mhurhangee/patent-ind-claim-en huggingface dataset:
A rotor assembly comprising: a first rotor hub ; and a second rotor hub coupled to the first rotor hub via a shaft fairing , wherein the first rotor hub having a flat bottom surface defined as a plane horizontal surface with no depth coupled to the shaft fairing and a curved upper surface opposite the flat bottom surface , wherein the curved upper surface has a convex shape, defining in use a leading edge and its trailing edge , the curved upper surface and the flat bottom surface meet to form a rounded edge and the flat bottom surface is configured to remove, in use, a backward-facing ramp effect that leads to flow separation around the trailing edge . a first rotor hub ; and a second rotor hub coupled to the first rotor hub via a shaft fairing , wherein the first rotor hub having a flat bottom surface defined as a plane horizontal surface with no depth coupled to the shaft fairing and a curved upper surface opposite the flat bottom surface , wherein the curved upper surface has a convex shape, defining in use a leading edge and its trailing edge , the curved upper surface and the flat bottom surface meet to form a rounded edge and the flat bottom surface is configured to remove, in use, a backward-facing ramp effect that leads to flow separation around the trailing edge .
A cathode comprising a sulphur-containing organosilane compound or a mixture of sulphur-containing organosilane compounds grafted on the surface of the cathode, wherein the sulphur-containing organosilane compound has the general molecular formula (I): wherein R 1 , R 2 and R 3 are independently selected from C 1-12 alkoxy, acyloxy, aryloxy, alkyl, aryl, hydroxyl (OH) and halogen groups; wherein R 4 is independently selected from a divalent hydrocarbon, preferably a C 1-18 alkylene or arylene; wherein n is independently selected from an integer from 2 to 8; wherein R 5 is selected from a divalent C 2-8 hydrocarbon, preferably alkylene or arylene. wherein R 1 , R 2 and R 3 are independently selected from C 1-12 alkoxy, acyloxy, aryloxy, alkyl, aryl, hydroxyl (OH) and halogen groups; wherein R 4 is independently selected from a divalent hydrocarbon, preferably a C 1-18 alkylene or arylene; wherein n is independently selected from an integer from 2 to 8; wherein R 5 is selected from a divalent C 2-8 hydrocarbon, preferably alkylene or arylene.
A method performed at a transmitter comprising: receiving a plurality of information bits, K b , at a polar encoder; obtaining a value corresponding to at least one of: a coding rate, R, to be used to transmit the plurality of information bits, and a number of coded bits to be used to transmit the plurality of information bits; characterized by determining which range of values the value falls within, and obtaining an information sequence corresponding to the range the value falls within; wherein obtaining the information sequence corresponding to the range comprises retrieving from memory a stored information sequence corresponding to the range, and wherein the information sequence indicates which positions of an input vector (u) are to receive each of the information bits and which positions of the input vector are to receive frozen values; mapping the plurality of information bits to a subset of positions of the input vector according to the information sequence; setting remaining positions of the input vector as the frozen values that are known by a decoder; and encoding the input vector in the polar encoder to generate a codeword; wherein the method further comprises puncturing the codeword according to a puncturing pattern to obtain a punctured codeword, wherein a bit length of the punctured codeword equals the number of coded bits to be used to transmit the plurality of information bits; wherein the codeword has bit length N b , the punctured codeword has bit length M , and wherein the puncturing pattern is to puncture the first ( N b - M ) bits of the codeword. receiving a plurality of information bits, K b , at a polar encoder; obtaining a value corresponding to at least one of: a coding rate, R, to be used to transmit the plurality of information bits, and a number of coded bits to be used to transmit the plurality of information bits; characterized by determining which range of values the value falls within, and obtaining an information sequence corresponding to the range the value falls within; wherein obtaining the information sequence corresponding to the range comprises retrieving from memory a stored information sequence corresponding to the range, and wherein the information sequence indicates which positions of an input vector (u) are to receive each of the information bits and which positions of the input vector are to receive frozen values; mapping the plurality of information bits to a subset of positions of the input vector according to the information sequence; setting remaining positions of the input vector as the frozen values that are known by a decoder; and encoding the input vector in the polar encoder to generate a codeword; wherein the method further comprises puncturing the codeword according to a puncturing pattern to obtain a punctured codeword, wherein a bit length of the punctured codeword equals the number of coded bits to be used to transmit the plurality of information bits; wherein the codeword has bit length N b , the punctured codeword has bit length M , and wherein the puncturing pattern is to puncture the first ( N b - M ) bits of the codeword.
