mhurhangee/patent-ind-claim-en huggingface dataset:
A method of turbo/non-turbo differential decoding to decode a forward error correction, FEC, and differentially encoded signal, the method comprising: obtaining the FEC and differentially encoded signal received via a communication channel; supplying the FEC and differentially encoded signal to a soft-input soft-output , SISO, differential decoder that is bi-directionally coupled to a SISO FEC decoder configured to perform low density parity check decoding; operating over a first number of decoding iterations of the FEC and differentially encoded signal, the SISO differential decoder and the SISO forward error correction decoder in a turbo decoding mode in which soft-decision messages generated by the SISO differential decoder , SDD messages , are passed to the SISO FEC decoder and FEC messages generated by the SISO FEC decoder are passed to the SISO differential decoder for updating the SDD messages, wherein the SISO FEC decoder stores the SDD messages passed on from the SISO differential decoder; after the first number of decoding iterations, switching to a non-turbo decoding mode comprising operating over a second number of decoding iterations of the FEC and differentially encoded signal , the SISO differential decoder and the SISO FEC decoder in the non-turbo decoding mode in which the SISO FEC decoder operates without any messages passing to and from the SISO differential decoder by using the stored SDD messages; and, obtaining decoder output from the SISO FEC decoder, wherein the decoder output comprises the decoded FEC and differentially encoded signal . obtaining the FEC and differentially encoded signal received via a communication channel; supplying the FEC and differentially encoded signal to a soft-input soft-output , SISO, differential decoder that is bi-directionally coupled to a SISO FEC decoder configured to perform low density parity check decoding; operating over a first number of decoding iterations of the FEC and differentially encoded signal, the SISO differential decoder and the SISO forward error correction decoder in a turbo decoding mode in which soft-decision messages generated by the SISO differential decoder , SDD messages , are passed to the SISO FEC decoder and FEC messages generated by the SISO FEC decoder are passed to the SISO differential decoder for updating the SDD messages, wherein the SISO FEC decoder stores the SDD messages passed on from the SISO differential decoder; after the first number of decoding iterations, switching to a non-turbo decoding mode comprising operating over a second number of decoding iterations of the FEC and differentially encoded signal , the SISO differential decoder and the SISO FEC decoder in the non-turbo decoding mode in which the SISO FEC decoder operates without any messages passing to and from the SISO differential decoder by using the stored SDD messages; and, obtaining decoder output from the SISO FEC decoder, wherein the decoder output comprises the decoded FEC and differentially encoded signal .
A soft contact lens that has low water content or no water content, low water content defined as the water content being 30% by mass or less, the soft contact lens comprising: a circular central part positioned at a center of the soft contact lens; an intermediate part positioned at an outer peripheral side of the central part and forming an annular shape having a center coaxial with the central part; and an outer edge part positioned at an outer peripheral side of the intermediate part and forming an annular shape having a center coaxial with the central part , characterized in that the respective radii of curvature of the central part , the intermediate part , and the outer edge part satisfy the following formula Radius curvature of central part > Radius of curvature of outer edge part > Radius of curvature of intermediate part , and a sagittal depth (E) of the soft contact lens is within a range of a sagittal depth (E) in a case where the entire soft contact lens is formed with a uniformly constant curvature radius in a range of a radius of curvature ±0.2 mm of the base curve of the outer edge part , wherein the soft contact lens has a tensile elastic modulus of between 0.1 MPa to 3 MPa. a circular central part positioned at a center of the soft contact lens; an intermediate part positioned at an outer peripheral side of the central part and forming an annular shape having a center coaxial with the central part; and an outer edge part positioned at an outer peripheral side of the intermediate part and forming an annular shape having a center coaxial with the central part , characterized in that the respective radii of curvature of the central part , the intermediate part , and the outer edge part satisfy the following formula Radius curvature of central part > Radius of curvature of outer edge part > Radius of curvature of intermediate part , and a sagittal depth (E) of the soft contact lens is within a range of a sagittal depth (E) in a case where the entire soft contact lens is formed with a uniformly constant curvature radius in a range of a radius of curvature ±0.2 mm of the base curve of the outer edge part , wherein the soft contact lens has a tensile elastic modulus of between 0.1 MPa to 3 MPa. and a sagittal depth (E) of the soft contact lens is within a range of a sagittal depth (E) in a case where the entire soft contact lens is formed with a uniformly constant curvature radius in a range of a radius of curvature ±0.2 mm of the base curve of the outer edge part , wherein the soft contact lens has a tensile elastic modulus of between 0.1 MPa to 3 MPa.
