mhurhangee/ep-ind-claims huggingface dataset:
Method for sealing a joining edge (6, 64), at which two components (2, 4, 62) of a motor vehicle abut onto each other, wherein the joining edge (6, 64) is located between the two components (2, 4, 62), wherein a flow element (18, 34, 68) is arranged between the two components (2, 4, 62) in a triangular joining region, said flow element having a first body (20, 36) with two outer edges (24, 26, 42, 44) which strike each other at a corner of the first body (20, 36), wherein an outer edge (24, 26, 42, 44) of the first body (20, 36) is facing towards one of the two components (2, 4, 62) and the corner of the joining edge (6, 64) respectively, wherein a corner gap (28, 46) is provided along a section of an outer edge (24, 26, 42, 44) respectively and a component (2, 4, 62) respectively as well as between the corner and the joining edge (6, 64), wherein a liquid sealing substance is poured onto the first body (20, 36) which accumulates at least partially on the first body (20, 36).
A power cable for providing power to a downhole tool situated within a borehole, comprising - an inner conductor comprising a first electrically conductive material, - an inner insulating layer surrounding the inner conductor, comprising an electrically insulating material, - an armour sheath surrounding the inner insulating layer comprising a second electrically conductive material and - an outer conducting layer surrounding, and electrically contacting, the armour sheath, comprising a third electrically conductive material, wherein the armour sheath further comprises an inner radial layer comprising a plurality of armouring wires with a diameter D and an outer radial layer (6") electrically contacting the inner radial layer, the outer radial layer (6") comprising a plurality of armouring wires with a diameter d, the diameter d being dissimilar to the diameter D, and wherein said armouring wires (6a,6c) are radially arranged in order to maximize the armour sheath density. - an inner conductor comprising a first electrically conductive material, - an inner insulating layer surrounding the inner conductor, comprising an electrically insulating material, - an armour sheath surrounding the inner insulating layer comprising a second electrically conductive material and - an outer conducting layer surrounding, and electrically contacting, the armour sheath, comprising a third electrically conductive material,
Arrangement for mold formation in concrete element manufacturing, which arrangement comprises a furnishing robot with predefined operating area for placing detachable side form units on a horizontal casting surface, at least one pallet comprising the said horizontal casting surface, which pallet is movable to and from the operating area of the furnishing robot, and a storage area (3; 3a, 3b, 3c) for storage of detachable side form units, which storage area is located inside the operating area of the furnishing robot for retrieving detachable side form units from the storage on the storage area and placing them on the horizontal casting surface by the furnishing robot, characterized in that at least part of the said storage (3; 3a, 3b, 3c) of detachable side form units is formed on a movable storage pallet (8; 8a, 8b, 8c), which movable storage pallet is movable to and from the storage area inside the operating area of the furnishing robot.
A method for controlling a vehicle including an engine and a driver-operable clutch, the method comprising: identifying a pull-away phase of the vehicle; monitoring a torque demand parameter; calculating an engine output torque limit parameter indicating the output torque that the engine must not exceed during the pull-away phase, wherein the engine output torque limit parameter is determined as a function of the torque demand parameter; and controlling the engine in dependence on the torque demand parameter and the engine output torque limit parameter. identifying a pull-away phase of the vehicle; monitoring a torque demand parameter; calculating an engine output torque limit parameter indicating the output torque that the engine must not exceed during the pull-away phase, wherein the engine output torque limit parameter is determined as a function of the torque demand parameter; and controlling the engine in dependence on the torque demand parameter and the engine output torque limit parameter.
A method for producing an aluminum electric wire for an automobile, the method comprising the steps of: casting an aluminum alloy that is prepared by rapidly solidifying a molten aluminum alloy consisting of 0.90 to 1.20 mass% Fe, 0.10 to 0.25 mass% Mg, and, optionally, either 0.01 to 0.05 mass% Ti or 0.01 to 0.05 mass% Ti and 0.0005 to 0.0025 mass% B, a balance being Al and incident impurities; producing an aluminum alloy conductor from the aluminum alloy by subjecting the aluminum alloy to plasticity processing; making the aluminum alloy conductor into an annealed conductor, wherein the quantity of Al-Fe precipitates in an area of 2400 × 2600 nm in a cross section of the annealed conductor is five or more, by subjecting the aluminum alloy conductor to annealing, wherein the annealing comprises batch-type annealing; and covering the aluminum alloy conductor with an insulating material. casting an aluminum alloy that is prepared by rapidly solidifying a molten aluminum alloy consisting of 0.90 to 1.20 mass% Fe, 0.10 to 0.25 mass% Mg, and, optionally, either 0.01 to 0.05 mass% Ti or 0.01 to 0.05 mass% Ti and 0.0005 to 0.0025 mass% B, a balance being Al and incident impurities; producing an aluminum alloy conductor from the aluminum alloy by subjecting the aluminum alloy to plasticity processing; making the aluminum alloy conductor into an annealed conductor, wherein the quantity of Al-Fe precipitates in an area of 2400 × 2600 nm in a cross section of the annealed conductor is five or more, by subjecting the aluminum alloy conductor to annealing, wherein the annealing comprises batch-type annealing; and covering the aluminum alloy conductor with an insulating material.
