mhurhangee/ep-ind-claims huggingface dataset:
A process for the preparation of a melamine-formaldehyde free poly(urea-urethane) core-shell microcapsule slurry comprising the steps of: 1) admixing an oil comprising an active ingredient, preferably a perfume, with at least one polyisocyanate having at least three isocyanate functional groups to form an oil phase, provided that the oil phase is essentially free from diisocyanate; 2) preparing a water phase under acidic conditions, preferably at pH below 4.5, comprising at least one anionic biosourced polyol and a catalyst comprising a protic acid having a pKa below 4.5; 3) adding the oil phase to the water phase to form an oil-in-water dispersion; 4) performing a curing step to form a microcapsule slurry; 5) optionally adding at least one cationic copolymer to the capsule slurry; said process being performed without substantial amount of amine or polyamine being added at any stage of the process, characterised in that the anionic biosourced polyol is selected from the group consisting of lignin, lignin sulfate, carboxymethyl cellulose, alginic acid sodium salt, polygalacturonic acid, dextran sulphate sodium salt and mixtures thereof, and characterised in that the protic acid is chosen in the group consisting of glyoxylic acid, tartaric acid, fumaric acid, salicylic acid, sulfuric acid, nitric acid, chlorhydric acid, malic acid, lactic acid, and mixtures thereof. 1) admixing an oil comprising an active ingredient, preferably a perfume, with at least one polyisocyanate having at least three isocyanate functional groups to form an oil phase, provided that the oil phase is essentially free from diisocyanate; 2) preparing a water phase under acidic conditions, preferably at pH below 4.5, comprising at least one anionic biosourced polyol and a catalyst comprising a protic acid having a pKa below 4.5; 3) adding the oil phase to the water phase to form an oil-in-water dispersion; 4) performing a curing step to form a microcapsule slurry; 5) optionally adding at least one cationic copolymer to the capsule slurry; said process being performed without substantial amount of amine or polyamine being added at any stage of the process, characterised in that the anionic biosourced polyol is selected from the group consisting of lignin, lignin sulfate, carboxymethyl cellulose, alginic acid sodium salt, polygalacturonic acid, dextran sulphate sodium salt and mixtures thereof, and characterised in that the protic acid is chosen in the group consisting of glyoxylic acid, tartaric acid, fumaric acid, salicylic acid, sulfuric acid, nitric acid, chlorhydric acid, malic acid, lactic acid, and mixtures thereof.
A dry powder formulation for inhalation comprising spray-dried particles that comprise a core of a first active ingredient in substantially crystalline form that is coated with a layer of a second active ingredient in substantially amorphous form that is dispersed in a pharmaceutically acceptable hydrophobic excipient.
A method for facilitating provision of food product information, comprising; providing a food package, wherein the food package is provided with a visual marker,, providing a physical container, different from the food package, capturing, by a camera of a user device, authentic image data depicting the visual marker and the physical container, extracting marker data from the authentic image data, retrieving artificial image data linked to the marker data from an artificial image database, wherein the artificial image data depicts at least one food product component of a food product held in the food package, determining an artificial image spatial reference point based on the visual marker, determining geometric data for the physical container in the authentic image data, generating adjusted artificial image data by adjusting the artificial image data based on the geometric data for the physical container, generating the augmented image data by combining the authentic image data, the adjusted artificial image data and the artificial image spatial reference point, and providing the augmented data to a screen of the user device. providing a food package, wherein the food package is provided with a visual marker,, providing a physical container, different from the food package, capturing, by a camera of a user device, authentic image data depicting the visual marker and the physical container, extracting marker data from the authentic image data, retrieving artificial image data linked to the marker data from an artificial image database, wherein the artificial image data depicts at least one food product component of a food product held in the food package, determining an artificial image spatial reference point based on the visual marker, determining geometric data for the physical container in the authentic image data, generating adjusted artificial image data by adjusting the artificial image data based on the geometric data for the physical container, generating the augmented image data by combining the authentic image data, the adjusted artificial image data and the artificial image spatial reference point, and providing the augmented data to a screen of the user device.
