mhurhangee/ep-ind-claims huggingface dataset:
A display device comprising: a base layer including a display area and a non-display area; and a plurality of pixels provided in the display area, and each including a plurality of sub-pixels (SP1, SP2, SP3), wherein each of the sub-pixels (SP1, SP2, SP3) comprises a pixel circuit layer and a display element layer disposed on the pixel circuit layer, wherein the display element layer comprises: a partition wall disposed in each of the sub-pixels (SP1, SP2, SP3); a bank disposed between the sub-pixels (SP1, SP2, SP3) adjacent to each other; a first electrode and a second electrode disposed on the partition wall and provided to be spaced apart from each other; and at least one light emitting element disposed between the first electrode and the second electrode and configured to emit light, characterised in that the display element layer further comprises: a reflective pattern disposed on the bank and an insulating layer disposed on the reflective pattern. a base layer including a display area and a non-display area; and a plurality of pixels provided in the display area, and each including a plurality of sub-pixels (SP1, SP2, SP3), wherein each of the sub-pixels (SP1, SP2, SP3) comprises a pixel circuit layer and a display element layer disposed on the pixel circuit layer, wherein the display element layer comprises: a partition wall disposed in each of the sub-pixels (SP1, SP2, SP3); a bank disposed between the sub-pixels (SP1, SP2, SP3) adjacent to each other; a first electrode and a second electrode disposed on the partition wall and provided to be spaced apart from each other; and at least one light emitting element disposed between the first electrode and the second electrode and configured to emit light, characterised in that the display element layer further comprises: a reflective pattern disposed on the bank and an insulating layer disposed on the reflective pattern. a partition wall disposed in each of the sub-pixels (SP1, SP2, SP3); a bank disposed between the sub-pixels (SP1, SP2, SP3) adjacent to each other; a first electrode and a second electrode disposed on the partition wall and provided to be spaced apart from each other; and at least one light emitting element disposed between the first electrode and the second electrode and configured to emit light, characterised in that the display element layer further comprises: a reflective pattern disposed on the bank and an insulating layer disposed on the reflective pattern. a reflective pattern disposed on the bank and an insulating layer disposed on the reflective pattern.
A film comprising: an organic polymeric substrate having a first major surface and a second major surface; an optional acrylic hardcoat layer disposed on the first major surface of the substrate; a siliceous primer layer disposed on the organic polymeric substrate or on the optional acrylic hardcoat layer, wherein the siliceous primer layer comprises silica nanoparticles modified by an organic silane, a metal silicate, and a polyvalent metal cation salt; and a superhydrophilic surface layer disposed on the siliceous primer layer, wherein the superhydrophilic surface layer comprises hydrophilic-functional groups. an organic polymeric substrate having a first major surface and a second major surface; an optional acrylic hardcoat layer disposed on the first major surface of the substrate; a siliceous primer layer disposed on the organic polymeric substrate or on the optional acrylic hardcoat layer, wherein the siliceous primer layer comprises silica nanoparticles modified by an organic silane, a metal silicate, and a polyvalent metal cation salt; and a superhydrophilic surface layer disposed on the siliceous primer layer, wherein the superhydrophilic surface layer comprises hydrophilic-functional groups.
An operation control method for a gas turbine using low-quality fuel containing corrosive impurities, comprising the steps of: establishing a salt map of the corrosive salt generated by combustion by calculating a dew point temperature line and a solidus temperature line of the salt in dependency of pressure, determining the area on the salt map where the corrosive salt is in a liquid phase, calculating a surface temperature-pressure distribution area of the turbine component (21, 22) based on component design data and superposing this distribution area to the salt map, identifying the region where the surface temperature-pressure distribution area overlaps with the liquid phase area on the salt map as component corrosion region, predicting a lifetime of the component based on a corrosion rate, controlling the fuel flow rate to the combustor on the basis of the lifetime prediction so that the surface temperature-pressure distribution area of the turbine component (21, 22) does not overlap the liquid phase region on the salt map. establishing a salt map of the corrosive salt generated by combustion by calculating a dew point temperature line and a solidus temperature line of the salt in dependency of pressure, determining the area on the salt map where the corrosive salt is in a liquid phase, calculating a surface temperature-pressure distribution area of the turbine component (21, 22) based on component design data and superposing this distribution area to the salt map, identifying the region where the surface temperature-pressure distribution area overlaps with the liquid phase area on the salt map as component corrosion region, predicting a lifetime of the component based on a corrosion rate, controlling the fuel flow rate to the combustor on the basis of the lifetime prediction so that the surface temperature-pressure distribution area of the turbine component (21, 22) does not overlap the liquid phase region on the salt map.
