mhurhangee/patent-ind-claim-en huggingface dataset:
A combination of compositions for use in treating and alleviating the following symptoms body weight loss, colon length shortening, increased colon-to-body weight ratio, and positive fecal occult blood, said symptoms being associated with at least one of the diseases selected from the group consisting of inflammatory bowel disease, colitis, and enterocolitis in a subject in need thereof, said combination of compositions comprising: (a) a therapeutically effective amount of an anthraquinone derivative selected from diacerein, rhein, or a pharmaceutically acceptable salt thereof; and (b) a pharmaceutically acceptable vehicle, which is in combination with an additional or a second composition comprising a therapeutically effective amount of mesalazine and a second pharmaceutically acceptable vehicle. (a) a therapeutically effective amount of an anthraquinone derivative selected from diacerein, rhein, or a pharmaceutically acceptable salt thereof; and (b) a pharmaceutically acceptable vehicle,
A switchable stabiliser assembly of a vehicle, in particular for roll stabilisation, comprising ▪ a first and a second stabiliser half , each of which is coupled to a wheel of the vehicle, ▪ the first and second stabiliser halves being coupled rotatably relative to each other about their longitudinal axes by means of a hydraulic, semi-active actuator , and ▪ the actuator having at least two working chambers filled with a hydraulic medium, as well as ▪ at least one fluidic connection of variable flow cross-section between the at least two working chambers , characterised in that the working chambers of the actuator are not elastically deformable, and instead a spring element is arranged in the at least two working chambers of the actuator and/or in at least two further working chambers of the actuator and is supported between a rotor and a stator of the actuator . ▪ a first and a second stabiliser half , each of which is coupled to a wheel of the vehicle, ▪ the first and second stabiliser halves being coupled rotatably relative to each other about their longitudinal axes by means of a hydraulic, semi-active actuator , and ▪ the actuator having at least two working chambers filled with a hydraulic medium, as well as ▪ at least one fluidic connection of variable flow cross-section between the at least two working chambers ,
Semi-finished product (SP) made from composite material (MC), comprising a thermoplastic or thermosetting matrix and reinforcement fillers, at least one electromagnetic shielding film (FBE) positioned in the thickness of the semi-finished product (SP), the electromagnetic shielding film (FBE) comprising holes (ORI), characterised in that the semi-finished product comprises several strips (BAND) of electromagnetic shielding films (FBE), the strips having a non-zero overlap, the electromagnetic shielding film (FBE) not being flat.
Nano-Imprint stamp comprising: - a punch body (K) which is produced by local removal of material from a stamp-blank and which forms a punch end structure, wherein said punch front end structure in the direction of a stamp set axis (X) may be pressed into a substrate, for generating an imprint which is complementary to the stamp face structure, - the stamp face structure is carrying a plurality of setting surfaces (S1, S2, ...), which are aligned substantially transversely to the stamp set axis (X), and at least some of these set surfaces (S1, S2, ...) in the direction of the stamp set axis (X) provides different level positions (L1, L2 ...). - the stamp blank is constructed as a layer structure which includes a plurality of layer boundaries (G1, G2, G3), and the layer structure is designed such that the positions of the layer boundaries (G1, G2, G3) correspond to the level positions (L1, L2, ...). - characterized in that the layer boundaries are formed by a significant dotation gradient. - a punch body (K) which is produced by local removal of material from a stamp-blank and which forms a punch end structure, wherein said punch front end structure in the direction of a stamp set axis (X) may be pressed into a substrate, for generating an imprint which is complementary to the stamp face structure, - the stamp face structure is carrying a plurality of setting surfaces (S1, S2, ...), which are aligned substantially transversely to the stamp set axis (X), and at least some of these set surfaces (S1, S2, ...) in the direction of the stamp set axis (X) provides different level positions (L1, L2 ...). - the stamp blank is constructed as a layer structure which includes a plurality of layer boundaries (G1, G2, G3), and the layer structure is designed such that the positions of the layer boundaries (G1, G2, G3) correspond to the level positions (L1, L2, ...). - characterized in that the layer boundaries are formed by a significant dotation gradient.