Method for monitoring and/or controlling a flow drill and thread forming process by means of closed-loop control, in which method a joining element, in particular a flow drill screw, is driven with a rotational speed, with a torque and with a feed force by a distance (penetration depth) through a workpiece, comprising the following method steps: a) detecting a process parameter (R(t)); b) determining the smoothed curve (R*(t)) of this process parameter (R(t)); c) determining the difference (D(t)) between the process parameter (R(t)) and its smoothed profile (R*(t)), D(t) = R(t) - R*(t) d) changing a process parameter (R, M, N, F...) on the basis of the difference (D(t)), wherein the detected and smoothed process parameter (R(t), R*(t)) is formed e 1) with the rotational speed and the torque or e 2) with the rotational speed and the torque and the penetration depth or e 3) with the penetration depth or e 4) with the rotational speed and the torque and the penetration depth and the feed force, preferably with the condition R ∼ M ⋅ N / Z + β, with a predeterminable summand (β). a) detecting a process parameter (R(t)); b) determining the smoothed curve (R*(t)) of this process parameter (R(t)); c) determining the difference (D(t)) between the process parameter (R(t)) and its smoothed profile (R*(t)), D(t) = R(t) - R*(t) d) changing a process parameter (R, M, N, F...) on the basis of the difference (D(t)), e 1) with the rotational speed and the torque or e 2) with the rotational speed and the torque and the penetration depth or e 3) with the penetration depth or e 4) with the rotational speed and the torque and the penetration depth and the feed force, preferably with the condition R ∼ M ⋅ N / Z + β, with a predeterminable summand (β).
An electronic system for generating logos and/or images, characterised in that it comprises: - a user interface module designed to allow the insertion of a combination of alphanumeric characters by a user; - a memory containing a plurality of graphical symbols each having a predetermined central point, a plurality of alphanumeric characters, and a database designed to correlate each alphanumeric character to at least one graphical symbol contained in the memory; - a processor associated with the interface module for receiving the alphanumeric combination inserted by the user, configured for picking up from the memory the graphical symbols corresponding to the alphanumeric characters of the combination and programmed to combine together the graphical symbols superposing them at the central point to obtain a logo and/or an image corresponding to the alphanumeric combination; - at least one display module associated with the processor and configured for providing the user with a graphical representation of the logo and/or image. - a user interface module designed to allow the insertion of a combination of alphanumeric characters by a user; - a memory containing a plurality of graphical symbols each having a predetermined central point, a plurality of alphanumeric characters, and a database designed to correlate each alphanumeric character to at least one graphical symbol contained in the memory; a plurality of graphical symbols each having a predetermined central point, a plurality of alphanumeric characters, and a database designed to correlate each alphanumeric character to at least one graphical symbol contained in the memory; - a processor associated with the interface module for receiving the alphanumeric combination inserted by the user, configured for picking up from the memory the graphical symbols corresponding to the alphanumeric characters of the combination and programmed to combine together the graphical symbols superposing them at the central point to obtain a logo and/or an image corresponding to the alphanumeric combination; - at least one display module associated with the processor and configured for providing the user with a graphical representation of the logo and/or image.
Photovoltaic solar energy system comprising: - a base structure; - a rotating unit; - a rotation connection between the rotating unit and the base structure, the rotation connection defining a pivot axis of the rotating unit, the rotating unit comprising: - a set of bifacial photovoltaic solar cells, jointly defining two opposite surfaces intended to absorb energy from solar radiation; - a support frame of said cells, the frame comprising at least one arm for offsetting cells with respect to the base structure, a low end of the offsetting arm being connected to the rotation connection; - two mirrors each defining a reflector surface configured to reflect the light in the direction of the set of cells, preferably in the direction of an indirect absorption surface of this set, the two mirrors being arranged respectively on either side of the offsetting arm, characterised in that at least one of the two mirrors is mobile by having a first end pivotably mounted on a means sliding along the offsetting arm, the sliding means able to be displaced between a high position bringing the mobile mirror into a configuration of maximum extent, and a low position bringing the mobile mirror into a configuration of minimum extent wherein a second end of the mobile mirror, opposite the first end, is located closer to the offsetting arm than in the configuration of maximum extent. - a base structure; - a rotating unit; - a rotation connection between the rotating unit and the base structure, the rotation connection defining a pivot axis of the rotating unit, - a set of bifacial photovoltaic solar cells, jointly defining two opposite surfaces intended to absorb energy from solar radiation; - a support frame of said cells, the frame comprising at least one arm for offsetting cells with respect to the base structure, a low end of the offsetting arm being connected to the rotation connection; - two mirrors each defining a reflector surface configured to reflect the light in the direction of the set of cells, preferably in the direction of an indirect absorption surface of this set, the two mirrors being arranged respectively on either side of the offsetting arm,
