mhurhangee/ep-ind-claims huggingface dataset:
A fractionation device for separating solutes in a raw liquid by a membrane comprising 1) a supply part for loading the raw liquid; 2) a filtration part with a membrane (5a;5b;5c) for filtering some of the solutes in the raw liquid sent from the supply part; 3) a concentration part for concentrating the filtrate from the filtration part; 4) a recovery part for recovering the concentrated solution obtained in the concentration part; 5) a flow pump for sending a mobile phase; wherein the flow pump is a tube pump provided with a rotating rotor and a roller installed in a rotating manner in the outer circumference of the rotor; characterized in that the supply part, the filtration part, the concentration part, the recovery part, and a flow channel connecting the respective parts form a closed circuit and are assembled in a disposable cartridge in which at least portions of flow channels are exposed to the outer wall of the cartridge from the outside of the cartridge, and in that the cartridge is detachable from the roller of the flow pump and is arranged such that a portion of the outer wall of the cartridge functions as a squeezing member by engaging with the roller pump to squeeze exposed portions of the flow channels when the roller is rotated in order to circulate liquids in respective parts of the cartridge. 1) a supply part for loading the raw liquid; 2) a filtration part with a membrane (5a;5b;5c) for filtering some of the solutes in the raw liquid sent from the supply part; 3) a concentration part for concentrating the filtrate from the filtration part; 4) a recovery part for recovering the concentrated solution obtained in the concentration part; 5) a flow pump for sending a mobile phase;
Tail lift for attachment to a vehicle, comprising a loading platform, a lifting mechanism which has at least one drive for lifting, lowering and/or pivoting the loading platform, and comprising at least one electronic component, which is associated with a controller, for controlling the at least one drive, characterized in that the at least one electronic component is associated with a plug-in connection comprising a plug and a plug socket which can be fastened to the tail lift, wherein the electronic component is a sensor which is integrated into the plug, and wherein the tail lift can be put into operation by plug-connecting the plug which comprises the sensor to the plug socket which is fastened to the tail lift.
Method for producing an antenna for a radiofrequency transponder on an insulating substrate (12; 12B), said antenna comprising a spiral having an axis parallel to the insulating substrate (12; 12B), said method comprising the following steps: - at least a first portion of each turn (S1-S4) is formed or arranged on said substrate at a first plane level, - at least a second portion of each turn, comprising an alternation with respect to said first portion, is formed or held at a distance (e) from said plane, and each turn (S1-S4) comprises a segment inlaid in said insulating substrate and a non-inlaid alternation in said substrate, said alternation being relative to the segment and the non-inlaid alternation extending above the plane of the substrate and forming a loop, said second portion is formed opposite an electromagnetic flux concentrator core which is arranged substantially in the axis of the spiral, between said first and second portions of each turn. - at least a first portion of each turn (S1-S4) is formed or arranged on said substrate at a first plane level, - at least a second portion of each turn, comprising an alternation with respect to said first portion, is formed or held at a distance (e) from said plane, and each turn (S1-S4) comprises a
An internal combustion engine lubricating oil composition comprising: a. a major amount of an oil of lubricating viscosity; b. an alkaline earth metal alkylhydroxybenzoate detergent having an alkyl group having an average carbon atom number in the range of from about 14 to about 18; c. an alkaline earth metal alkylhydroxybenzoate detergent having an alkyl group having an average carbon atom number in the range of from about 20 to about 28; d. about 50 to about 500 ppm of boron from a boron containing detergent, wherein the boron-containing detergent is a borated salicylate, borated sulfonate, or a combination thereof; e. a molybdenum containing compound in an amount to provide the lubricating oil composition from about 100 to about 1500 ppm molybdenum; f. a ZnDTP compound; and where the composition comprises magnesium in an amount from about 100 to about 800 ppm, and calcium in an amount from about 500 to about 2000 ppm and where the mole ratio of b:c is from about 1:5 to about 5:1 based on the alkylhydroxybenzoate molecules and the lubricating oil composition has a phosphorus content of less than or equal to about 0.12 wt. %. a. a major amount of an oil of lubricating viscosity; b. an alkaline earth metal alkylhydroxybenzoate detergent having an alkyl group having an average carbon atom number in the range of from about 14 to about 18; c. an alkaline earth metal alkylhydroxybenzoate detergent having an alkyl group having an average carbon atom number in the range of from about 20 to about 28; d. about 50 to about 500 ppm of boron from a boron containing detergent, wherein the boron-containing detergent is a borated salicylate, borated sulfonate, or a combination thereof; e. a molybdenum containing compound in an amount to provide the lubricating oil composition from about 100 to about 1500 ppm molybdenum; f. a ZnDTP compound; and