A manufacturing method for a pressed component configured including an elongated top plate , ridge line portions at both short direction ends of the top plate , and vertical walls that face each other in a state extending from the ridge line portions , the manufacturing method comprising: employing a die and a punch to curve a blank (BL) into a convex profile bowing from the punch side toward the die side in a state in which a punch is caused to contact a first portion of the blank (BL) where the two end ridge line portions are to be formed, and to sandwich a second portion of the blank (BL) where the top plate is to be formed between the die and the punch , and indent the second portion from the die side toward the punch side, characterized in that the second portion is sandwiched between the die and the punch and the second portion is indented from the die side toward the punch side such that the second portion has a radius of curvature R (mm) that satisfies Equation t ⋅ E ⋅ 1000 2 σ s − σ m × 0.5 ≤ R ≤ t ⋅ E ⋅ 1000 2 σ s − σ m × 4 wherein each parameter in Equation is as follows: t is a plate thickness (mm) of the blank (BL); σ s is a short direction bend outer surface stress (MPa) of the portion of the blank (BL) to form the top plate ; σ m is an average stress in cross section of short direction (MPa) of the portion of the blank (BL) to form the top plate ; and E is a Young's Modulus (GPa) of sheet steel configuring the blank (BL). employing a die and a punch to curve a blank (BL) into a convex profile bowing from the punch side toward the die side in a state in which a punch is caused to contact a first portion of the blank (BL) where the two end ridge line portions are to be formed, and to sandwich a second portion of the blank (BL) where the top plate is to be formed between the die and the punch , and indent the second portion from the die side toward the punch side, curve a blank (BL) into a convex profile bowing from the punch side toward the die side in a state in which a punch is caused to contact a first portion of the blank (BL) where the two end ridge line portions are to be formed, and to sandwich a second portion of the blank (BL) where the top plate is to be formed between the die and the punch , and indent the second portion from the die side toward the punch side, characterized in that the second portion is sandwiched between the die and the punch and the second portion is indented from the die side toward the punch side such that the second portion has a radius of curvature R (mm) that satisfies Equation t is a plate thickness (mm) of the blank (BL); σ s is a short direction bend outer surface stress (MPa) of the portion of the blank (BL) to form the top plate ; σ m is an average stress in cross section of short direction (MPa) of the portion of the blank (BL) to form the top plate ; and E is a Young's Modulus (GPa) of sheet steel configuring the blank (BL).
Turbo engine, in particular an aircraft engine, comprising at least one measuring device, which is arranged between a guide vane and a rotor blade of the turbo engine, wherein the measuring device comprises at least one suction intake opening for fluid from a region of a mixed-out flow (AS) that is not influenced by boundary layer effects, wherein the at least one suction intake opening is arranged at a distance from a wall that delimits the flow and fluid suctioned in via a fluid channel can be guided to a sensor device , wherein the fluid channel is configured in this manner, characterised in that the at least one suction intake opening is arranged in parallel with or at an angle to a main flow direction (HS) or in that the fluid channel comprises a portion through which the fluid can flow easily, wherein fluid can be diverted from this portion to the sensor device , and wherein the fluid channel is configured such that suctioned-in fluid can be guided to a sensor device without backing up, without measuring a back-pressure in the interior of the fluid channel , and the sensor device is configured as a temperature sensor, as a sensor for measuring the concentration of at least one substance, as a sensor for determining the particle size of a flow containing particles, as a sensor for determining humidity, and/or as a sensor for determining the oil content in a gas. the at least one suction intake opening is arranged in parallel with or at an angle to a main flow direction (HS) or in that the fluid channel comprises a portion through which the fluid can flow easily, wherein fluid can be diverted from this portion to the sensor device , and wherein the fluid channel is configured such that suctioned-in fluid can be guided to a sensor device without backing up, without measuring a back-pressure in the interior of the fluid channel , and the sensor device is configured as a temperature sensor, as a sensor for measuring the concentration of at least one substance, as a sensor for determining the particle size of a flow containing particles, as a sensor for determining humidity, and/or as a sensor for determining the oil content in a gas.