An exoskeleton comprising articulated segments forming the structure of the exoskeleton, means for attaching said exoskeleton to a user and joints between said segments and/or said means, wherein said exoskeleton is a lower limb exoskeleton comprising at least a thigh segment and a shank segment or said exoskeleton is an upper limb exoskeleton comprising at least an arm segment and a forearm segment; at least one of said segments comprising two main parts (2110, 2120) or halves, the segments being configured to be adjustable in length to allow variation of the distance between the two ends of the two main parts by sliding; each of said main parts of said at least one segment is formed by at least five layers (2111, 2112, 2113, 2114, 2115) of material assembled together in a sandwich construction by gluing and/or by pins or screws; each of said segments comprises four outermost layers (2111, 2112, 2114, 2115) made of high-strength material selected from a list comprising carbon-fiber sheets, glass-fiber composites, Kevlar-fiber composites, Dyneema-fiber composites, aluminum, magnesium, titanium and steel; each of said segments comprises an innermost layer made of lower-strength and lower-density material selected from a list comprising wood foams, open-cell foam, closed-cell foams, honeycomb structure, thermoplastic and thermoset. said exoskeleton is a lower limb exoskeleton comprising at least a thigh segment and a shank segment or said exoskeleton is an upper limb exoskeleton comprising at least an arm segment and a forearm segment; at least one of said segments comprising two main parts (2110, 2120) or halves, the segments being configured to be adjustable in length to allow variation of the distance between the two ends of the two main parts by sliding; each of said main parts of said at least one segment is formed by at least five layers (2111, 2112, 2113, 2114, 2115) of material assembled together in a sandwich construction by gluing and/or by pins or screws; each of said segments comprises four outermost layers (2111, 2112, 2114, 2115) made of high-strength material selected from a list comprising carbon-fiber sheets, glass-fiber composites, Kevlar-fiber composites, Dyneema-fiber composites, aluminum, magnesium, titanium and steel; each of said segments comprises an innermost layer made of lower-strength and lower-density material selected from a list comprising wood foams, open-cell foam, closed-cell foams, honeycomb structure, thermoplastic and thermoset.
A polymer electrolyte, wherein the polymer electrolyte at least contains one carbonate structure, one ester structure, one boron structure, and one fluorine structure; the carbonate structure, the ester structure, the boron structure, and the fluorine structure can be combined with each other to form different chain sections; preferably, a unit mole of the polymer electrolyte contains 0.8-0.95 mole part of the carbonate structure and the ester structure, and 0.01-0.25 mole part of the boron structure and the fluorine structure; preferably, the polymer electrolyte has a number average molecular weight of 500-300000; wherein the polymer electrolyte comprises a vinyl carbonate structure, a vinyl ester structure, a vinyl-containing boron-containing functional group structure, and a fluorine-containing functional group structure. preferably, a unit mole of the polymer electrolyte contains 0.8-0.95 mole part of the carbonate structure and the ester structure, and 0.01-0.25 mole part of the boron structure and the fluorine structure; preferably, the polymer electrolyte has a number average molecular weight of 500-300000; wherein the polymer electrolyte comprises a vinyl carbonate structure, a vinyl ester structure, a vinyl-containing boron-containing functional group structure, and a fluorine-containing functional group structure.
A method for manufacturing an SOI wafer, comprising: a bonding step of bonding a bond wafer composed of a silicon wafer and a base wafer composed of a silicon wafer at room temperature with a silicon oxide film interposed therebetween, the silicon oxide film being formed on a surface of at least one of the bond wafer and the base wafer; and a thinning step of thinning the bond wafer after the bonding step to manufacture an SOI wafer, wherein the method further comprises, before the bonding step: a cleaning step of cleaning the bond wafer and the base wafer with a hydrophilic cleaning liquid; and a drying step of drying the cleaned bond wafer and base wafer by at least any one drying method of suction drying and spin drying, after the drying step is ended and before the bonding step is started, the bond wafer and the base wafer are stored for a period of 50 minutes or more until a state where a bonding speed at which the bonding step is to be performed is 20 mm/second or less, wherein during the storage, the bond wafer and the base wafer are stored to be in contact with an atmosphere having a temperature of 25±5°C and a humidity of 40±20%, and the bonding is performed with the bonding speed of 20 mm/second or less. a bonding step of bonding a bond wafer composed of a silicon wafer and a base wafer composed of a silicon wafer at room temperature with a silicon oxide film interposed therebetween, the silicon oxide film being formed on a surface of at least one of the bond wafer and the base wafer; and a thinning step of thinning the bond wafer after the bonding step to manufacture an SOI wafer, wherein the method further comprises, before the bonding step: a cleaning step of cleaning the bond wafer and the base wafer with a hydrophilic cleaning liquid; and a drying step of drying the cleaned bond wafer and base wafer by at least any one drying method of suction drying and spin drying, after the drying step is ended and before the bonding step is started, the bond wafer and the base wafer are stored for a period of 50 minutes or more until a state where a bonding speed at which the bonding step is to be performed is 20 mm/second or less, wherein during the storage, the bond wafer and the base wafer are stored to be in contact with an atmosphere having a temperature of 25±5°C and a humidity of 40±20%, and the bonding is performed with the bonding speed of 20 mm/second or less. a cleaning step of cleaning the bond wafer and the base wafer with a hydrophilic cleaning liquid; and a drying step of drying the cleaned bond wafer and base wafer by at least any one drying method of suction drying and spin drying, after the drying step is ended and before the bonding step is started, the bond wafer and the base wafer are stored for a period of 50 minutes or more until a state where a bonding speed at which the bonding step is to be performed is 20 mm/second or less, wherein during the storage, the bond wafer and the base wafer are stored to be in contact with an atmosphere having a temperature of 25±5°C and a humidity of 40±20%, and the bonding is performed with the bonding speed of 20 mm/second or less.