Earth drilling device having a percussion piston for drilling in the ground which has at least one housing portion for the percussion piston, wherein an insert is arranged in the housing between the drill head tip and the percussion piston in such a manner that said insert transmits at least part of the energy of the percussion piston to said housing, characterized in that the insert is held in the housing by means of a shrink-fit adhesive connection.
An antibody that is immunospecific for an immunogenic region including an oxidized amino acid of an oxidized apoA-1 or an oxidized peptide fragment of apoA-I, or both, wherein the oxidized apoA-1 and oxidized apoA-1 comprising the oxidized apoA-1 fragment have reduced ABCA1-dependent cholesterol efflux activity or reduced lipid binding activity, or both, as compared to un-oxidized apoA-1, and wherein said oxidized amino acid is selected from: chlorotyrosine, nitrotyrosine, trihydroxyphenylalanine, dihydroxyphenylalanine, and tyrosine peroxide.
A method of brewing beer comprising the steps of a) providing a wort; b) adding at least one hop variety to obtain a hopped wort; c) fermenting the hopped wort with a first yeast strain, wherein the first yeast strain is a Pichia kluyveri; and d) fermenting the hopped wort with a second yeast strain to obtain a beer, wherein the second yeast strain belongs to the genera Saccharomyces or Brettanomyces. a) providing a wort; b) adding at least one hop variety to obtain a hopped wort; c) fermenting the hopped wort with a first yeast strain, wherein the first yeast strain is a Pichia kluyveri; and d) fermenting the hopped wort with a second yeast strain to obtain a beer,
A method for bridging an obstacle with an unmanned ground vehicle bridging system, comprising: supporting a first end of a first elongated span of a hinged bridge structure on a deployment support bracket which is secured to a UGV; at a second end of the first elongated span opposed from the first end, hingedly supporting a second elongated span on a hinge system having a hinge axis aligned transverse to an elongated length of the first and second elongated spans; using a tension element to apply a tension force to the first elongated span at a location intermediate the first and second ends to secure the first elongated span in a stowed position adjacent the deployment support bracket; using a retention element disposed on the deployment support bracket to prevent a spring bias force acting on the second elongated span from causing the second elongated span from rotating about the hinge axis from a closed configuration in which the second elongated span is adjacent to the first elongated span to an open configuration in which the second elongated span forms an obtuse angle (α) with the first elongated span; and deploying the hinged bridge structure by extending a length of the tension element. supporting a first end of a first elongated span of a hinged bridge structure on a deployment support bracket which is secured to a UGV; at a second end of the first elongated span opposed from the first end, hingedly supporting a second elongated span on a hinge system having a hinge axis aligned transverse to an elongated length of the first and second elongated spans; using a tension element to apply a tension force to the first elongated span at a location intermediate the first and second ends to secure the first elongated span in a stowed position adjacent the deployment support bracket; using a retention element disposed on the deployment support bracket to prevent a spring bias force acting on the second elongated span from causing the second elongated span from rotating about the hinge axis from a closed configuration in which the second elongated span is adjacent to the first elongated span to an open configuration in which the second elongated span forms an obtuse angle (α) with the first elongated span; and deploying the hinged bridge structure by extending a length of the tension element.
Arrangement in a cross-flow membrane separation unit, comprising a membrane element and a pressure keeping structure enclosing the membrane element, into which enclosure a pressurized input substance is led, out of which enclosure are outputs for the separated parts of the input substance, where the input substance is led into an upstream section of the membrane element, a part of the input substance is arranged to permeate in the membrane as a permeate, and the unpermeated part, a concentrate, is arranged to exit from the downstream section of the membrane element, and a portion of the concentrate is arranged to circulate back as a circulatory concentrate inside the enclosure to the upstream section of the membrane element to be mixed with the pressurized input substance, and where the mass flow into the upstream section of the membrane element is greater than the mass flow into the enclosure, and that the separation unit comprises an ejector pump element (10a, 10b, 10c) with one or more ejector pumps, characterized in that the separation unit comprises a seal (9b, 9c) that is arranged to separate the input substance that is fed to the upstream section of the membrane element and channels of the circulatory concentrate from each other.