A method of generating object surface texture in thermal infrared images, comprising: receiving heat radiation from a scene by a spectropolarimetric imaging system adapted to generate a plurality of spectral frames associated within the scene; generating the plurality of spectral frames associated with the scene, each frame having a plurality of pixels; for each pixel from the generated plurality of spectral frames, extracting spectral information associated with the scene, including pixel-specific temperature representing an object's temperature, and thermal texture factor representing the object's texture; for each of a plurality of materials having a specific emissivity in a library, generating reference spectral information as a function of temperature and thermal texture; matching the extracted spectral information for each pixel from the generated plurality of spectral frames to the generated reference spectral information using a statistical method to minimize the associated variation; and extracting spectral metadata from the matched reference spectral information for the associated material based on the match, wherein the metadata correspond to the object's temperature and thermal texture factor. receiving heat radiation from a scene by a spectropolarimetric imaging system adapted to generate a plurality of spectral frames associated within the scene; generating the plurality of spectral frames associated with the scene, each frame having a plurality of pixels; for each pixel from the generated plurality of spectral frames, extracting spectral information associated with the scene, including pixel-specific temperature representing an object's temperature, and thermal texture factor representing the object's texture; for each of a plurality of materials having a specific emissivity in a library, generating reference spectral information as a function of temperature and thermal texture; matching the extracted spectral information for each pixel from the generated plurality of spectral frames to the generated reference spectral information using a statistical method to minimize the associated variation; and extracting spectral metadata from the matched reference spectral information for the associated material based on the match, wherein the metadata correspond to the object's temperature and thermal texture factor.
A method for performing, by a user equipment, UE, a Full-Duplex Radio, FDR, operation in a wireless communication system, the method comprising: transmitting (S2110, S2310), to a base station, BS, FDR capability information that represents whether to have a capability of performing the FDR operation; receiving (S2120, S2330), from the BS, Inter-Device-Interference, IDI, measurement configuration information; determining (S2130, S2340) whether or not to enter a FDR preparation mode; performing (S2140, S2350), an IDI measurement based on the received IDI measurement configuration information if the UE determines to enter the FDR preparation mode; reporting (S2150, S2360), to the BS, a result of the IDI measurement; receiving (S2160, S2370), from the BS, a control message notifying that the UE is included in a group related to the FDR operation; and transitioning from the FDR preparation mode to a FDR mode in response to the control message, wherein the FDR capability information includes indication information that represents whether to support the FDR mode for which transmission and reception operations are available to be performed simultaneously using an identical radio resource. transmitting (S2110, S2310), to a base station, BS, FDR capability information that represents whether to have a capability of performing the FDR operation; receiving (S2120, S2330), from the BS, Inter-Device-Interference, IDI, measurement configuration information; determining (S2130, S2340) whether or not to enter a FDR preparation mode; performing (S2140, S2350), an IDI measurement based on the received IDI measurement configuration information if the UE determines to enter the FDR preparation mode; reporting (S2150, S2360), to the BS, a result of the IDI measurement; receiving (S2160, S2370), from the BS, a control message notifying that the UE is included in a group related to the FDR operation; and transitioning from the FDR preparation mode to a FDR mode in response to the control message, wherein the FDR capability information includes indication information that represents whether to support the FDR mode for which transmission and reception operations are available to be performed simultaneously using an identical radio resource.
A cerium oxide represented by CeO x, wherein x is a positive number smaller than 2, and wherein the cerium oxide has a reversible oxygen deficiency, a specific surface area of above 0.6 to 1.8 m 2 /g and a pore median diameter of 1.6 to 5.3 μm.
