mhurhangee/ep-ind-claims huggingface dataset:
A post-foaming composition comprising: a) water; b) one or more anionic surfactants in an amount of about 2 to about 20% by weight of the composition; c) one or more amine oxide surfactants in an amount of about 1 to about 10% by weight of the composition; d) a hydrophobically modified alkali-swellable acrylic emulsion (HASE) polymer in an amount of about 0.5 to about 3% polymer solids by weight of the composition; e) a water-insoluble oil from in an amount of about 1% to about 50% by weight of the total composition, wherein the solubility of the substantially water-insoluble oil in water at 20°C is less than 50% by weight of a water/oil mixture; and f) a foaming agent comprising a non-polar saturated aliphatic hydrocarbon having from 3 to 6 carbon atoms. a) water; b) one or more anionic surfactants in an amount of about 2 to about 20% by weight of the composition; c) one or more amine oxide surfactants in an amount of about 1 to about 10% by weight of the composition; d) a hydrophobically modified alkali-swellable acrylic emulsion (HASE) polymer in an amount of about 0.5 to about 3% polymer solids by weight of the composition; e) a water-insoluble oil from in an amount of about 1% to about 50% by weight of the total composition, wherein the solubility of the substantially water-insoluble oil in water at 20°C is less than 50% by weight of a water/oil mixture; and f) a foaming agent comprising a non-polar saturated aliphatic hydrocarbon having from 3 to 6 carbon atoms.
A product comprising a container and a viscous composition contained in the container, wherein: - the composition comprises at least 8.0% by weight of whey protein, has a pH of from 6.0 to 8.0, and has an energy density of less than 200 kcal per 100 g, and - the container is a flexible container. - the composition comprises at least 8.0% by weight of whey protein, has a pH of from 6.0 to 8.0, and has an energy density of less than 200 kcal per 100 g, and - the container is a flexible container.
A cassette for being positioned within a pumping device comprising: a housing comprising a flow restrictor comprising a locking member and a spring; and a flexible tube comprising a first end attached to an inlet port and a second end attached to an outlet port of the housing, the flexible tube being positioned adjacent the flow restrictor and a stopper, the stopper being arranged on an opposite side of the tube from the flow restrictor, the locking member having a first resting position that restricts fluid flow through the tube and a second actuated position that allows fluid to flow through the tube, characterised in that the locking member is constructed and arranged to rotate from the first resting position to the second actuated position, and in that the locking member and the spring are arranged to rotate about a common axis of rotation. a housing comprising a flow restrictor comprising a locking member and a spring; and a flexible tube comprising a first end attached to an inlet port and a second end attached to an outlet port of the housing, the flexible tube being positioned adjacent the flow restrictor and a stopper, the stopper being arranged on an opposite side of the tube from the flow restrictor, the locking member having a first resting position that restricts fluid flow through the tube and a second actuated position that allows fluid to flow through the tube, characterised in that the locking member is constructed and arranged to rotate from the first resting position to the second actuated position, and in that the locking member and the spring are arranged to rotate about a common axis of rotation.
An image sensor (100, 400, 500, 600) comprising a pixel array in which a plurality of pixels for which termination of a charge accumulation operation is determined by a mechanical shutter are arrayed in a matrix, and a vertical scanning unit (220, 420, 520, 620) which is configured to scan the pixel array for each row, wherein the vertical scanning unit (220, 420, 520, 620) is configured to parallelly execute at least a part of reset operations of pixels on at least two adjacent rows of the pixel array, characterized in that the charge accumulation operation of pixels starts upon completion of the reset operation, the vertical scanning unit is configured to sequentially complete the reset operations of the pixels on the at least two adjacent rows of the pixel array, and once the reset operation of each row starts, the reset operation of said row is maintained until it is completed by the vertical scanning unit to start the charge accumulation operation.
A lock device for restricting rotational movement, comprising a bush adapted to rotate about an axial direction and to move along said axial direction; the bush comprising a first protrusion adapted to interact with a first counterpart in order to restrict, in a locked position of the first protrusion, the rotation of said bush; said lock device further comprising a second counterpart (4, 4') adapted to prevent the bush from moving in axial direction out of the locked position of the first protrusion, characterized in that said second counterpart is a handle adapted to be coupled to said bush in said axial direction; said handle comprising a first surface adapted to abut against, in a locked position of said handle, a third counterpart fixed in axial direction, in order to prevent the bush from moving in axial direction out of the locked position of the first protrusion.
