mhurhangee/ep-ind-claims huggingface dataset:
A data security protection method, comprising: a) receiving, by a network side device (80, 100), a target message sent by a first device (110, 120), wherein the target message is used to carry target data, the target data is data transmitted by the first device to a second device, the target message comprises an unencrypted area and an integrity protection encryption area, the unencrypted area is used to carry data that does not need to be encrypted, the data that does not need to be encrypted is data in the target data or data related to the target data, the integrity protection encryption area is used to carry data that needs integrity protection and encryption, and the data that needs integrity protection and encryption is data in the target data; b) performing, by the network side device, service processing on the target message based on the data carried in the unencrypted area in the target message; and c) sending, by the network side device to the second device, a target message obtained after the service processing; and d) wherein the unencrypted area comprises an unprotected area and an integrity protection unencrypted area, the unprotected area is used to carry data that does not need integrity protection and does not need to be encrypted, and the integrity protection unencrypted area is used to carry data that needs integrity protection but does not need to be encrypted. a) receiving, by a network side device (80, 100), a target message sent by a first device (110, 120), wherein the target message is used to carry target data, the target data is data transmitted by the first device to a second device, the target message comprises an unencrypted area and an integrity protection encryption area, the unencrypted area is used to carry data that does not need to be encrypted, the data that does not need to be encrypted is data in the target data or data related to the target data, the integrity protection encryption area is used to carry data that needs integrity protection and encryption, and the data that needs integrity protection and encryption is data in the target data; b) performing, by the network side device, service processing on the target message based on the data carried in the unencrypted area in the target message; and c) sending, by the network side device to the second device, a target message obtained after the service processing; and d) wherein the unencrypted area comprises an unprotected area and an integrity protection unencrypted area, the unprotected area is used to carry data that does not need integrity protection and does not need to be encrypted, and the integrity protection unencrypted area is used to carry data that needs integrity protection but does not need to be encrypted.
A contactless electronic system configured for contactless communications with a reader over an electromagnetic field and comprising a power supply, a current monitor, a processing system comprising a hardware processor configured for performing operations, a dynamic extra current loader and a clock generator, wherein: - said current monitor is configured for determining the maximal current Imax that can be provided by the power supply to the processing system from the electromagnetic field, - said current monitor is configured for comparing, during an execution phase of said hardware processor, said determined maximal current Imax and a current drawn by the processing system Iplatform, - said dynamic extra current loader is configured for loading an extra current Iextra equal to Imax-Iplatform when the current drawn by the processing system Iplatform is lower than the determined maximal current Imax. - said current monitor is configured for determining the maximal current Imax that can be provided by the power supply to the processing system from the electromagnetic field, - said current monitor is configured for comparing, during an execution phase of said hardware processor, said determined maximal current Imax and a current drawn by the processing system Iplatform, - said dynamic extra current loader is configured for loading an extra current Iextra equal to Imax-Iplatform when the current drawn by the processing system Iplatform is lower than the determined maximal current Imax.