A pressure sensor comprising: a substrate including a first side and a second side, the substrate including an opening extending between the first side and the second side; a pressure sensing die mounted directly on the first side of the substrate, wherein the pressure sensing die includes a diaphragm and one or more piezoresistive elements positioned on the diaphragm, wherein the pressure sensing die is positioned over the opening; a first housing member positioned on the first side of the substrate and defining a first cavity around the pressure sensing die, wherein the first housing member includes a first pressure opening defined by one or more first edges of the first housing member; a first passivating agent positioned in the first cavity to cover at least part of the pressure sensing die and at least part of the first side of the substrate; a second housing member positioned on the second side of the substrate and defining a second cavity, wherein the second housing member includes a second pressure opening defined by one or more second edges of the second housing member; and a second passivating agent positioned in the second cavity to cover at least part of the second side of the substrate; characterized in that the pressure sensor further comprises: a capacitor or other electrical component mounted on the second side of the substrate, wherein the second passivating agent has a greater thickness around the capacitor or other electrical component than over the opening, wherein the thickness is a measurement of depth extending away from the second side of the substrate a substrate including a first side and a second side, the substrate including an opening extending between the first side and the second side; a pressure sensing die mounted directly on the first side of the substrate, wherein the pressure sensing die includes a diaphragm and one or more piezoresistive elements positioned on the diaphragm, wherein the pressure sensing die is positioned over the opening; a first housing member positioned on the first side of the substrate and defining a first cavity around the pressure sensing die, wherein the first housing member includes a first pressure opening defined by one or more first edges of the first housing member; a first passivating agent positioned in the first cavity to cover at least part of the pressure sensing die and at least part of the first side of the substrate; a second housing member positioned on the second side of the substrate and defining a second cavity, wherein the second housing member includes a second pressure opening defined by one or more second edges of the second housing member; and a second passivating agent positioned in the second cavity to cover at least part of the second side of the substrate; characterized in that the pressure sensor further comprises: a capacitor or other electrical component mounted on the second side of the substrate, wherein the second passivating agent has a greater thickness around the capacitor or other electrical component than over the opening, wherein the thickness is a measurement of depth extending away from the second side of the substrate
A method of controlling a combine harvester, the method comprising: receiving grain flow sensor signals from a plurality of grain flow sensors provided underneath and adjacent to a crop transfer surface of a straw walker section of the combine harvester, the grain flow sensors being distributed over a length of the straw walker section, based on the received grain flow sensor signals, determining a current load on the straw walker section, and based on the current load, adjusting an aggressiveness setting of a threshing and separation section (16, 18, 20) of the combine harvester, characterised in that the method further comprises: determining that the current load is above an upper threshold and wherein the adjusting of the aggressiveness setting of the threshing and separation section (16, 18, 20) of the combine harvester comprises reducing a rotational speed of a threshing drum, a beater and/or a separation drum, and/or increasing a threshing gap between the threshing drum and a cooperating threshing grate and/or a separation gap between the separation drum and a cooperating separation grate. receiving grain flow sensor signals from a plurality of grain flow sensors provided underneath and adjacent to a crop transfer surface of a straw walker section of the combine harvester, the grain flow sensors being distributed over a length of the straw walker section, based on the received grain flow sensor signals, determining a current load on the straw walker section, and based on the current load, adjusting an aggressiveness setting of a threshing and separation section (16, 18, 20) of the combine harvester, characterised in that the method further comprises: determining that the current load is above an upper threshold and wherein the adjusting of the aggressiveness setting of the threshing and separation section (16, 18, 20) of the combine harvester comprises reducing a rotational speed of a threshing drum, a beater and/or a separation drum, and/or increasing a threshing gap between the threshing drum and a cooperating threshing grate and/or a separation gap between the separation drum and a cooperating separation grate. determining that the current load is above an upper threshold and wherein the adjusting of the aggressiveness setting of the threshing and separation section (16, 18, 20) of the combine harvester comprises reducing a rotational speed of a threshing drum, a beater and/or a separation drum, and/or increasing a threshing gap between the threshing drum and a cooperating threshing grate and/or a separation gap between the separation drum and a cooperating separation grate.
An integral digital lock comprising at least two magnets, wherein one magnet is a semi-hard magnet and other magnet is a hard magnet and the hard magnet is configured to move to open or close the digital lock, the semi hard magnet is inside a magnetization coil, and has a coercivity less than the coercivity of the hard magnet, optionally at least 5 times less than the coercivity of the hard magnet, and the semi-hard magnet and the hard magnet are configured adjacent to each other, and a change in the magnetization polarization of the semi-hard magnet is configured to push or pull the hard magnet to open or close the digital lock by mechanically permitting or preventing the motion of an axle of the lock, and the locking and unlocking of the digital lock is enabled with a mobile smartphone application allowing the user to input identification information, pertaining to the user, to be authenticated with a cloud server. the semi hard magnet is inside a magnetization coil, and has a coercivity less than the coercivity of the hard magnet, optionally at least 5 times less than the coercivity of the hard magnet, and the semi-hard magnet and the hard magnet are configured adjacent to each other, and a change in the magnetization polarization of the semi-hard magnet is configured to push or pull the hard magnet to open or close the digital lock by mechanically permitting or preventing the motion of an axle of the lock, and the locking and unlocking of the digital lock is enabled with a mobile smartphone application allowing the user to input identification information, pertaining to the user, to be authenticated with a cloud server.