A method for recovering a valuable metal from a waste battery, comprising: roasting a waste battery, placing a roasted material into a crushing container and crushing the roasted material using a chain mill, and sieving a crushed material to separate into an oversize material and an undersize material; wherein the chain mill used in a crushing treatment in the crushing step comprises: a rotary shaft rod provided vertically with respect to a bottom surface of the crushing container, and a chain mounted to a side surface of the rotary shaft rod, wherein the chain mill has a structure in which a mounting height of the chain to the rotary shaft rod is adjustable, and wherein the chain is mounted to a mounting position located at a distance in a range of 10 mm or more and 100 mm or less from the bottom surface of the crushing container. roasting a waste battery, placing a roasted material into a crushing container and crushing the roasted material using a chain mill, and sieving a crushed material to separate into an oversize material and an undersize material; wherein the chain mill used in a crushing treatment in the crushing step comprises: a rotary shaft rod provided vertically with respect to a bottom surface of the crushing container, and a chain mounted to a side surface of the rotary shaft rod, wherein the chain mill has a structure in which a mounting height of the chain to the rotary shaft rod is adjustable, and wherein the chain is mounted to a mounting position located at a distance in a range of 10 mm or more and 100 mm or less from the bottom surface of the crushing container. a rotary shaft rod provided vertically with respect to a bottom surface of the crushing container, and a chain mounted to a side surface of the rotary shaft rod, wherein the chain mill has a structure in which a mounting height of the chain to the rotary shaft rod is adjustable, and wherein the chain is mounted to a mounting position located at a distance in a range of 10 mm or more and 100 mm or less from the bottom surface of the crushing container.
A method for making lubricant base stock, comprising: performing solvent deasphalting using a C 4 or C 5 solvent under effective solvent deasphalting conditions on a feedstock having a T5 boiling point of at least 370°C, the effective solvent deasphalting conditions producing a yield of deasphalted oil of at least 50 wt% of the feedstock; hydroprocessing at least a portion of the deasphalted oil under first effective hydroprocessing conditions to form a hydroprocessed effluent having a sulfur content of 100 wppm or less and a nitrogen content of 100 wppm or less, the at least a portion of the deasphalted oil having an aromatics content of at least 50 wt%; separating the hydroprocessed effluent to form at least a fuels boiling range fraction and a bottoms fraction; and hydroprocessing at least a portion of the hydroprocessed bottoms fraction under second effective hydroprocessing conditions, the second effective hydroprocessing conditions comprising catalytic dewaxing conditions, to form a catalytically dewaxed effluent; and solvent extracting at least a portion of the catalytically dewaxed effluent to form a solvent processed effluent, wherein the solvent processed effluent comprises a 950°F+ (510°C+) portion having a VI of at least 80, a pour point of -6°C or less, a cloud point of -2°C or less, and an aromatics content of less than 10 wt%. performing solvent deasphalting using a C 4 or C 5 solvent under effective solvent deasphalting conditions on a feedstock having a T5 boiling point of at least 370°C, the effective solvent deasphalting conditions producing a yield of deasphalted oil of at least 50 wt% of the feedstock; hydroprocessing at least a portion of the deasphalted oil under first effective hydroprocessing conditions to form a hydroprocessed effluent having a sulfur content of 100 wppm or less and a nitrogen content of 100 wppm or less, the at least a portion of the deasphalted oil having an aromatics content of at least 50 wt%; separating the hydroprocessed effluent to form at least a fuels boiling range fraction and a bottoms fraction; and hydroprocessing at least a portion of the hydroprocessed bottoms fraction under second effective hydroprocessing conditions, the second effective hydroprocessing conditions comprising catalytic dewaxing conditions, to form a catalytically dewaxed effluent; and solvent extracting at least a portion of the catalytically dewaxed effluent to form a solvent processed effluent, wherein the solvent processed effluent comprises a 950°F+ (510°C+) portion having a VI of at least 80, a pour point of -6°C or less, a cloud point of -2°C or less, and an aromatics content of less than 10 wt%.