A device, comprising: a spatial filter having a plurality of mask features and extending along a flow direction , wherein light is emanating from at least one object moving along the flow direction and wherein an intensity of the emanating light being modulated according to the mask features; a first detector positioned to sense a first portion of light emanating from the object, the first portion of light having a first wavelength range, the first detector configured to generate an electrical signal in response to the sensed first portion of light; and a second detector positioned to sense a second portion of the emanating light, the second portion of light having a second wavelength range different from the first wavelength range, the second detector configured to generate a second electrical signal in response to the second portion of light, wherein the first and second signal include information about the color characteristics of the object, characterized in that the device further comprises a data processing analyzer configured to determine whether the object has an inhomogeneous color distribution based upon whether a combined signal of the first signal and the second signal has one or more signal characteristics directly associated with the mask features. a spatial filter having a plurality of mask features and extending along a flow direction , wherein light is emanating from at least one object moving along the flow direction and wherein an intensity of the emanating light being modulated according to the mask features; a first detector positioned to sense a first portion of light emanating from the object, the first portion of light having a first wavelength range, the first detector configured to generate an electrical signal in response to the sensed first portion of light; and a second detector positioned to sense a second portion of the emanating light, the second portion of light having a second wavelength range different from the first wavelength range, the second detector configured to generate a second electrical signal in response to the second portion of light, wherein the first and second signal include information about the color characteristics of the object, characterized in that the device further comprises a data processing analyzer configured to determine whether the object has an inhomogeneous color distribution based upon whether a combined signal of the first signal and the second signal has one or more signal characteristics directly associated with the mask features.
A method for the production of a hydraulic binder consisting of a three-steps process: A. Heating raw mixture of 2.28% in weight of fly-ash, 32.93% in weight of sand, 2.12% in weight of slag and 62.67% in weight of limestone, containing at least calcium and silicon in an overall C/S molar ratio equal to 1.1, to a temperature T 1 of 1500 °C, at a heating rate of 25 °C/min, wherein T 1 is within the liquid (L) region in the CaO-SiO 2 phase diagram for the specific chemical composition; B. Maintaining at that temperature T 1 for a t 1 of 60 minutes; and C. Cooling to room temperature at a cooling rate of 300 °C/min. A. Heating raw mixture of 2.28% in weight of fly-ash, 32.93% in weight of sand, 2.12% in weight of slag and 62.67% in weight of limestone, containing at least calcium and silicon in an overall C/S molar ratio equal to 1.1, to a temperature T 1 of 1500 °C, at a heating rate of 25 °C/min, wherein T 1 is within the liquid (L) region in the CaO-SiO 2 phase diagram for the specific chemical composition; B. Maintaining at that temperature T 1 for a t 1 of 60 minutes; and C. Cooling to room temperature at a cooling rate of 300 °C/min.
A portable data carrier with a multilayer structure having an mark , wherein the data carrier in the interior has a light source which is arranged below the mark , wherein the mark is visible from the outside only when illuminated by the light source , characterized in that between the mark and the light source an optical layer is arranged which is adapted to distribute the light of the light source uniformly over at least a part of the region of the mark .
Compound 1 which is -3-((6-(difluoromethyl)-5-fluoro-1,2,3,4-tetrahydroisoquinolin-8-yl)oxy)-5-(4-methyl-7H-pyrrolo[2,3-d]pyrimidin-7-yl)cyclopentane-1,2-diol having the structure: or a pharmaceutically acceptable salt thereof, for use in treating abnormal cell growth in a subject no more than once per day.