A system for testing fatigue of a metal foil comprising: a flat tube laminated on a metal foil to simulate an electrode active material laminated on the metal foil, wherein the tube is made of a material that allows for swelling or inflating when gas is injected into the tube; a charge/discharge simulation unit including a gas injector for injecting gas to the tube and a gas discharger for discharging gas from the tube to simulate expansion and shrinkage of an electrode active material layer; a tensile strength measuring unit configured to measure tensile strength of the metal foil; and a winder configured to wind a laminate, which is generated by laminating the tube on the metal foil, in a roll structure. a flat tube laminated on a metal foil to simulate an electrode active material laminated on the metal foil, wherein the tube is made of a material that allows for swelling or inflating when gas is injected into the tube; a charge/discharge simulation unit including a gas injector for injecting gas to the tube and a gas discharger for discharging gas from the tube to simulate expansion and shrinkage of an electrode active material layer; a tensile strength measuring unit configured to measure tensile strength of the metal foil; and a winder configured to wind a laminate, which is generated by laminating the tube on the metal foil, in a roll structure.
A cosmetic cleaning agent, containing in a cosmetically acceptable vehicle, based on its total weight: a) 6 to 12 wt.% of at least one anionic surfactant, b) 0.01 to 1 wt.% of at least one cationic guar polymer, c) 0.05 to 2 wt.% of at least one silicone emulsion, in which the silicone particles have an average diameter of at most 600 nm, and d) 0.02 to 1 wt.% of at least one wax. a) 6 to 12 wt.% of at least one anionic surfactant, b) 0.01 to 1 wt.% of at least one cationic guar polymer, c) 0.05 to 2 wt.% of at least one silicone emulsion, in which the silicone particles have an average diameter of at most 600 nm, and d) 0.02 to 1 wt.% of at least one wax.
Miniaturised instrument for simulating simultaneous vision by generating masks, comprising: • a mask-generating element which generates at least two complementary masks, with a temporal frequency of alternation (3, 5) such that, sequentially, each mask lets an incident light from an object partially pass, at the same time as the at least one other mask partially blocks said incident light; • an adjustable lens of variable optical power which generates, with said temporal frequency of alternation, at least two different optical powers (1, 2) corresponding to at least two observation distances; wherein the mask-generating element and the adjustable lens are located in a single optical channel wherethrough said incident light circulates, such that each mask of the mask-generating element is temporally synchronised with each power of the adjustable lens, obtaining, via temporal fusion, a combined pupil pattern of at least two observation distances. • a mask-generating element which generates at least two complementary masks, with a temporal frequency of alternation (3, 5) such that, sequentially, each mask lets an incident light from an object partially pass, at the same time as the at least one other mask partially blocks said incident light; • an adjustable lens of variable optical power which generates, with said temporal frequency of alternation, at least two different optical powers (1, 2) corresponding to at least two observation distances;
A method for producing hydrocarbons on a line of a hydrocarbon production installation comprising at least two devices adapted each for providing an estimate of the flow rate of a fluid in the line based on respective data, the devices including at least one metric counter (30, 50, 102), and the data respective to the provision of an estimate of the flow rate by the metric counter (30, 50, 102) including a measurement done by at least one sensor of the metric counter (30, 50, 102) on the fluid, wherein the method comprises, during the production: • determining the data respective to the provision of an estimate of the flow rate by the devices, and • a data reconciliation and validation process involving the determined data, the reconciliation being conditioned by an at least substantial equality between the estimates of the flow rate of the fluid to be provided by each of the devices. • determining the data respective to the provision of an estimate of the flow rate by the devices, and • a data reconciliation and validation process involving the determined data, the reconciliation being conditioned by an at least substantial equality between the estimates of the flow rate of the fluid to be provided by each of the devices.