The use of an acylhydrazone of the general formula I, in which the functional group R 1 represents a functional group R 2 = R 4 = R 6 = R 7 = R 8 represents H, R 5 represents OH, and A - represents a charge-balancing anion, in combination with a peroxide bleaching agent, for improving the dirt-removal performance of washing or cleaning agents when said agents are used. R 2 = R 4 = R 6 = R 7 = R 8 represents H, R 5 represents OH, and A - represents a charge-balancing anion, in combination with a peroxide bleaching agent, for improving the dirt-removal performance of washing or cleaning agents when said agents are used.
A wireless communication method, comprising: transmitting (S201) a reference signal and a data signal in a Physical Resource Block, PRB, based on a coverage enhancement level indicating a repetition time, wherein the number of resource elements transmitting the reference signal in the PRB is determined by the coverage enhancement level, the channel type and/or the coding rate of the data signal, wherein the number of resource elements transmitting the reference signal in the PRB for a larger coverage enhancement level is more than that for a smaller coverage enhancement level or the number of resource elements transmitting the reference signal in the PRB for a higher coding rate is less than that for a lower coding rate; and wherein the data signal is used for transmitting System Information Block SIB1, and usage of resource elements transmitting the reference signal in the PRB is indicated by Master Information Block, MIB, or is specified; characterized in that the usages of resource elements transmitting the reference signals in the PRBs, for other SIBs, are indicated by SIB1. transmitting (S201) a reference signal and a data signal in a Physical Resource Block, PRB, based on a coverage enhancement level indicating a repetition time, wherein the number of resource elements transmitting the reference signal in the PRB is determined by the coverage enhancement level, the channel type and/or the coding rate of the data signal, wherein the number of resource elements transmitting the reference signal in the PRB for a larger coverage enhancement level is more than that for a smaller coverage enhancement level or the number of resource elements transmitting the reference signal in the PRB for a higher coding rate is less than that for a lower coding rate; and wherein the data signal is used for transmitting System Information Block SIB1, and usage of resource elements transmitting the reference signal in the PRB is indicated by Master Information Block, MIB, or is specified; characterized in that the usages of resource elements transmitting the reference signals in the PRBs, for other SIBs, are indicated by SIB1.
A data processing method in a cluster system, comprising: dividing a data stream received by a current physical node into m data blocks, obtaining a fingerprint of each data block, and obtaining n first sketch values representing the data stream according to a first algorithm, wherein m is an integer larger than or equal to 1, and n is an integer larger than or equal to 1 and smaller than or equal to m; identifying , according to a second algorithm, a first physical node which corresponds to a first sketch value in the n first sketch values and is in the cluster system, and sending the first sketch value to the first physical node for a query; receiving a response message from the first physical node corresponding to the first sketch value, wherein the response message includes a first storage address; comparing a fingerprint of a data block stored in a storage region pointed to by the first storage address with fingerprints of the m data blocks, to obtain a non-duplicated data block as a new data block, and query a duplicate data block, where an obtained non-duplicated data block is used as a new data block; and obtaining a second sketch value representing the new data block, identifying, according to the second algorithm, a second physical node corresponding to the second sketch value, and storing correspondence between the second sketch value and a storage address of the new data block represented by the second sketch value in the second physical node. dividing a data stream received by a current physical node into m data blocks, obtaining a fingerprint of each data block, and obtaining n first sketch values representing the data stream according to a first algorithm, wherein m is an integer larger than or equal to 1, and n is an integer larger than or equal to 1 and smaller than or equal to m; identifying , according to a second algorithm, a first physical node which corresponds to a first sketch value in the n first sketch values and is in the cluster system, and sending the first sketch value to the first physical node for a query; receiving a response message from the first physical node corresponding to the first sketch value, wherein the response message includes a first storage address; comparing a fingerprint of a data block stored in a storage region pointed to by the first storage address with fingerprints of the m data blocks, to obtain a non-duplicated data block as a new data block, and query a duplicate data block, where an obtained non-duplicated data block is used as a new data block; and obtaining a second sketch value representing the new data block, identifying, according to the second algorithm, a second physical node corresponding to the second sketch value, and storing correspondence between the second sketch value and a storage address of the new data block represented by the second sketch value in the second physical node.