A method for training a machine learning model, the method comprising: segmenting, by a processor, a dataset from a database (110, 230, 430, 510) into datasets based on time period windows; assigning, by the processor, weighted values to the datasets according to the time period windows of the datasets, and the weighted values decrease by half for each window from a most recent dataset to a least recent dataset; generating, by the processor, a training dataset from the datasets according to the weighted values; training, by the processor, the machine learning model using the training dataset, wherein the machine learning model comprises a solid-state drive, SSD, failure prediction model; identifying, by the processor, anomaly data in the dataset, wherein the anomaly data comprises SSD failure data; retrieving, by the processor, the anomaly data in the dataset; and adding, by the processor, the anomaly data to the training dataset. segmenting, by a processor, a dataset from a database (110, 230, 430, 510) into datasets based on time period windows; assigning, by the processor, weighted values to the datasets according to the time period windows of the datasets, and the weighted values decrease by half for each window from a most recent dataset to a least recent dataset; generating, by the processor, a training dataset from the datasets according to the weighted values; training, by the processor, the machine learning model using the training dataset, wherein the machine learning model comprises a solid-state drive, SSD, failure prediction model; identifying, by the processor, anomaly data in the dataset, wherein the anomaly data comprises SSD failure data; retrieving, by the processor, the anomaly data in the dataset; and
A metal forming apparatus, comprising: an injection device comprising a moveable injection rod and a magnet ring disposed on the injection rod, the injection rod defining a sliding channel therein; and a displacement speed monitoring device comprising a housing sealedly connected to the injection device and a linear displacement sensor disposed in the housing; wherein a rear end of the injection rod is extended into the housing such that a front end of the linear displacement sensor is located in the sliding channel. an injection device comprising a moveable injection rod and a magnet ring disposed on the injection rod, the injection rod defining a sliding channel therein; and a displacement speed monitoring device comprising a housing sealedly connected to the injection device and a linear displacement sensor disposed in the housing; wherein a rear end of the injection rod is extended into the housing such that a front end of the linear displacement sensor is located in the sliding channel.
A method comprising: - deriving chroma components ( C 12 2, C 12 3) of a standard dynamic range image by obtaining chroma components ( C 1 2, C 1 3) of a second image by applying a corrected conversion matrix to components ( C 10 m) of a first image, the first image having high dynamic range; correcting chroma components ( C 1 2, C 1 3) of a second image according to a luma component ( C 1, pre 1) of said second image and a reconstructed component obtained by applying a mapping function to said luma component ( C 1, pre 1) of said second image, providing an information data representative of the corrected conversion matrix, of the corrected inverse of the conversion matrix or the correcting factors, wherein the conversion matrix is corrected using a different correction factor for each chroma component, the correction factor being based on a maximum value for the chroma components and a maximum value of luminance of the corrected second image. - deriving chroma components ( C 12 2, C 12 3) of a standard dynamic range image by obtaining chroma components ( C 1 2, C 1 3) of a second image by applying a corrected conversion matrix to components ( C 10 m) of a first image, the first image having high dynamic range; correcting chroma components ( C 1 2, C 1 3) of a second image according to a luma component ( C 1, pre 1) of said second image and a reconstructed component obtained by applying a mapping function to said luma component ( C 1, pre 1) of said second image, a luma component ( C 1, pre 1) of said second image and a reconstructed component obtained by applying a mapping function to said luma component ( C 1, pre 1) of said second image,
A pharmaceutical formulation comprising a delivery agent and a compound of formula I and pharmaceutically acceptable salts thereof wherein: a. R 1, R 2, R 3, R 4, R 5 and R 6 are independently selected from the group consisting of H, SO 3 H or PO 3 H and provided that at least two of R 1 -R 6 is selected from SO 3 H or PO 3 H; or b. R 1, R 2, R 4, R 5 and R 6 are independently selected from H, SO 3 H or PO 3 H and R 3 is independently selected from SO 3 H or PO 3 H; or c. R 1, R 2, R 4, R 5 and R 6 are independently selected from the group consisting of H, SO 3 H or PO 3 H and R 3 is SO 3 H; wherein the delivery agent is a hydrophilic polymer. a. R 1, R 2, R 3, R 4, R 5 and R 6 are independently selected from the group consisting of H, SO 3 H or PO 3 H and provided that at least two of R 1 -R 6 is selected from SO 3 H or PO 3 H; or b. R 1, R 2, R 4, R 5 and R 6 are independently selected from H, SO 3 H or PO 3 H and R 3 is independently selected from SO 3 H or PO 3 H; or c. R 1, R 2, R 4, R 5 and R 6 are independently selected from the group consisting of H, SO 3 H or PO 3 H and R 3 is SO 3 H;
A power supply unit for supplying power to a load mounted on a vehicle, comprising: a drive power supply for supplying electric power to a drive motor and electrical components (10A, 10B) as the load; an electrical component power supply (3A, 3B) for supplying power to the electrical components (10A, 10B); a step-down converter (4A, 4B) provided between the drive power supply and the electrical components (10A, 10B); a distribution unit for distributing power of the drive power supply and the electrical component power supply (3A, 3B) to a plurality of electrical components (10A, 10B); and characterized by an accommodating unit for accommodating the drive power supply, wherein the electrical component power supply (3A, 3B), the step-down converter (4A, 4B), and the distribution unit are accommodated in the accommodating unit; a cooling unit for cooling the drive power supply and the electric component power supply; and a heat transfer unit for transferring heat by a heat transfer fluid between the drive power supply, the electric component power supply (3A, 3B), the step-down converter (4A, 4B), and the distribution unit, wherein the heat transfer fluid is forcibly circulated by a fluid feeding unit. a drive power supply for supplying electric power to a drive motor and electrical components (10A, 10B) as the load; an electrical component power supply (3A, 3B) for supplying power to the electrical components (10A, 10B); a step-down converter (4A, 4B) provided between the drive power supply and the electrical components (10A, 10B); a distribution unit for distributing power of the drive power supply and the electrical component power supply (3A, 3B) to a plurality of electrical components (10A, 10B); and characterized by an accommodating unit for accommodating the drive power supply, wherein the electrical component power supply (3A, 3B), the step-down converter (4A, 4B), and the distribution unit are accommodated in the accommodating unit; a cooling unit for cooling the drive power supply and the electric component power supply; and a heat transfer unit for transferring heat by a heat transfer fluid between the drive power supply, the electric component power supply (3A, 3B), the step-down converter (4A, 4B), and the distribution unit, wherein the heat transfer fluid is forcibly circulated by a fluid feeding unit.