A cytophilic peptide-bound high-density lipoprotein, comprising a high-density lipoprotein and a cytophilic peptide for use in a diagnosis, prevention or treatment of a disease of the posterior eye segment, wherein the cytophilic peptide is at least one kind selected from the group consisting of penetratin, polyarginine (R8), transportan, Pep-1 and MTS.
An extruded soap bar composition wherein the bar comprises: a) 25 to 40% by wt. of water; b) 20 to 75% by wt. anhydrous soap; wherein C 16 to C 24 saturated soap comprises 12% to 45% by wt. of total bar. c) structurants comprises at least from 0.05 to 35% by wt., wherein the specific level of structurants is defined by the level of C 16 to C 24 saturated soap of (b) such that the total level of said C 16 to C 24 saturated soap and structurants is greater than 25% by wt., and wherein said structurants are selected from the group consisting of starch, carboxymethylcellulose, inorganic particulates, acrylate polymers and mixtures thereof; d) electrolyte which is a combination of alkali metal chloride; and a secondary electrolytes selected from the group consisting of alkali metal citrate and alkali metal sulfate; and wherein the concentration by weight of alkali metal chloride ([alkali meta chloride]); and of alkali metal citrate ([alkali metal citrate]), alkali metal sulfate ([alkali metal sulfate]) defined by level of water we use as follows: i. alkali metal chloride % = 0.075 × water − 0.626 ; and ii. alkali metal citrate % = − 0.0023 × water 2 + 0.312 × water − 4.34 ; iii. alkali metal citrate % = − 0.0023 × water 2 + 0.312 × water − 4.34 ; or iv. + 0.312 × water − 4.34 , wherein the calculated amount of the concentration of the electrolyte is plus or minus 15%. a) 25 to 40% by wt. of water; b) 20 to 75% by wt. anhydrous soap; wherein C 16 to C 24 saturated soap comprises 12% to 45% by wt. of total bar. c) structurants comprises at least from 0.05 to 35% by wt., wherein the specific level of structurants is defined by the level of C 16 to C 24 saturated soap of (b) such that the total level of said C 16 to C 24 saturated soap and structurants is greater than 25% by wt., and wherein said structurants are selected from the group consisting of starch, carboxymethylcellulose, inorganic particulates, acrylate polymers and mixtures thereof; d) electrolyte which is a combination of alkali metal chloride; and a secondary electrolytes selected from the group consisting of alkali metal citrate and alkali metal sulfate; and wherein the concentration by weight of alkali metal chloride ([alkali meta chloride]); and of alkali metal citrate ([alkali metal citrate]), alkali metal sulfate ([alkali metal sulfate]) defined by level of water we use as follows: i. alkali metal chloride % = 0.075 × water − 0.626 ; and ii. alkali metal citrate % = − 0.0023 × water 2 + 0.312 × water − 4.34 ; iii. alkali metal citrate % = − 0.0023 × water 2 + 0.312 × water − 4.34 ; or iv. + 0.312 × water − 4.34 , wherein the calculated amount of the concentration of the electrolyte is plus or minus 15%. i. alkali metal chloride % = 0.075 × water − 0.626 ; and ii. alkali metal citrate % = − 0.0023 × water 2 + 0.312 × water − 4.34 ; iii. alkali metal citrate % = − 0.0023 × water 2 + 0.312 × water − 4.34 ; or iv. + 0.312 × water − 4.34 ,
Paper converting plant for converting paper webs comprising a rewinder that is adapted to produce paper logs and has an inlet for feeding a paper web (W), a winding station where the paper logs are formed and an exit station for unloading the finished logs, wherein the rewinder is provided with a plurality of walls (P) delimiting a chamber (C) inside which the paper logs are formed, and characterized in that it comprises an air suction channel (A) disposed and acting at a lower part of said chamber (C), said air suction channel being adapted to exert a suction that causes the formation of an air flow directed from the top to the bottom inside the chamber (C), said chamber (C) being subdivided into two semi-chambers (C1, C2) both communcating with the air suction channel (A) such that a vertical air flow (VS, VD) directed downwards is generated in each of them, said chamber being provided with regulating means for regulating said vertical air flows (VS, VD) to provide vertically oriented identical air flow rates in the semi-chambers (C1, C2).