A computer-implemented method of seismic inversion, comprising: a. receiving, at a computer processor, a processed seismic image created from seismic data recorded at seismic sensors, and an enhanced seismic image representative of a subsurface volume of interest, wherein the enhanced seismic image is the processed seismic image enhanced by improving focusing of seismic events; b. forward modeling (21A, 21B), via the computer processor, the processed seismic image and the enhanced seismic image to generate a first modeled dataset and a second modeled dataset, wherein the forward modeling (21A, 21B) comprises extended Born modeling; c. differencing, via the computer processor, the first modeled dataset and the second modeled dataset to create a residual dataset; d. filtering, via the computer processor, the first modeled dataset to generate an approximation of illumination, wherein the approximation of illumination is an approximation of a Hessian matrix; e. preconditioning, via the computer processor, the residual dataset with the approximation of illumination to generate an adjoint source; f. back projecting, via the computer processor, the adjoint source to determine a model update; and g. applying the model update to an earth model of the subsurface volume of interest. a. receiving, at a computer processor, a processed seismic image created from seismic data recorded at seismic sensors, and an enhanced seismic image representative of a subsurface volume of interest, wherein the enhanced seismic image is the processed seismic image enhanced by improving focusing of seismic events; b. forward modeling (21A, 21B), via the computer processor, the processed seismic image and the enhanced seismic image to generate a first modeled dataset and a second modeled dataset, wherein the forward modeling (21A, 21B) comprises extended Born modeling; c. differencing, via the computer processor, the first modeled dataset and the second modeled dataset to create a residual dataset; d. filtering, via the computer processor, the first modeled dataset to generate an approximation of illumination, wherein the approximation of illumination is an approximation of a Hessian matrix; e. preconditioning, via the computer processor, the residual dataset with the approximation of illumination to generate an adjoint source; f. back projecting, via the computer processor, the adjoint source to determine a model update; and g. applying the model update to an earth model of the subsurface volume of interest.
An case for accommodating an electronic cigarette, comprising: a housing main body; and a rotation door mechanism arranged on the housing main body; wherein the housing main body comprises a housing top face and a housing bottom face opposite to each other, and at least one first housing side face which is arc-shaped with a certain radian, an opening is formed in the first housing side face for picking and placing the electronic cigarette; the rotation door mechanism at least comprises a rotation door which has an arc-shaped surface matching with the radian of the arc-shaped first housing side face, for covering the opening, and the rotation door is rotatable along an arc plane defined by the radian thereof to expose the opening so that the electronic cigarette is allowed to be taken out of the case or put into the case, both ends of which are oriented to the housing top face and the housing bottom face respectively; characterized in that, the rotation door mechanism further comprises a push button, a first slide slot which is arc-shaped is formed in the housing top face, and the push button passes through the first slide slot and is inserted into a push-button fixing hole of the rotation door such that the push button is fixed on the rotation door, and the push button is slidable along the first slide slot to drive the rotation door to slide along the first slide slot. a housing main body; and a rotation door mechanism arranged on the housing main body; wherein the housing main body comprises a housing top face and a housing bottom face opposite to each other, and at least one first housing side face which is arc-shaped with a certain radian, an opening is formed in the first housing side face for picking and placing the electronic cigarette; the rotation door mechanism at least comprises a rotation door which has an arc-shaped surface matching with the radian of the arc-shaped first housing side face, for covering the opening, and the rotation door is rotatable along an arc plane defined by the radian thereof to expose the opening so that the electronic cigarette is allowed to be taken out of the case or put into the case, both ends of which are oriented to the housing top face and the housing bottom face respectively; characterized in that, the rotation door mechanism further comprises a push button, a first slide slot which is arc-shaped is formed in the housing top face, and the push button passes through the first slide slot and is inserted into a push-button fixing hole of the rotation door such that the push button is fixed on the rotation door, and the push button is slidable along the first slide slot to drive the rotation door to slide along the first slide slot.