Method for managing an engine of a motor vehicle equipped with an acceleration pedal comprising: receiving a value of a parameter representative of a depression of the acceleration pedal (X_pedal), determining (23, 24) a torque setpoint value from the received value, and commanding the operation of the engine on the basis of the determined torque setpoint, and wherein, in order to determine the torque setpoint value, for at least one engine speed value, a torque setpoint value is associated with each value of the parameter representative of the depression of the acceleration pedal over at least a portion of an achievable pedal depression range, such that, said portion of the depression range being divided into at least three intervals including a first interval between a lower bound of said portion of the achievable depression range and a first threshold value strictly greater than said lower bound, a second interval extending between the first threshold value and a second threshold value strictly greater than the first threshold value, and a third interval between the second threshold value and an upper bound of this portion of the depression range, the torque setpoint increases more with the parameter representative of the depression of the acceleration pedal over the first interval and the third interval than over the second interval, characterized in that the upper bound of the portion of the depression range corresponds to a maximum pedal depression value, a curve representing the evolution of the torque setpoint as a function of the pedal depression has a discontinuity at the upper bound of the pedal depression range, said discontinuity corresponding to a sharp torque increase. receiving a value of a parameter representative of a depression of the acceleration pedal (X_pedal), determining (23, 24) a torque setpoint value from the received value, and commanding the operation of the engine on the basis of the determined torque setpoint, and wherein, in order to determine the torque setpoint value, for at least one engine speed value, a torque setpoint value is associated with each value of the parameter representative of the depression of the acceleration pedal over at least a portion of an achievable pedal depression range, such that, said portion of the depression range being divided into at least three intervals including a first interval between a lower bound of said portion of the achievable depression range and a first threshold value strictly greater than said lower bound, a second interval extending between the first threshold value and a second threshold value strictly greater than the first threshold value, and a third interval between the second threshold value and an upper bound of this portion of the depression range, the torque setpoint increases more with the parameter representative of the depression of the acceleration pedal over the first interval and the third interval than over the second interval,
A lubricating oil composition used in an internal combustion engine, the internal combustion engine using a fuel that contains at least one fat and oil selected from a group consisting of natural fat and oil, hydrotreated natural fat and oil, transesterified natural fat and oil and hydrotreated transesterified natural fat and oil, the lubricating oil composition comprising: a component that is an alkaline earth metal-based detergent, the component being contained by a content of more than 0.35 mass% and 2 mass% or less of total amount of the composition in terms of alkaline earth metal; a component that is a boron derivative of a succinimide compound substituted by an alkyl or alkenyl group having a number average molecular weight of 200 to 5000, the boron derivative being contained by a content of 0.01 to 0.2 mass% of the total amount of the composition in terms of boron, and wherein a mass ratio (B/N) of boron and nitrogen contained in the component is 0.6 or more; and a phenol-based antioxidant and/or an amine-based antioxidant being contained by 0.3 mass% or more of the total amount of the composition. a component that is an alkaline earth metal-based detergent, the component being contained by a content of more than 0.35 mass% and 2 mass% or less of total amount of the composition in terms of alkaline earth metal; a component that is a boron derivative of a succinimide compound substituted by an alkyl or alkenyl group having a number average molecular weight of 200 to 5000, the boron derivative being contained by a content of 0.01 to 0.2 mass% of the total amount of the composition in terms of boron, and wherein a mass ratio (B/N) of boron and nitrogen contained in the component is 0.6 or more; and a phenol-based antioxidant and/or an amine-based antioxidant being contained by 0.3 mass% or more of the total amount of the composition.