Motor vehicle having an automatic rain protection device for a door opening of the vehicle , wherein the rain protection device comprises a support device on which a rain protection flap strip is stored so as to be movable, wherein the rain protection flap strip is folded into a closed position when the vehicle door is closed and is deployed into an open position when the vehicle door is open so that the rain protection flap strip forms a rain protection canopy, characterized in that the support device is fixed to the vehicle on the vehicle interior side.
A power take-off unit comprising : a housing ; an input mechanism mounted at least partially within the housing and configured for attachment to a source of rotational energy; an output mechanism mounted within the housing and configured for attachment to a driven accessory, the output mechanism having a passageway extending therethrough; a clutch assembly that is responsive to pressurized air in the passageway through the output mechanism configured to selectively connect the output mechanism to the input mechanism; and a pneumatic valve manifold attached to the housing and including an air intake port that is configured for attachment to a source of pressurized air, a pneumatic valve that communicates with air intake port , and a discharge passageway that communicates with both the pneumatic valve and the passageway through the output mechanism, the pneumatic valve being operable to selectively permit pressurized air to pass from the source of pressurized air through the air intake port , the pneumatic valve, the discharge passageway , and the passageway through the output mechanism to the clutch assembly . a housing ; an input mechanism mounted at least partially within the housing and configured for attachment to a source of rotational energy; an output mechanism mounted within the housing and configured for attachment to a driven accessory, the output mechanism having a passageway extending therethrough; a clutch assembly that is responsive to pressurized air in the passageway through the output mechanism configured to selectively connect the output mechanism to the input mechanism; and a pneumatic valve manifold attached to the housing and including an air intake port that is configured for attachment to a source of pressurized air, a pneumatic valve that communicates with air intake port , and a discharge passageway that communicates with both the pneumatic valve and the passageway through the output mechanism, the pneumatic valve being operable to selectively permit pressurized air to pass from the source of pressurized air through the air intake port , the pneumatic valve, the discharge passageway , and the passageway through the output mechanism to the clutch assembly .
Device for regulating the temperature of an electric element that is able to heat up, the said device comprising a dielectric-fluid circuit, the said circuit comprising sprinkling means for sprinkling the surface of the said element using the said dielectric fluid, and a dielectric-fluid reservoir , the reservoir comprising a main volume , the said main volume being intended for containing the said electric element that is able to heat up, the device being characterized in that the reservoir moreover comprises an ancillary volume for storing dielectric fluid, the said ancillary volume being fluidically connected to the said sprinkling means, the said ancillary volume being at least partially peripheral with respect to the main volume.