A method of determination of a pollution protection factor (PPF) of a cosmetic composition, comprising: (a) a step of testing, by any known test method, the ability (α) of the cosmetic composition to render ineffective at least one type of pollutant present on the skin and expressing it on a scale of 0 to 1, where (1 - α) indicates corresponding potential residual damage to the skin, wherein said composition comprises at least one ingredient known to render ineffective said at least one type of pollutant and said at least one ingredient is an anti-inflammatory or antioxidant; (b) a step of testing, by any known test method, the ability (β) of the cosmetic composition to inhibit the contact of at least one type of pollutant with skin and expressing it also on a scale of 0 to 1, where (1 - β) indicates corresponding potential residual damage to the skin wherein said composition comprises at least one ingredient known to inhibit the contact of at least one type of pollutant with skin and wherein said ingredient is a sunscreen, a barrier enhancer or a polymer, further followed by; (c) a step of testing, by any known test method, the ability (γ) of the cosmetic composition to remove at least one type of pollutant present on the skin, expressing it also on a scale of 0 to 1, where (1 - γ) indicates corresponding potential residual damage to the skin, and calculating the pollution protection factor by the equation F. F PPF = − log 1 − α × 1 − β × 1 − γ 0.047 (a) a step of testing, by any known test method, the ability (α) of the cosmetic composition to render ineffective at least one type of pollutant present on the skin and expressing it on a scale of 0 to 1, where (1 - α) indicates corresponding potential residual damage to the skin, wherein said composition comprises at least one ingredient known to render ineffective said at least one type of pollutant and said at least one ingredient is an anti-inflammatory or antioxidant; (b) a step of testing, by any known test method, the ability (β) of the cosmetic composition to inhibit the contact of at least one type of pollutant with skin and expressing it also on a scale of 0 to 1, where (1 - β) indicates corresponding potential residual damage to the skin wherein said composition comprises at least one ingredient known to inhibit the contact of at least one type of pollutant with skin and wherein said ingredient is a sunscreen, a barrier enhancer or a polymer, further followed by; (c) a step of testing, by any known test method, the ability (γ) of the cosmetic composition to remove at least one type of pollutant present on the skin, expressing it also on a scale of 0 to 1, where (1 - γ) indicates corresponding potential residual damage to the skin, and calculating the pollution protection factor by the equation F. F PPF = − log 1 − α × 1 − β × 1 − γ 0.047
Tray for an avionics bay , said tray being intended to support, electrically connect and ventilate a rackable electrical module , this tray having a fluidic interface wall for fluidically interfacing with the avionics bay and an adjacent wall for electrical connection, the fluidic interface wall having calibrated ventilation orifices , and also fastening means for fastening a rackable electrical module against the fluidic interface wall , the fluidic interface wall also having: - a ventilation window ; - a support frame which is disposed around the ventilation window and which has a bearing surface for a rackable electrical module ; - a ventilation plate bearing the ventilation orifices ; this avionics bay tray being characterized in that the ventilation plate is provided with a collar at its periphery and with stop surfaces which are disposed facing the collar , the ventilation plate further having: - a diffusion chamber into which the ventilation orifices lead; - a contact track for the rackable electrical module , this contact track surrounding the diffusion chamber ; the ventilation plate being mounted in the ventilation window such that the collar and the stop surfaces enclose the rim of the ventilation window with a clearance filled by an elastic seal disposed between the collar and the rim of the ventilation window , the plane in which the contact track extends being spaced apart from the plane in which the bearing surface of the support frame extends. - a ventilation window ; - a support frame which is disposed around the ventilation window and which has a bearing surface for a rackable electrical module ; - a ventilation plate bearing the ventilation orifices ; - a diffusion chamber into which the ventilation orifices lead; - a contact track for the rackable electrical module , this contact track surrounding the diffusion chamber ;
A communication method applied to an application function network element, comprising: receiving data network identification information from a session management function network element, wherein the data network identification information comprises an identifier of at least one data network that supports serving a first terminal device at a current location, and the at least one data network comprises a first data network; and in response to determining, based on the data network identification information, that the first terminal device has not accessed the first data network, sending a first message to the session management function network element, wherein the first message comprises an identifier of the first data network, and the first message is used to establish a data path between a user plane function network element corresponding to the first data network and a classifier node, wherein the classifier node distributes an uplink data packet from the first terminal to a user plane function network element corresponding to one of the at least one data network according to a distribution rule or sends a data packet from a user plane function network element corresponding to one of the at least one data network to the first terminal. receiving data network identification information from a session management function network element, wherein the data network identification information comprises an identifier of at least one data network that supports serving a first terminal device at a current location, and the at least one data network comprises a first data network; and in response to determining, based on the data network identification information, that the first terminal device has not accessed the first data network, sending a first message to the session management function network element, wherein the first message comprises an identifier of the first data network, and the first message is used to establish a data path between a user plane function network element corresponding to the first data network and a classifier node, wherein the classifier node distributes an uplink data packet from the first terminal to a user plane function network element corresponding to one of the at least one data network according to a distribution rule or sends a data packet from a user plane function network element corresponding to one of the at least one data network to the first terminal.