Organic light emitting device comprising between anode and cathode at least one emitting layer comprising a phosphorescent emitter and at least one hole transporting and/or electron blocking layer comprising a compound represented by general formula wherein R 1 -R 5 and R 11 -R 15 are independently selected from phenyl and hydrogen or the adjacent substituents are linked so that they form an aromatic ring, R 6 -R 10 and R 16 -R 20 are independently selected from hydrogen, C1-C20 alkyl or C3-C20 cycloalkyl, C1-C20 alkoxy or C3-C20 cycloalkyloxy, C7-C20 arylalkyl, C6-C20 aryl and C2-C20 heteroaryl, x is an integer chosen from 0 and 1, wherein for x = 0, R 22 is selected from hydrogen, C1-C20 alkyl or C3-C20 cycloalkyl, C1-C20 alkoxy or C3-C20 cycloalkyloxy, C7-C20 arylalkyl, C6-C20 aryl and C2-C20 heteroaryl, whereas for x = 1, R 21 and R 22 are independently selected from hydrogen, C1-C10 alkyl, C3-C10 cycloalkyl, C1-C10 alkoxy and C3-C10 cycloalkyloxy, wherein the aromatic ring can be formed by i) R 1 with R 2 as well as R 11 with R 12 or ii) R 2 with R 3 as well as R 12 with R 13 and at least two of R 6 - R 10 and at least two of R 16 -R 20 are methyl, or at least one of R 6 -R 10 and at least one of R 16 -R 20 is selected from C2-C20 alkyl, C3-C20 cycloalkyl, C1-C20 alkoxy, C3-C20 cycloalkyloxy, C7-C20 arylalkyl, C6-C20 aryl and C2-C20 heteroaryl. wherein R 1 -R 5 and R 11 -R 15 are independently selected from phenyl and hydrogen or the adjacent substituents are linked so that they form an aromatic ring, R 6 -R 10 and R 16 -R 20 are independently selected from hydrogen, C1-C20 alkyl or C3-C20 cycloalkyl, C1-C20 alkoxy or C3-C20 cycloalkyloxy, C7-C20 arylalkyl, C6-C20 aryl and C2-C20 heteroaryl, x is an integer chosen from 0 and 1, wherein for x = 0, R 22 is selected from hydrogen, C1-C20 alkyl or C3-C20 cycloalkyl, C1-C20 alkoxy or C3-C20 cycloalkyloxy, C7-C20 arylalkyl, C6-C20 aryl and C2-C20 heteroaryl, whereas for x = 1, R 21 and R 22 are independently selected from hydrogen, C1-C10 alkyl, C3-C10 cycloalkyl, C1-C10 alkoxy and C3-C10 cycloalkyloxy, wherein the aromatic ring can be formed by i) R 1 with R 2 as well as R 11 with R 12 or ii) R 2 with R 3 as well as R 12 with R 13 and i) R 1 with R 2 as well as R 11 with R 12 or ii) R 2 with R 3 as well as R 12 with R 13 and at least two of R 6 - R 10 and at least two of R 16 -R 20 are methyl, or at least one of R 6 -R 10 and at least one of R 16 -R 20 is selected from C2-C20 alkyl, C3-C20 cycloalkyl, C1-C20 alkoxy, C3-C20 cycloalkyloxy, C7-C20 arylalkyl, C6-C20 aryl and C2-C20 heteroaryl.
Moulded thermoplastic-matrix part able to constitute a duct (1, 1') equipping an aerial vehicle or space vehicle, the part having an external surface (2, 2') with symmetry of revolution at least in part, wherein the external surface comprises a multitude of integrally moulded depressions (6, 6') connected in pairs to one another by crests (7, 7'), and wherein: - each of the depressions has a generally spherical or cylindrical concave surface and a maximum transverse dimension D between the adjacently paired crests of between 3 mm and 10 mm, measured in a direction d perpendicular to the crests delimiting each depression, and - each of the crests has an apex of transverse width L measured in said direction d, where L < D. - each of the depressions has a generally spherical or cylindrical concave surface and a maximum transverse dimension D between the adjacently paired crests of between 3 mm and 10 mm, measured in a direction d perpendicular to the crests delimiting each depression, and - each of the crests has an apex of transverse width L measured in said direction d, where L < D.
A multi-layer piezoelectric element, comprising: a stacked body in which piezoelectric layers and internal electrode layers are laminated; a conductor layer disposed on a side face of the stacked body; a conductive joining material layer disposed on a surface of the conductor layer; and an external electrode joined to the conductor layer via the conductive joining material layer, characterised in that the conductive joining material layer comprises solder and a conductive adhesive, the solder constituting an end of the conductive joining material layer which end confronts an end of the external electrode to be connected to an external circuit, a boundary existing between the solder and the conductive adhesive. a stacked body in which piezoelectric layers and internal electrode layers are laminated; a conductor layer disposed on a side face of the stacked body; a conductive joining material layer disposed on a surface of the conductor layer; and an external electrode joined to the conductor layer via the conductive joining material layer, characterised in that the conductive joining material layer comprises solder and a conductive adhesive, the solder constituting an end of the conductive joining material layer which end confronts an end of the external electrode to be connected to an external circuit, a boundary existing between the solder and the conductive adhesive.
