intensity of the radioactive radiation of one of the recorded measurements and being placed so as to appear visible to the at least one operator at the corresponding spatial coordinates.
A negative electrode plate, comprising: a metal foil; a first active material layer directly disposed on a top surface of the metal foil; and a second active material layer directly disposed on a bottom surface of the metal foil, wherein a crystalline system of any active material in the first active material layer is different from a crystalline system of any active material in the second active material layer, and wherein the first active material layer comprises lithium titanate with spinel structure, and the second active material layer comprises titanium niobate with monoclinic crystal system. a metal foil; a first active material layer directly disposed on a top surface of the metal foil; and a second active material layer directly disposed on a bottom surface of the metal foil, wherein a crystalline system of any active material in the first active material layer is different from a crystalline system of any active material in the second active material layer, and wherein the first active material layer comprises lithium titanate with spinel structure, and the second active material layer comprises titanium niobate with monoclinic crystal system.
A method of monitoring the tension of a dicing tape which serves as a wafer mounting tool during a wafer cutting process, the method characterized in: acquiring tension data (Tdat) indicative of the dicing tape tension by automated optical inspection of each dicing tape; and storing the tension data (Tdat) for a specific dicing tape in a database, the database is configured to link the tension data (Tdat) to a wafer identifier of the wafer which is diced on the specific dicing tape. acquiring tension data (Tdat) indicative of the dicing tape tension by automated optical inspection of each dicing tape; and storing the tension data (Tdat) for a specific dicing tape in a database, the database is configured to link the tension data (Tdat) to a wafer identifier of the wafer which is diced on the specific dicing tape.
A colour vision deficiency test, comprising a set of test plates, each test plate comprising a background formed from background elements, said set of test plates comprising three types of plates characterized by background properties, wherein the first type of plates are plates with test symbols formed from same-size square test symbol elements on a background formed from same-size square background elements, the second type of plates are plates with test symbols on a background formed from grey circle background elements and the third type of plates are plates with test symbols on a background formed from coloured circle background elements.
Bipolar plate for a fuel cell, comprising: an anode plate having an anode side and a coolant side, wherein on the anode side is formed a first structuring for forming an anode flow field, and a cathode plate having a cathode side and a coolant side, wherein on the cathode side is formed a second structuring for forming a cathode flow field; wherein between the anode plate and the cathode plate are arranged structure elements (51a, 51b, 51c) for forming a coolant flow field, characterised in that the structure elements (51a, 51b, 51c) consist of an elastic material and the structure elements (51a, 51b, 51c) in the uninstalled state of the bipolar plate have a different height in different regions of the coolant flow field. an anode plate having an anode side and a coolant side, wherein on the anode side is formed a first structuring for forming an anode flow field, and a cathode plate having a cathode side and a coolant side, wherein on the cathode side is formed a second structuring for forming a cathode flow field; wherein between the anode plate and the cathode plate are arranged structure elements (51a, 51b, 51c) for forming a coolant flow field, characterised in that the structure elements (51a, 51b, 51c) consist of an elastic material and the structure elements (51a, 51b, 51c) in the uninstalled state of the bipolar plate have a different height in different regions of the coolant flow field.
An information processing system comprising: processing circuitry (112, 212) configured to generate an image including user interface images of multiple users (Ua, Ub, Ud), wherein the image is generated based on an image captured by a camera, acquire by a microphone with variable directionality multiple voice samples inputted by the multiple users (Ua, Ub, Ud), recognize a voice sample inputted by a user from the multiple voice samples inputted by the multiple users, generate data to control a display device (100, 200) to superimpose on a displayed image of the generated image a control object (IC1, IC2) associated with the voice sample input by the user and being used to control voice recognition, wherein the voice recognition is controlled based on a displayed positional relationship between the control object (IC1, IC2) and a body part of the user in the displayed image, wherein the displayed image is a feedback image of a gesture operation performed by the multiple users (Ua, Ub, Ud), and pass the right to speak for voice recognition from the user to another user, wherein the right to speak for voice recognition is passed by setting the directionality of the microphone at a predetermined angle, wherein the predetermined angle is determined based on the angle of view of the camera and the displayed position of the control object (IC1, IC2) in the displayed image. generate an image including user interface images of multiple users (Ua, Ub, Ud), wherein the image is generated based on an image captured by a camera, acquire by a microphone with variable directionality multiple voice samples inputted by the multiple users (Ua, Ub, Ud), recognize a voice sample inputted by a user from the multiple voice samples inputted by the multiple users, generate data to control a display device (100, 200) to superimpose on a displayed image of the generated image a control object (IC1, IC2) associated with the voice sample input by the user and being used to control voice recognition, wherein the voice recognition is controlled based on a displayed positional relationship between the control object (IC1, IC2) and a body part of the user in the displayed image, wherein the displayed image is a feedback image of a gesture operation performed by the multiple users (Ua, Ub, Ud), and pass the right to speak for voice recognition from the user to another user, wherein the right to speak for voice recognition is passed by setting the directionality of the microphone at a predetermined angle, wherein the predetermined angle is determined based on the angle of view of the camera and the displayed position of the control object (IC1, IC2) in the displayed image.