A friction welding method, in which one member is brought into contact with another member and slides in a state that a load is applied substantially perpendicularly to an interface to be welded, comprising; a first step of setting the pressure (P 1 ) calculated from the area of the interface to be welded and the load to be equal to or higher than the yield stress of the one member and/or the other member and equal to or lower than the tensile strength at a desired welding temperature, and performing the friction welding at the set pressure (P 1 ), and characterised by a second step of reducing the load, and performing the friction welding under the reduced load, wherein the first step and the second step are carried out successively while continuously performing the friction welding. a first step of setting the pressure (P 1 ) calculated from the area of the interface to be welded and the load to be equal to or higher than the yield stress of the one member and/or the other member and equal to or lower than the tensile strength at a desired welding temperature, and performing the friction welding at the set pressure (P 1 ), and characterised by a second step of reducing the load, and performing the friction welding under the reduced load, wherein the first step and the second step are carried out successively while continuously performing the friction welding.
Connecting element for jolt-free connection of end sections of two assembled flat sections , with two limbs , swivellably connected to one another via a pivot joint , for sliding onto the end sections of the flat sections , wherein each limb has at least one limb part which can be expanded elastically upon sliding onto the end section of the flat section with at least one snap fitting holding the flat section in the limb , at least one elastically deformable compensating element for compensating manufacturing tolerances and installation tolerances of the flat sections , and has two rectangular and extensively consistent limb walls running parallel to one another, and four side edge regions, one of which jointly forms the pivot joint , one is a further, open frontal edge region opposite the pivot joint , and the two further side edge regions which run at a right angle to the pivot joint are an open insertion region and a connection between the two limb walls , wherein a clip, pointing in direction of the second, opposing limb wall is formed on the open insertion region at the edge of the one limb wall , which clip forms the snap fitting . with two limbs , swivellably connected to one another via a pivot joint , for sliding onto the end sections of the flat sections , wherein each limb has at least one limb part which can be expanded elastically upon sliding onto the end section of the flat section with at least one snap fitting holding the flat section in the limb , at least one elastically deformable compensating element for compensating manufacturing tolerances and installation tolerances of the flat sections , and has two rectangular and extensively consistent limb walls running parallel to one another, and four side edge regions, one of which jointly forms the pivot joint , one is a further, open frontal edge region opposite the pivot joint , and the two further side edge regions which run at a right angle to the pivot joint are an open insertion region and a connection between the two limb walls , wherein a clip, pointing in direction of the second, opposing limb wall is formed on the open insertion region at the edge of the one limb wall , which clip forms the snap fitting .
A slurry composition for a non-aqueous secondary battery positive electrode comprising a positive electrode active material, a conductive material, a particulate polymer, and a polyhydric alcohol polycondensate, wherein the positive electrode active material includes an iron-containing compound, the particulate polymer includes a hydroxyl group-containing monomer unit, the particulate polymer is composed of a water-insoluble polymer, wherein "water-insoluble" means that when 0.5 g of the particulate polymer is dissolved in 100 g of water at 25°C, insoluble content is 90 mass% or more, and the polyhydric alcohol polycondensate is polyglycerin or hexaethylene glycol. the positive electrode active material includes an iron-containing compound, the particulate polymer includes a hydroxyl group-containing monomer unit, the particulate polymer is composed of a water-insoluble polymer, wherein "water-insoluble" means that when 0.5 g of the particulate polymer is dissolved in 100 g of water at 25°C, insoluble content is 90 mass% or more, and the polyhydric alcohol polycondensate is polyglycerin or hexaethylene glycol.