A method for producing a polymeric membrane comprising the steps of: (a) dissolving at least one amphiphillic block copolymer in a solvent to form a casting solution of the block copolymer, (b) extruding the casting solution onto a carrier substrate to form a film, (c) evaporating a portion of the solvent near the surface during a standing period, (d) contacting the extruded solution with non-solvent to induce phase separation and thereby producing an integral asymmetric polymeric membrane in flat sheet geometry, and (e) crosslinking the integral asymmetric polymeric membrane by application of heat or radiation thereby producing a membrane having a homogeneous porosity throughout the entire polymeric phase, wherein the amphiphillic block copolymer is an amphiphillic diblock copolymer, containing blocks of a polar copolymer and blocks of a benzocyclobutene copolymer. (a) dissolving at least one amphiphillic block copolymer in a solvent to form a casting solution of the block copolymer, (b) extruding the casting solution onto a carrier substrate to form a film, (c) evaporating a portion of the solvent near the surface during a standing period, (d) contacting the extruded solution with non-solvent to induce phase separation and thereby producing an integral asymmetric polymeric membrane in flat sheet geometry, and (e) crosslinking the integral asymmetric polymeric membrane by application of heat or radiation thereby producing a membrane having a homogeneous porosity throughout the entire polymeric phase,
Process for providing a corrosion-resistant coating on one or more corrodible metal surface, comprising: i) forming a layer of a waterborne coating composition on said surface, said composition comprising phenoxy resin, crosslinking agent for said resin, fluoropolymer, and a liquid carrier medium; ii) drying said layer; and iii) heating said layer to a temperature that causes a crosslinking reaction between said phenoxy resin and said crosslinking agent, wherein the heating step is performed at no greater than 290°C, to obtain as a result thereof said corrosion-resistant coating on said metal surface; wherein the phenoxy resins are polyhydroxyether polymers having a weight average molecular weight, Mw, greater than 15,000, and having terminal alpha-glycol groups; and wherein the term phenoxy resin includes modified phenoxy resins, wherein said phenoxy resin is present in said waterborne coating composition in an amount of 40 - 60% by weight of solids based on the total weight of all solid components in said coating composition, and said fluoropolymer is present in said waterborne coating composition in an amount of 10 - 26% by weight of solids based on the total weight of all solid components in said coating composition, and wherein water comprises at least 70% by weight of said liquid carrier medium based on the total weight of said liquid carrier medium. i) forming a layer of a waterborne coating composition on said surface, said composition comprising phenoxy resin, crosslinking agent for said resin, fluoropolymer, and a liquid carrier medium; ii) drying said layer; and iii) heating said layer to a temperature that causes a crosslinking reaction between said phenoxy resin and said crosslinking agent, wherein the heating step is performed at no greater than 290°C, to obtain as a result thereof said corrosion-resistant coating on said metal surface; wherein the phenoxy resins are polyhydroxyether polymers having a weight average molecular weight, Mw, greater than 15,000, and having terminal alpha-glycol groups; and wherein the term phenoxy resin includes modified phenoxy resins, wherein said phenoxy resin is present in said waterborne coating composition in an amount of 40 - 60% by weight of solids based on the total weight of all solid components in said coating composition, and said fluoropolymer is present in said waterborne coating composition in an amount of 10 - 26% by weight of solids based on the total weight of all solid components in said coating composition, and wherein water comprises at least 70% by weight of said liquid carrier medium based on the total weight of said liquid carrier medium.
Sealing cap for sanitary pipes, which comprises a gasket for watertight sealing of an open end of the sanitary pipe when the sealing cap is fitted in the open end, characterized in that the sealing cap comprises a straight cylindrical part and an adjoining conical portion that tapers, wherein the conical portion becomes narrower the further away from the straight cylindrical part.
A pharmaceutical composition in the form of a tablet or caplet, comprising a core, said core comprising sodium ibuprofen di-hydrate and at least two binders including microcrystalline cellulose and mannitol; said composition comprising at least one coating; wherein said coated core has a sodium content of less than 23 mg/dosage unit.