A coating system comprising: a work piece; characterised by a coating delivery apparatus configured to apply a coating material to the work piece in a plasma-based vapor stream; and a first electron gun configured to direct a first electron beam at the plasma-based vapor stream at a region of the plasma-based vapor stream located upstream from the work piece, whereby thermal energy is added to the stream downstream from where the coating material transitions to a vapor phase. a work piece; characterised by a coating delivery apparatus configured to apply a coating material to the work piece in a plasma-based vapor stream; and a first electron gun configured to direct a first electron beam at the plasma-based vapor stream at a region of the plasma-based vapor stream located upstream from the work piece, whereby thermal energy is added to the stream downstream from where the coating material transitions to a vapor phase.
Composition that can be cured in the presence of water or atmospheric moisture comprising: at least one polyorganosiloxane A having one or more condensable or hydrolyzable and condensable group(s), and at least one compound C, capable of catalyzing the condensation reaction of the condensable or hydrolyzable and condensable groups of the polyorganosiloxane A, and which is a heterometallic complex whose chemical formula comprises: - at least two different metal atoms M and M', M being an atom selected from the group consisting of the atoms in columns 2 and 13 of the periodic table and M' being an atom selected from the group consisting of the atoms in column 4 of the periodic table, and - at least one alkoxide ligand or chelating ligand. at least one polyorganosiloxane A having one or more condensable or hydrolyzable and condensable group(s), and at least one compound C, capable of catalyzing the condensation reaction of the condensable or hydrolyzable and condensable groups of the polyorganosiloxane A, and which is a heterometallic complex whose chemical formula comprises: - at least two different metal atoms M and M', M being an atom selected from the group consisting of the atoms in columns 2 and 13 of the periodic table and M' being an atom selected from the group consisting of the atoms in column 4 of the periodic table, and - at least one alkoxide ligand or chelating ligand. - at least two different metal atoms M and M', M being an atom selected from the group consisting of the atoms in columns 2 and 13 of the periodic table and M' being an atom selected from the group consisting of the atoms in column 4 of the periodic table, and - at least one alkoxide ligand or chelating ligand.
Non-therapeutic cosmetic use of an essential oil of Achillea, as an active agent for preventing and/or treating the signs of skin ageing, characterized in that this essential oil of Achillea comprises the following compounds, each present at more than 5% by weight relative to the total weight of the essential oil: - artemisia ketone, - chrysanthenone (two combined isomers), and - ascaridole. - artemisia ketone, - chrysanthenone (two combined isomers), and - ascaridole.
A method for wireless communications by a base station, comprising: selecting a signaling mechanism for dynamically indicating an uplink-downlink configuration for time division duplex, TDD, operation; selecting a reconfiguration timer value from a set of one or more reconfiguration timer values; informing a user equipment, UE, of the selected signaling mechanism and the selected reconfiguration timer value; transmitting reconfiguration signals to the UE according to the selected signaling mechanism and the selected reconfiguration timer value; and receiving an acknowledgement message in an uplink subframe of the new configuration. selecting a signaling mechanism for dynamically indicating an uplink-downlink configuration for time division duplex, TDD, operation; selecting a reconfiguration timer value from a set of one or more reconfiguration timer values; informing a user equipment, UE, of the selected signaling mechanism and the selected reconfiguration timer value; transmitting reconfiguration signals to the UE according to the selected signaling mechanism and the selected reconfiguration timer value; and receiving an acknowledgement message in an uplink subframe of the new configuration.