A composite article, comprising: a plurality of layers , wherein at least a portion of the layers form a layer stack ; a plurality of fibers at least partially embedded within a matrix , wherein the fibres are arranged in the plurality of layers within the matrix ; the fibers adhering to the matrix at a level of adhesion; and the adhesion level varying spatially within the composite article according to the following arrangement: varying between at least two of the layers , wherein a group of layers has a different adhesion level than the adhesion level of an adjacent layer group, and the adhesion level across the layers progressively increases or decreases between a first face of the composite article and an opposing second face of the composite article. a plurality of layers , wherein at least a portion of the layers form a layer stack ; a plurality of fibers at least partially embedded within a matrix , wherein the fibres are arranged in the plurality of layers within the matrix ; the fibers adhering to the matrix at a level of adhesion; and the adhesion level varying spatially within the composite article according to the following arrangement: varying between at least two of the layers , wherein a group of layers has a different adhesion level than the adhesion level of an adjacent layer group, and the adhesion level across the layers progressively increases or decreases between a first face of the composite article and an opposing second face of the composite article.
A passenger monitoring system for a vehicle , comprising - a human-machine interface unit , - a passenger monitoring unit , and - a control unit , the human-machine interface unit comprising at least a displaying element , the displaying element being arranged facing a user, the passenger monitoring unit being arranged to generate image data of a passenger sitting in the vehicle , the control unit being configured to receive information on a driving mode of the vehicle , and the system is characterised in that the control unit being configured to cause the displaying element to display an image based on the image data generated by the passenger monitoring unit , when an autonomous driving mode is activated. - a human-machine interface unit , - a passenger monitoring unit , and - a control unit , the human-machine interface unit comprising at least a displaying element , the displaying element being arranged facing a user, the passenger monitoring unit being arranged to generate image data of a passenger sitting in the vehicle , the control unit being configured to receive information on a driving mode of the vehicle , and the system is characterised in that the control unit being configured to cause the displaying element to display an image based on the image data generated by the passenger monitoring unit , when an autonomous driving mode is activated.
A method of determining, with a computer, a model of a process for manufacturing a semiconductor integrated circuit defined by a target design to be printed on a substrate, said method comprising: - Selecting a calibration set comprising a plurality of patterns ; - Selecting at least an input variable representative of a variance in features of said plurality of patterns ; - Acquiring a series of values of the at least an input variable by determining a first series of values of the at least an input variable at a number of points on the plurality of patterns ; - Calculating, at the number of points, a second series of values of an output variable representative of a print of patterns of the calibration set ; - Determining the process model as being one of a functional and associative relationship between the first series of values of the at least an input variable and the second series of values of the output variable ; said method being characterized in that the values of the at least an input variable are determined by convoluting a compound of a kernel function and a deformation function with the target design, said deformation function comprising a selected shift angle. - Selecting a calibration set comprising a plurality of patterns ; - Selecting at least an input variable representative of a variance in features of said plurality of patterns ; - Acquiring a series of values of the at least an input variable by determining a first series of values of the at least an input variable at a number of points on the plurality of patterns ; - Calculating, at the number of points, a second series of values of an output variable representative of a print of patterns of the calibration set ; - Determining the process model as being one of a functional and associative relationship between the first series of values of the at least an input variable and the second series of values of the output variable ;
A compound, or a pharmaceutically acceptable salt thereof, having the formula: wherein, R 1 is unsubstituted C 3 -C 8 cycloalkyl, unsubstituted 3 to 8 membered heterocycloalkyl, unsubstituted C 6 -C 10 aryl, or unsubstituted 5 to 10 membered heteroaryl; R 2 is independently -OCX 3 , -CX 3 , or -OCHX 2 ; R 3 is -C(O)NR 4 R 5 , -SO 2 R 6 , or -SO 2 NR 4 R 5 ; R 4 , R 5 , and R 6 are independently hydrogen, unsubstituted C 1 -C 8 alkyl or unsubstituted 2 to 8 membered heteroalkyl; where R 4 and R 5 are optionally joined to form an unsubstituted 4 to 8 membered heterocycloalkyl or unsubstituted 5 to 6 membered heteroaryl; the symbol z is an integer from 1 to 4; and X is -F, -Cl, -Br, or -I. R 1 is unsubstituted C 3 -C 8 cycloalkyl, unsubstituted 3 to 8 membered heterocycloalkyl, unsubstituted C 6 -C 10 aryl, or unsubstituted 5 to 10 membered heteroaryl; R 2 is independently -OCX 3 , -CX 3 , or -OCHX 2 ; R 3 is -C(O)NR 4 R 5 , -SO 2 R 6 , or -SO 2 NR 4 R 5 ; R 4 , R 5 , and R 6 are independently hydrogen, unsubstituted C 1 -C 8 alkyl or unsubstituted 2 to 8 membered heteroalkyl; where R 4 and R 5 are optionally joined to form an unsubstituted 4 to 8 membered heterocycloalkyl or unsubstituted 5 to 6 membered heteroaryl; the symbol z is an integer from 1 to 4; and X is -F, -Cl, -Br, or -I.