A circulating fluidized bed boiler, comprising: a furnace comprising a bottom end, a top end opposite to the bottom end in a vertical direction of the furnace, and the furnace being adapted to be defined and enclosed by a ceiling disposed at the top end, an air distributor disposed at the bottom end, and a water wall disposed between the ceiling and the air distributor and configured to comprise front and rear walls and left and right side walls formed by water cooling wall tubes, and the water wall being provided with secondary air ports near the bottom end for introducing secondary air into the furnace and furnace flue gas outlets near the top end of the furnace; at least two cyclones connected to the furnace flue gas outlets and each comprising a solid outlet and a flue gas outlet; a loop-seal connected to the solid outlets of the cyclones and a portion of water wall near the bottom end, respectively; and a flue gas duct connected to the flue gas outlets of the cyclones, characterized in that the water cooling wall tubes of the water wall are adapted to form at least one vertical columnar recessed segment (BCDE, FGHI, SRQP, ONML) recessed inwards and configured to extend at least 15% of a height of the furnace in the vertical direction, and wherein the secondary air ports are arranged in a flat part and/or at a corner of the at least one vertical columnar recessed segment (BCDE, FGHI, SRQP, ONML). at least two cyclones connected to the furnace flue gas outlets and each comprising a solid outlet and a flue gas outlet; a loop-seal connected to the solid outlets of the cyclones and a portion of water wall near the bottom end, respectively; and a flue gas duct connected to the flue gas outlets of the cyclones, characterized in that the water cooling wall tubes of the water wall are adapted to form at least one vertical columnar recessed segment (BCDE, FGHI, SRQP, ONML) recessed inwards and configured to extend at least 15% of a height of the furnace in the vertical direction, and wherein the secondary air ports are arranged in a flat part and/or at a corner of the at least one vertical columnar recessed segment (BCDE, FGHI, SRQP, ONML).
A system comprising: a compressor connected to a condenser and an evaporator; an evaporator sensor that outputs an evaporator signal corresponding to at least one of a sensed evaporator pressure and a sensed evaporator temperature; an inverter drive that modulates a frequency of electric power delivered to said compressor to modulate a speed of said compressor; a control module connected to said inverter drive that determines a measured evaporator temperature based on said evaporator signal, that monitors electric power data and compressor speed data from said inverter drive, characterized by a discharge temperature sensor that outputs a discharge temperature signal corresponding to a temperature of refrigerant exiting said compressor; wherein the control module calculates a derived evaporator temperature based on said electric power data, said compressor speed data, said discharge temperature signal, and compressor map data for said compressor, compares said measured evaporator temperature with said derived evaporator temperature, and selectively updates said compressor map data based on said comparison. a compressor connected to a condenser and an evaporator; an evaporator sensor that outputs an evaporator signal corresponding to at least one of a sensed evaporator pressure and a sensed evaporator temperature; an inverter drive that modulates a frequency of electric power delivered to said compressor to modulate a speed of said compressor; a control module connected to said inverter drive that determines a measured evaporator temperature based on said evaporator signal, that monitors electric power data and compressor speed data from said inverter drive, characterized by a discharge temperature sensor that outputs a discharge temperature signal corresponding to a temperature of refrigerant exiting said compressor; wherein the control module calculates a derived evaporator temperature based on said electric power data, said compressor speed data, said discharge temperature signal, and compressor map data for said compressor, compares said measured evaporator temperature with said derived evaporator temperature, and selectively updates said compressor map data based on said comparison.
A nonaqueous electrolytic solution for electric double layer capacitors prepared by dissolving a quaternary ammonium salt represented by the general formula: Q + X- wherein Q + represents a quaternary ammonium cation, X - represents a counter ion selected from the group consisting of PF 6 -, BF 4 -, AsF 6 -, N(CF 3 SO 3) 2 -, SbF 6 -, and RfSO 3 -, wherein Rf is a fluoroalkyl group having 1 to 8 carbon atoms, as an electrolyte in a nonaqueous solvent, the quaternary ammonium salt excluding spiro quaternary ammonium tetrafluoroborate, characterized by the nonaqueous electrolytic solution having an alkali metal cation concentration of more than 10 ppm and not more than 30 ppm. wherein Q + represents a quaternary ammonium cation, X - represents a counter ion selected from the group consisting of PF 6 -, BF 4 -, AsF 6 -, N(CF 3 SO 3) 2 -, SbF 6 -, and RfSO 3 -, wherein Rf is a fluoroalkyl group having 1 to 8 carbon atoms, as an electrolyte in a nonaqueous solvent, the quaternary ammonium salt excluding spiro quaternary ammonium tetrafluoroborate, characterized by the nonaqueous electrolytic solution having an alkali metal cation concentration of more than 10 ppm and not more than 30 ppm.