A method of forming an ophthalmic lens, the method comprising: placing a media insert comprising a data processor, a variable liquid meniscus lens and an energy source proximate to a first mold part; depositing a reactive monomer mix into the first mold part; positioning the media insert comprising the data processor, the variable liquid meniscus lens and the energy source in contact with the reactive monomer mix; positioning the first mold part proximate to a second mold part thereby forming a lens cavity with the media insert and at least some of reactive monomer mix in the lens cavity; exposing the reactive monomer mix to actinic radiation; and forming an ophthalmic lens with the media insert included within the ophthalmic lens. placing a media insert comprising a data processor, a variable liquid meniscus lens and an energy source proximate to a first mold part; depositing a reactive monomer mix into the first mold part; positioning the media insert comprising the data processor, the variable liquid meniscus lens and the energy source in contact with the reactive monomer mix; positioning the first mold part proximate to a second mold part thereby forming a lens cavity with the media insert and at least some of reactive monomer mix in the lens cavity; exposing the reactive monomer mix to actinic radiation; and forming an ophthalmic lens with the media insert included within the ophthalmic lens.
A signal sending method for supporting a transmission of two frequency-division signals using a same time domain symbol, comprising: mapping, by a sending device, a first sequence onto M even-numbered subcarriers in 2 M subcarriers, and mapping a second sequence onto M odd-numbered subcarriers in the 2 M subcarriers, wherein the first sequence is one of a third sequence and a fourth sequence, the second sequence is the other of the third sequence and the fourth sequence, the 2 M subcarriers are subcarriers on a same time domain symbol; before the mapping, generating the third sequence and the fourth sequence, wherein the fourth sequence is a sequence carrying M first information elements, and for elements of a second time domain sequence corresponding to the fourth sequence and a first time domain sequence corresponding to the third sequence at a same moment, when a complex factor is taken out, one of the first time domain sequence and the second time domain sequence is an in-phase component, and the other is a quadrature component, wherein the complex factor is an element of a sequence with a low peak-to-average power ratio; transforming, by the sending device, sequences mapped onto the 2 M subcarriers to a time domain to generate transmit signals; and sending, by the sending device, the transmit, signals. mapping, by a sending device, a first sequence onto M even-numbered subcarriers in 2 M subcarriers, and mapping a second sequence onto M odd-numbered subcarriers in the 2 M subcarriers, wherein the first sequence is one of a third sequence and a fourth sequence, the second sequence is the other of the third sequence and the fourth sequence, the 2 M subcarriers are subcarriers on a same time domain symbol; before the mapping, generating the third sequence and the fourth sequence, wherein the fourth sequence is a sequence carrying M first information elements, and for elements of a second time domain sequence corresponding to the fourth sequence and a first time domain sequence corresponding to the third sequence at a same moment, when a complex factor is taken out, one of the first time domain sequence and the second time domain sequence is an in-phase component, and the other is a quadrature component, wherein the complex factor is an element of a sequence with a low peak-to-average power ratio; transforming, by the sending device, sequences mapped onto the 2 M subcarriers to a time domain to generate transmit signals; and sending, by the sending device, the transmit, signals.
A method for decreasing viscosity, increasing solubility and decreasing particle size of milk proteins, the method comprising: a) admixing milk protein with at least one transglutaminase by adding at least one transglutaminase to a product selected from the group consisting of skim milk and reconstituted skim milk and combinations thereof; and b) concentrating the milk protein in the presence of the transglutaminase in its active state, wherein the step of concentrating the protein is performed using a method selected from the group consisting of reverse osmosis, filtration, ultrafiltration, microfiltration, evaporation, and combinations thereof. a) admixing milk protein with at least one transglutaminase by adding at least one transglutaminase to a product selected from the group consisting of skim milk and reconstituted skim milk and combinations thereof; and b) concentrating the milk protein in the presence of the transglutaminase in its active state, wherein the step of concentrating the protein is performed using a method selected from the group consisting of reverse osmosis, filtration, ultrafiltration, microfiltration, evaporation, and combinations thereof.