A closing handle for an opening frame including a lock (22; 122), an axis of rotation (16, 32; 116, 132) for the lock and a sleeve (28; 148, 150) allowing to control the rotation of the lock (22; 122) around the axis of rotation between a position called closed position and a position called open position, characterised in that it further includes a base (20; 120) supposed to be fixed relative to the opening frame, in that the sleeve (28; 148, 150) is further movable in rotation around a second axis perpendicular to the axis of rotation, between a position called locked position and a position called release position, in that the sleeve (28; 148, 150) and the base (20; 120) include a set of stops such that when the sleeve (28; 148, 150) is in the locked position and the lock (22; 122) is in the open, respectively closed position, rotation of the sleeve (28; 148, 150) around the axis of rotation to bring the lock (22; 122) towards its closed, respectively open position, is not possible, in that said set of stops is such that in the release position the stop (54; 154) associated with the sleeve (28; 148, 150) is offset relative to the stop (36; 136) associated with the base (20; 120) then allowing rotation of the sleeve (28; 148, 150) around the axis of rotation by driving the lock (22; 122), and in that the sleeve (28; 148, 150) is elastically pre-stressed in its position called locked position. characterised in that it further includes a base (20; 120) supposed to be fixed relative to the opening frame, in that the sleeve (28; 148, 150) is further movable in rotation around a second axis perpendicular to the axis of rotation, between a position called locked position and a position called release position, in that the sleeve (28; 148, 150) and the base (20; 120) include a set of stops such that when the sleeve (28; 148, 150) is in the locked position and the lock (22; 122) is in the open, respectively closed position, rotation of the sleeve (28; 148, 150) around the axis of rotation to bring the lock (22; 122) towards its closed, respectively open position, is not possible, in that said set of stops is such that in the release position the stop (54; 154) associated with the sleeve (28; 148, 150) is offset relative to the stop (36; 136) associated with the base (20; 120) then allowing rotation of the sleeve (28; 148, 150) around the axis of rotation by driving the lock (22; 122), and in that the sleeve (28; 148, 150) is elastically pre-stressed in its position called locked position.
A method of preparing a polypeptide for analysis, comprising: a. cleaving the polypeptide in a sample in a first digestion, wherein the cleaving produces at least two fragments of the polypeptide, b. cleaving the at least two fragments of the polypeptide with neutrophil elastase; and c. analyzing the sample after cleaving the at least two fragments of the polypeptide with the neutrophil elastase. a. cleaving the polypeptide in a sample in a first digestion, wherein the cleaving produces at least two fragments of the polypeptide, b. cleaving the at least two fragments of the polypeptide with neutrophil elastase; and c. analyzing the sample after cleaving the at least two fragments of the polypeptide with the neutrophil elastase.
A CCR9 chemokine receptor inhibitor for use in a method of treating or reducing the development of inflammatory bowel disease in a mammal, said method comprising administering a suitable amount of a CCR9 chemokine receptor inhibitor with an anti-α4β7 integrin blocking antibody, wherein the CCR9 chemokine receptor inhibitor is or a pharmaceutically acceptable salt thereof.
A travel path recognition apparatus comprising: a lane marking acquisition unit configured to acquire lane marking information concerning a position and a shape of a lane marking in front of a vehicle with respect to a position of the vehicle; a vehicle behavior acquisition unit configured to acquire vehicle behavior concerning a vehicle speed of the vehicle from acquisition time of the lane marking information to current time; and a travel path recognizer configured to recognize a travel path on which the vehicle travels based on the lane marking information, wherein the travel path recognizer calculates a traveling distance traveled by the vehicle from the acquisition time of the lane marking information to the current time based on the vehicle speed of the vehicle behavior, and determines whether or not the lane marking information is information within a usable period in which the lane marking information is usable to recognize the travel path based on a predetermined lane marking acquirable distance and the traveling distance, the predetermined lane marking acquirable distance being a distance in front of the position of the vehicle, and being a distance in which the lane marking of the lane marking information is acquirable. a lane marking acquisition unit configured to acquire lane marking information concerning a position and a shape of a lane marking in front of a vehicle with respect to a position of the vehicle; a vehicle behavior acquisition unit configured to acquire vehicle behavior concerning a vehicle speed of the vehicle from acquisition time of the lane marking information to current time; and a travel path recognizer configured to recognize a travel path on which the vehicle travels based on the lane marking information, wherein the travel path recognizer calculates a traveling distance traveled by the vehicle from the acquisition time of the lane marking information to the current time based on the vehicle speed of the vehicle behavior, and determines whether or not the lane marking information is information within a usable period in which the lane marking information is usable to recognize the travel path based on a predetermined lane marking acquirable distance and the traveling distance, the predetermined lane marking acquirable distance being a distance in front of the position of the vehicle, and being a distance in which the lane marking of the lane marking information is acquirable.