A nonaqueous electrolyte secondary battery comprising: a positive electrode; a negative electrode comprising a negative electrode current collector and a negative electrode mixed-material layer disposed on the negative electrode current collector, the negative electrode mixed-material layer comprising a titanium-containing metal oxide and a binder, the titanium-containing metal oxide having lithium ions inserted into and extracted from, the binder comprising an acrylic resin, and the negative electrode satisfying equation; and a nonaqueous electrolyte: α / β > 1.36 × 10 − 2 where "α" represents a peel strength (N/m) measured as disclosed in the description between the negative electrode current collector and the negative electrode mixed-material layer, and "β" represents a cutting strength (N/m) as measured according to a surface and interfacial cutting method in the negative electrode mixed-material layer, as measured according the description. a positive electrode; a negative electrode comprising a negative electrode current collector and a negative electrode mixed-material layer disposed on the negative electrode current collector, the negative electrode mixed-material layer comprising a titanium-containing metal oxide and a binder, the titanium-containing metal oxide having lithium ions inserted into and extracted from, the binder comprising an acrylic resin, and the negative electrode satisfying equation; and a nonaqueous electrolyte: α / β > 1.36 × 10 − 2 where "α" represents a peel strength (N/m) measured as disclosed in the description between the negative electrode current collector and the negative electrode mixed-material layer, and "β" represents a cutting strength (N/m) as measured according to a surface and interfacial cutting method in the negative electrode mixed-material layer, as measured according the description.
A process for preparing an ester of (meth)acrylic acid by reaction of (meth)acrylic acid or an ester thereof with glycerol carbonate at a reaction temperature of 10 to 150°C without a solvent in the presence of at least one enzyme catalyzing the esterification reaction.
Method for determining the particle velocity (v p) of an aerosol by means of an aerosol measuring device, wherein aerosol particles of the aerosol flowing through a measuring cell are illuminated with an electromagnetic beam in the measuring cell, scattered light is registered by a sensor, and scattered light signals of the aerosol particles are detected, wherein the temporal signal durations (t s) of the scattered light signals of the aerosol particles are determined, and the particle velocity (v p) of the aerosol is determined on the basis of the signal durations (t s), wherein the signal durations (t s) of the scattered light signals are corrected characterized in that the signal durations (t s) are corrected by means of a frequency distribution of the signal durations (t s).
Method for securing a system being configured to perform decision tasks carried out by a machine learning engine, equipped for operating with at least one machine learning model, the system comprising at least one training component for improving the at least one machine learning model, a device comprising the machine learning engine for carrying out decisions based on said machine learning model and a set of input data, and an interaction interface for exchanging said at least one machine learning model between training component and device, wherein the device comprises a model attestation checker, the method comprising the steps of: for the device: - acquiring input data, - ascertaining at least one machine learning model over the interaction interface, for the model attestation checker: - checking if said at least one machine learning model is trusted by a model attestation, for the machine learning engine: - considering by the machine learning engine for said decision making only those machine learning models that are trusted, - carrying out the decision task for acquired input data by using said at least one trusted machine learning model, - providing a result attestation for the decision output. for the device: - acquiring input data, - ascertaining at least one machine learning model over the interaction interface, - acquiring input data, - ascertaining at least one machine learning model over the interaction interface, for the model attestation checker: - checking if said at least one machine learning model is trusted by a model attestation, - checking if said at least one machine learning model is trusted by a model attestation, for the machine learning engine: - considering by the machine learning engine for said decision making only those machine learning models that are trusted, - carrying out the decision task for acquired input data by using said at least one trusted machine learning model, - providing a result attestation for the decision output. - carrying out the decision task for acquired input data by using said at least one trusted machine learning model, - providing a result attestation for the decision output.
Photovoltaic module comprising a composition from the top or sky face to the bottom or roof face: a) a transparent front sheet b) a transparent adhesive layer c) a plastic or metallic film/foil which carries the active layers d) a back layer comprising coextruded layers tie-layer/TPO/tie-layer and a dielectric film of PET or PA e) a lower metal foil or rigid plastic sheet. a) a transparent front sheet b) a transparent adhesive layer c) a plastic or metallic film/foil which carries the active layers d) a back layer comprising coextruded layers tie-layer/TPO/tie-layer and a dielectric film of PET or PA e) a lower metal foil or rigid plastic sheet.
Process for preparing [3-[(6-chloro-3-pyridinyl)methyl]-2-thiazolidinylidene]cyanamide, comprising the following steps: (i) reaction of dimethyl N-cyanocarbonimidodithiocarbonate and cysteamine or a salt thereof in the presence of a base; (ii) reaction of the reaction mixture with 5-chloromethyl-2-chloropyridine. (i) reaction of dimethyl N-cyanocarbonimidodithiocarbonate and cysteamine or a salt thereof in the presence of a base; (ii) reaction of the reaction mixture with 5-chloromethyl-2-chloropyridine.