A method for producing customized eyewear , the method comprising: obtaining one or more parameters of a wearer's head, face or field of vision , wherein the one or more parameters are obtained via direct measurement or from a three-dimensional model of the wearer's head or face; determining a perimeter of a first lens based on the one or more parameters ; and determining a perimeter of a second lens based on the one or more parameters , wherein the first and the second lenses are supported by a frame , wherein the perimeter of the first lens , the perimeter of the second lens , and the frame are customized for the wearer based on the obtained one or more parameters, and wherein determining the perimeters of the first and second lenses comprises: determining a provisional perimeter of the first lens ; determining a provisional perimeter of the second lens ; comparing the provisional perimeters of the first and second lenses; determining a final perimeter of the first lens based on the comparison; and determining a final perimeter of the second lens based on the comparison. obtaining one or more parameters of a wearer's head, face or field of vision , wherein the one or more parameters are obtained via direct measurement or from a three-dimensional model of the wearer's head or face; determining a perimeter of a first lens based on the one or more parameters ; and determining a perimeter of a second lens based on the one or more parameters , wherein the first and the second lenses are supported by a frame , wherein the perimeter of the first lens , the perimeter of the second lens , and the frame are customized for the wearer based on the obtained one or more parameters, and wherein determining the perimeters of the first and second lenses comprises: determining a provisional perimeter of the first lens ; determining a provisional perimeter of the second lens ; comparing the provisional perimeters of the first and second lenses; determining a final perimeter of the first lens based on the comparison; and determining a final perimeter of the second lens based on the comparison. determining a provisional perimeter of the first lens ; determining a provisional perimeter of the second lens ; comparing the provisional perimeters of the first and second lenses; determining a final perimeter of the first lens based on the comparison; and determining a final perimeter of the second lens based on the comparison.
A polyunsaturated substance for use in a method for treating glaucoma, steroid-induced cataract, steroid-induced myopathy, or Smith-Lemli-Opitz syndrome (SLOS), wherein the method comprises: identifying a patient having glaucoma, steroid-induced cataract, steroid-induced myopathy, or Smith-Lemli-Opitz syndrome (SLOS) and in need of treatment; repeatedly administering a polyunsaturated substance to the patient or the patient's tissue, wherein the polyunsaturated substance is isotopically modified at one or more positions; wherein following said administration, the polyunsaturated substance is incorporated into the patient's body or the patient's tissue; wherein the polyunsaturated substance is a fatty acid, a fatty acid ester, or a salt thereof. identifying a patient having glaucoma, steroid-induced cataract, steroid-induced myopathy, or Smith-Lemli-Opitz syndrome (SLOS) and in need of treatment; repeatedly administering a polyunsaturated substance to the patient or the patient's tissue, wherein the polyunsaturated substance is isotopically modified at one or more positions; wherein following said administration, the polyunsaturated substance is incorporated into the patient's body or the patient's tissue; wherein the polyunsaturated substance is a fatty acid, a fatty acid ester, or a salt thereof.