A battery, comprising: a positive electrode assembly comprising a positive electrode substrate, a positive electrode active material coated at one surface of the positive electrode substrate, and a positive electrode tab attached to the one surface of the positive electrode substrate; a negative electrode assembly comprising a negative electrode substrate, a negative electrode active material coated at one surface of the negative electrode substrate, and a negative electrode tab attached to the one surface of the negative electrode substrate; and a separator located between the positive electrode assembly and the negative electrode assembly, wherein in a first area facing the positive electrode tab at the one surface of the negative electrode substrate, the negative electrode active material is not coated, and in a second area adjacent to the first area in a length direction of the positive electrode tab at the one surface of the negative electrode substrate, the negative electrode active material is coated. a positive electrode assembly comprising a positive electrode substrate, a positive electrode active material coated at one surface of the positive electrode substrate, and a positive electrode tab attached to the one surface of the positive electrode substrate; a negative electrode assembly comprising a negative electrode substrate, a negative electrode active material coated at one surface of the negative electrode substrate, and a negative electrode tab attached to the one surface of the negative electrode substrate; and a separator located between the positive electrode assembly and the negative electrode assembly, wherein in a first area facing the positive electrode tab at the one surface of the negative electrode substrate, the negative electrode active material is not coated, and in a second area adjacent to the first area in a length direction of the positive electrode tab at the one surface of the negative electrode substrate, the negative electrode active material is coated.
An exhaust gas purification material to be disposed in an exhaust passage of an internal combustion engine, and purifies exhaust gas emitted by the internal combustion engine, the exhaust gas purification material comprising: a particulate filter that traps particulate matter in the exhaust gas and contains an SCR catalyst for adsorbing ammonia and reducing NOx in the exhaust gas, wherein an upstream portion of the filter including an exhaust gas inlet-side end, and a downstream portion of the filter including an exhaust gas outlet-side end, each contain an SCR catalyst, a maximum allowable adsorption amount of ammonia adsorbable by the filter differs between the upstream portion and the downstream portion, and a maximum allowable adsorption amount of ammonia A in the upstream portion is smaller than a maximum allowable adsorption amount of ammonia B in the downstream portion (A<B), wherein a value of ratio (B/A) of the maximum allowable adsorption amount of ammonia A in the upstream portion and the maximum allowable adsorption amount of ammonia B in the downstream portion satisfies 1.1≤(B/A)≤2, which ratio is achievable using only a same type of SCR catalyst, wherein the SCR catalyst contained in the upstream portion and the SCR catalyst contained in the downstream portion are qualitatively identical, and the content of SCR catalyst per L of substrate in the upstream portion is smaller than the content of SCR catalyst per L of substrate in the downstream portion. a particulate filter that traps particulate matter in the exhaust gas and contains an SCR catalyst for adsorbing ammonia and reducing NOx in the exhaust gas, wherein an upstream portion of the filter including an exhaust gas inlet-side end, and a downstream portion of the filter including an exhaust gas outlet-side end, each contain an SCR catalyst, a maximum allowable adsorption amount of ammonia adsorbable by the filter differs between the upstream portion and the downstream portion, and a maximum allowable adsorption amount of ammonia A in the upstream portion is smaller than a maximum allowable adsorption amount of ammonia B in the downstream portion (A<B),
LCD screen comprising an LCD module mounted in a mechanical structure, said module being clamped on its edges between an inner frame and an outer frame of said mechanical structure, the LCD module comprising a polarizer on the rear face of a plate of the module and an optical stack on the rear face of the polarizer comprising at least one optical film plated against said polarizer, the one at least of the faces of said film and of the polarizer plated against each other being of non-null surface roughness, characterised in that it comprises a spacer, arranged at the rear of the module, on its edges, between the module and the inner frame of the mechanical structure, said spacer having dimensions and a rigidity enabling a clamping without overhang of the module and in that the optical stack is offset from the spacer, delimiting between the spacer and the optical stack a space in which a bead of glue is arranged on the section of the stack on all its edges, said glue bead providing the sealing of the smooth/rough interfaces between the polarizer and the optical film and integrating the stacking with the module.