A charging port structure comprising: a charging port provided inside a port housing in an electric vehicle; a port lid capable of opening and closing a front opening of the port housing; a port lid lock mechanism maintains the port lid in a closed state; a vehicle body opening provided in a vehicle body surface in a vicinity of the charging port; a body opening lid capable of opening and closing the vehicle body opening; a body opening lid lock mechanism maintains the body opening lid in a closed state, the body opening lid lock mechanism being unlocked by an operation from inside a passenger compartment; an electric unlocking mechanism unlocking the port lid lock mechanism by an electric actuator, activated by a switch provided in the passenger compartment; wherein the vehicle body opening is configured as a compartment opening of a drive source compartment in which a drive source is disposed; and the body opening lid is configured as a hood for opening and closing the compartment opening, characterized by a manual unlocking structure enabling the port lid lock mechanism to be unlocked by a manual operation by the operator from the vehicle body opening. a charging port provided inside a port housing in an electric vehicle; a port lid capable of opening and closing a front opening of the port housing; a port lid lock mechanism maintains the port lid in a closed state; a vehicle body opening provided in a vehicle body surface in a vicinity of the charging port; a body opening lid capable of opening and closing the vehicle body opening; a body opening lid lock mechanism maintains the body opening lid in a closed state, the body opening lid lock mechanism being unlocked by an operation from inside a passenger compartment; an electric unlocking mechanism unlocking the port lid lock mechanism by an electric actuator, activated by a switch provided in the passenger compartment; wherein the vehicle body opening is configured as a compartment opening of a drive source compartment in which a drive source is disposed; and the body opening lid is configured as a hood for opening and closing the compartment opening, characterized by a manual unlocking structure enabling the port lid lock mechanism to be unlocked by a manual operation by the operator from the vehicle body opening.
A pharmaceutical oral dosage from comprising (a) a particle comprising an opioid antagonist dispersed in a melt-extruded matrix, wherein the matrix comprises between 1% and 80% by weight of one or more pharmaceutically acceptable first hydrophobic materials, and (b) a layer of second hydrophobic material coated on the particle. (a) a particle comprising an opioid antagonist dispersed in a melt-extruded matrix, wherein the matrix comprises between 1% and 80% by weight of one or more pharmaceutically acceptable first hydrophobic materials, and (b) a layer of second hydrophobic material coated on the particle.
A cooking oven including an oven cavity and an oven door for opening and closing a front opening of said oven cavity, wherein: - the cooking oven comprises at least one air duct enclosing at least partially the oven cavity, - at least a part of the air duct extends directly above a top wall of the oven cavity, - the cooking oven comprises at least one fan for generating an air stream within the air duct or at the air duct, - the cooking oven comprises at least one ventilation flap for deflecting downwards the air stream leaving the air duct above the oven cavity, - at least one opening is formed in a horizontal front portion of the top wall of the oven cavity and connects the air duct to the oven cavity, and - the opening is closed by the ventilation flap in the closed state of the oven door and opened by the ventilation flap in the opened state of the oven door, so that an air curtain is formed within a front portion of the oven cavity in the opened state of the oven door, characterised in that the opening is formed as a cut-out between the oven cavity and the air duct, wherein the ventilation flap covers directly said cut-out in the closed state of the opening, while the ventilation flap acts as a deflecting plate for the air stream in the opened state of the opening, so that said air stream leaves the air duct through the opening and streams vertically downwards within the front portion of the oven cavity. - the cooking oven comprises at least one air duct enclosing at least partially the oven cavity, - at least a part of the air duct extends directly above a top wall of the oven cavity, - the cooking oven comprises at least one fan for generating an air stream within the air duct or at the air duct, - the cooking oven comprises at least one ventilation flap for deflecting downwards the air stream leaving the air duct above the oven cavity, - at least one opening is formed in a horizontal front portion of the top wall of the oven cavity and connects the air duct to the oven cavity, and - the opening is closed by the ventilation flap in the closed state of the oven door and opened by the ventilation flap in the opened state of the oven door, so that an air curtain is formed within a front portion of the oven cavity in the opened state of the oven door,
An engine fuel rail arrangement, comprising an engine including a camshaft and a fuel rail first mounting bracket, and a fuel rail fixed thereto, and a fuel rail second mounting bracket, said fuel rail including one or more outlets connected to respective fuel injector pipes, wherein said arrangement includes common fixing means to fix both the fuel rail to the fuel rail first mounting bracket and fix said fuel injector pipes to respective outlets in the fuel rail, wherein said fuel rail first mounting bracket includes at least one mounting surface (12, 13) for mounting of said fuel rail and said common fixing means includes clamping means adapted to provide a force to hold/fix said pipe(s) into position to respective fuel outlets on the fuel rail, said force additionally providing force to secure said fuel rail to said fuel rail first mounting bracket, characterised in that the fuel rail first mounting bracket includes a portion which surrounds or partially surrounds said camshaft of the engine.
A crystal of 3-{(2S,4S)-4-[4-(3-methyl-1-phenyl-1H-pyrazol-5-yl)piperazin-1-yl]-pyrrolidin-2-ylcarbonyl}thiazolidine 2.5 hydrobromide, or a hydrate thereof, wherein the crystal has peaks at diffraction angles represented by 2θ of 5.4°, 13.4° and 14.4° (each ± 0.2°) in a powder X-ray diffraction pattern.