A carbonylation process for producing a carbonylation product having a low aromatic content of less than 40 wppm, the process comprising: contacting a reactant composition that comprises (i) a reactant selected from the group consisting of methanol, methyl acetate, methyl formate, dimethyl ether, and mixtures thereof and (ii) an aromatic compound, with a guard bed that comprises an adsorbent to form a de-aromatic reactant composition, wherein the adsorbent is selected from the group consisting of activated carbon, zeolites, activated amorphous clays, metal oxides, and silicaceous adsorbents; reacting carbon monoxide with the de-aromatic reactant composition in a reactor containing a reaction medium to produce a reaction solution comprising acetic acid, and wherein the reaction medium comprises water, acetic acid, methyl acetate, methyl iodide, and a catalyst; and withdrawing a reaction solution from the reactor, wherein the reaction solution comprises less than 40 wppm aromatic compounds, based on the total weight of the reaction solution. contacting a reactant composition that comprises (i) a reactant selected from the group consisting of methanol, methyl acetate, methyl formate, dimethyl ether, and mixtures thereof and (ii) an aromatic compound, (i) a reactant selected from the group consisting of methanol, methyl acetate, methyl formate, dimethyl ether, and mixtures thereof and (ii) an aromatic compound, with a guard bed that comprises an adsorbent to form a de-aromatic reactant composition, wherein the adsorbent is selected from the group consisting of activated carbon, zeolites, activated amorphous clays, metal oxides, and silicaceous adsorbents; reacting carbon monoxide with the de-aromatic reactant composition in a reactor containing a reaction medium to produce a reaction solution comprising acetic acid, and wherein the reaction medium comprises water, acetic acid, methyl acetate, methyl iodide, and a catalyst; and withdrawing a reaction solution from the reactor, wherein the reaction solution comprises less than 40 wppm aromatic compounds, based on the total weight of the reaction solution.
A feed system for feeding raw material (101, 301, 501) into a converting machine, the feed system comprising: a stack (102, 302, 502) of fanfold raw material (101, 301, 501) having a plurality of pre-formed fold lines (104, 504) that separate a plurality of layers, each layer forming a panel of fanfold raw material (101, 301, 501); wherein each panel has a length defined between two successive pre-formed fold lines; an infeed wheel (106, 206, 406, 506, 606) configured to rotate, wherein rotation of said infeed wheel is configured to draw the fanfold raw material (101, 301, 501) from the stack (102, 302, 502), wherein said infeed wheel is configured to, as said fanfold raw materials are drawn by said infeed wheel, engage said panels, wherein the infeed wheel comprises a plurality of radial members (116, 216), wherein said plurality of radial members (116, 216) of said infeed wheel (106, 206, 406, 506, 607) form a generally triangular shape; characterized in that said plurality of radial members are configured to fold said panels at intermediate locations (112, 512) between said pre-formed boundary fold lines; wherein a chord length between adjacent radial members is substantially less than a distance between adjacent pre-formed boundary fold lines; and an infeed guide (108, 408, 508) configured to receive said raw material from said infeed wheel, and, after engagement of said fanfold raw material with said infeed wheel, said infeed guide is configured to direct said fanfold raw material into a converting machine. a stack (102, 302, 502) of fanfold raw material (101, 301, 501) having a plurality of pre-formed fold lines (104, 504) that separate a plurality of layers, each layer forming a panel of fanfold raw material (101, 301, 501); wherein each panel has a length defined between two successive pre-formed fold lines; an infeed wheel (106, 206, 406, 506, 606) configured to rotate, wherein rotation of said infeed wheel is configured to draw the fanfold raw material (101, 301, 501) from the stack (102, 302, 502), wherein said infeed wheel is configured to, as said fanfold raw materials are drawn by said infeed wheel, engage said panels, wherein the infeed wheel comprises a plurality of radial members (116, 216), wherein said plurality of radial members (116, 216) of said infeed wheel (106, 206, 406, 506, 607) form a generally triangular shape; characterized in that said plurality of radial members are configured to fold said panels at intermediate locations (112, 512) between said pre-formed boundary fold lines; wherein a chord length between adjacent radial members is substantially less than a distance between adjacent pre-formed boundary fold lines; and an infeed guide (108, 408, 508) configured to receive said raw material from said infeed wheel, and, after engagement of said fanfold raw material with said infeed wheel, said infeed guide is configured to direct said fanfold raw material into a converting machine.
A circuit for generating a sense amplifier control signal in a flash memory system, comprising: a reference flash memory cell; a multiplexer comprising an input and an output, the input of the multiplexer coupled to the reference flash memory cell; a pre-charge block comprising an input and an output, the input of the pre-charge block receiving a signal indicating a read operation to be performed on the flash memory system and the output of the pre-charge block coupled to the output of the multiplexer; a timing generator comprising an input and an output, the input of the timing generator coupled to the output of the multiplexer and of the pre-charge block; and logic control coupled to the output of the timing generator to generate a sense amplifier control signal that controls a sense amplifier to perform the read operation. a reference flash memory cell; a multiplexer comprising an input and an output, the input of the multiplexer coupled to the reference flash memory cell; a pre-charge block comprising an input and an output, the input of the pre-charge block receiving a signal indicating a read operation to be performed on the flash memory system and the output of the pre-charge block coupled to the output of the multiplexer; a timing generator comprising an input and an output, the input of the timing generator coupled to the output of the multiplexer and of the pre-charge block; and logic control coupled to the output of the timing generator to generate a sense amplifier control signal that controls a sense amplifier to perform the read operation.