A filter module with a pressure pipe and a membrane arranged within it, which includes a permeate manifold, connections (3, 6, 7) for a liquid to be supplied, preferably raw water, and for discharging filtrate and retentate, a functions/connection unit, which is connected to one end of the pressure pipe and has an upper portion and a lower portion, wherein the lower portion has a receiving bore for insertion of the permeate manifold, wherein all the connections (3, 6, 7) are provided on the upper portion and flow passages communicating with the connections (3, 6, 7) extend through the lower portion, wherein provided between the pressure pipe and the membrane there is an open annular space, through which the supplied liquid can flow to the underside of the membrane, and wherein the pressure pipe has a closed base, characterised in that the flow passage for the fluid to be supplied communicates with a circumferential annular gap, arranged in a radial plane, in the lower portion, from which the fluid can flow outwardly uniformly distributed into the annular space on a receiving cylinder of the membrane, wherein the receiving cylinder defines an abutment on its inner side so that the retentate can discharge on the entire end surface of the membrane.
An inter-layer video decoding method comprising: obtaining, from a bitstream, a flag indicating whether a current block is predicted by partitioning the current block into a foreground segment and a background segment based on a depth block corresponding to the current block; generating a merge candidate list including at least one merge candidate for the current block; determining motion information of the current block by using motion information of one of the at least one merge candidate included in the merge candidate list; and decoding the current block by using the determined motion information, wherein when the flag indicates that the current block is predicted by partitioning the current block into the foreground segment and the background segment, a view synthesis prediction candidate is not added to the merge candidate list. obtaining, from a bitstream, a flag indicating whether a current block is predicted by partitioning the current block into a foreground segment and a background segment based on a depth block corresponding to the current block; generating a merge candidate list including at least one merge candidate for the current block; determining motion information of the current block by using motion information of one of the at least one merge candidate included in the merge candidate list; and decoding the current block by using the determined motion information, wherein when the flag indicates that the current block is predicted by partitioning the current block into the foreground segment and the background segment, a view synthesis prediction candidate is not added to the merge candidate list.
A money handling system that is configured to handle money, comprising: a money depositing unit configured to receive money for a money depositing process; a recognition unit configured to recognize a denomination and authenticity of each of the money received by the money depositing unit; and a control unit configured to calculate a deposited amount and perform the money depositing process based on recognition result obtained by the recognition unit, wherein when a transaction, in which the money recognized as suspected of being counterfeit is detected, is cancelled before the transaction is completed, the control unit is configured to return an amount of genuine money equivalent to a total of the money recognized as suspected of being counterfeit and the money recognized by the recognition unit as genuine money in the transaction without returning the money recognized as suspected of being counterfeit. a money depositing unit configured to receive money for a money depositing process; a recognition unit configured to recognize a denomination and authenticity of each of the money received by the money depositing unit; and a control unit configured to calculate a deposited amount and perform the money depositing process based on recognition result obtained by the recognition unit, wherein when a transaction, in which the money recognized as suspected of being counterfeit is detected, is cancelled before the transaction is completed, the control unit is configured to return an amount of genuine money equivalent to a total of the money recognized as suspected of being counterfeit and the money recognized by the recognition unit as genuine money in the transaction without returning the money recognized as suspected of being counterfeit.
Cooking device exhibiting a support comprising an internal and/or upper face capable of receiving foodstuffs and an external and/or lower face, the said internal and/or upper face being coated with a non-stick coating forming a cooking surface, characterized in that the said non-stick coating comprises at least a thin continuous film of polymer-derived non-oxide ceramic or of at least partially polymer-derived non-oxide ceramic, the said thin film forming the cooking surface and exhibiting a thickness of between 0.5 and 50 μm.
A computer-implemented face editing method, comprising: acquiring a face image in an image to be processed; converting an attribute of the face image according to an editing attribute to generate an attribute image; characterized in that, the method further comprises: segmenting semantically the attribute image to divide face parts in the attribute image, determining different edited parts of the face parts according to the editing attribute to generate a mask image with values of pixels in the edited parts being 1, and values of pixels in the remaining parts of the face parts being 0; and merging the attribute image with the image to be processed using the mask image to generate a result image. acquiring a face image in an image to be processed; converting an attribute of the face image according to an editing attribute to generate an attribute image; segmenting semantically the attribute image to divide face parts in the attribute image, determining different edited parts of the face parts according to the editing attribute to generate a mask image with values of pixels in the edited parts being 1, and values of pixels in the remaining parts of the face parts being 0; and merging the attribute image with the image to be processed using the mask image to generate a result image.