mhurhangee/patent-ind-claim-en huggingface dataset:
A method of decoding an image encoding (LDR_CONT) having a first luminance dynamic range (R oLDR), which is a low dynamic range having a peak brightness of the range of 500 nit, or lower, into an output image (HDR_FIN) having a second luminance dynamic range (R_oHDR), which is a high dynamic range having a peak brightness of at least 750 nit, in which image encoding (LDR_CONT) are encoded pixel colors of an original image (HDR_ORIG) of a high dynamic range scene, the method comprising: - tone mapping with a predetermined tone mapping strategy (FL2H) at least the lumas of pixels in the image encoding (LDR_CONT) onto lumas of pixels in an intermediate image (HDR_PRED) corresponding to the second luminance dynamic range (R oHDR); and the method being characterized in that it further comprises: - modifying the lumas of a specified sub-set of the pixels of the intermediate image (HDR PRED) by multiplying them by predetermined multiplication factors, with a separate multiplication factor for each of the pixels in the sub-set of the pixels, which multiplication factors are read from metadata which is received in the image signal which also contains the image encoding (LDR_CONT), the predetermined multiplication factors representing a multiplicative correction to be applied to the lumas of the sub-set of the pixels of the intermediate image for obtaining a correction of the tone mapping from the first luminance dynamic range to the second luminance dynamic range, resulting in the output image (HDR_FIN). - tone mapping with a predetermined tone mapping strategy (FL2H) at least the lumas of pixels in the image encoding (LDR_CONT) onto lumas of pixels in an intermediate image (HDR_PRED) corresponding to the second luminance dynamic range (R oHDR); and the method being characterized in that it further comprises: - modifying the lumas of a specified sub-set of the pixels of the intermediate image (HDR PRED) by multiplying them by predetermined multiplication factors, with a separate multiplication factor for each of the pixels in the sub-set of the pixels, which multiplication factors are read from metadata which is received in the image signal which also contains the image encoding (LDR_CONT), the predetermined multiplication factors representing a multiplicative correction to be applied to the lumas of the sub-set of the pixels of the intermediate image for obtaining a correction of the tone mapping from the first luminance dynamic range to the second luminance dynamic range, resulting in the output image (HDR_FIN).
Wall with acoustic integrated formwork comprising: - a first skin , which is intended to be oriented in a first direction, and which comprises: an outer face which is oriented toward the outside of the acoustic integrated formwork wall ; an inner face which is oriented toward the inside of the acoustic integrated formwork wall ; and at least one primary through-opening which opens at the outer face and at the inner face of this first skin , which extends through this first skin and which has at least one portion which diverges toward the outside of the acoustic integrated formwork wall and/or from the inner face of the first skin and toward the outer face of this first skin ; - a second skin , which is intended to be oriented in a second direction opposite to the first direction, which is parallel to the first skin , and which is positioned at a determined distance from the first skin so as to define an internal volume ; - connecting means which are configured to connect the first skin and the second skin ; - acoustic insulation means , which are positioned inside at least part of the internal volume , adjoining at least the inner face of the first skin and at which said at least one primary through-opening opens; - characterized in that at least part of said at least one primary through-opening takes the shape of at least part of a cone. - a first skin , which is intended to be oriented in a first direction, and which comprises: an outer face which is oriented toward the outside of the acoustic integrated formwork wall ; an inner face which is oriented toward the inside of the acoustic integrated formwork wall ; and at least one primary through-opening which opens at the outer face and at the inner face of this first skin , which extends through this first skin and which has at least one portion which diverges toward the outside of the acoustic integrated formwork wall and/or from the inner face of the first skin and toward the outer face of this first skin ; - a second skin , which is intended to be oriented in a second direction opposite to the first direction, which is parallel to the first skin , and which is positioned at a determined distance from the first skin so as to define an internal volume ; - connecting means which are configured to connect the first skin and the second skin ; - acoustic insulation means , which are positioned inside at least part of the internal volume , adjoining at least the inner face of the first skin and at which said at least one primary through-opening opens; - characterized in that at least part of said at least one primary through-opening takes the shape of at least part of a cone.
A method performed by a User Equipment, UE, for handling a Scheduling Request, SR, configuration in a wireless communications network , wherein the UE is configured with a plurality of SR configurations associated with any of: a respective logical channel and a respective radio bearer, the method comprising: when an event where the UE has reached its given maximum transmission attempts for one or more of the plurality of SR configurations occurs, configuring the UE with an action to be performed, which action relates to how to handle the plurality of SR configurations associated with any of: the respective logical channel and the respective radio bearer, wherein the configuring is based on any one out of a priority order between SR configurations, a coverage threshold for SR configurations to meet, and other indicators on the SR load for each SR configuration, and wherein the action further comprises choosing another SR configuration than the SR configuration that has reached its given maximum transmission attempts by using a Medium Access Control, MAC, Control Element, CE, comprising a bitmap field indicating which SR configurations are relevant for configuration.
A network device, comprising: a receiving module , configured to receive a user activation request sent by user equipment, UE, wherein the user activation request comprises user location information, ULI; a parsing module , configured to parse the ULI received by the receiving module , to acquire an area code of a location of the UE; a determining module , configured to determine an area code set to which the area code acquired by the parsing module belongs, wherein user locations indicated by area codes in the area code set are within a same geographical area range; and an acquiring module , configured to acquire, according to a mapping relationship between the area code set determined by the determining module and an actual access point name, APN, the actual APN for the UE. a receiving module , configured to receive a user activation request sent by user equipment, UE, wherein the user activation request comprises user location information, ULI; a parsing module , configured to parse the ULI received by the receiving module , to acquire an area code of a location of the UE; a determining module , configured to determine an area code set to which the area code acquired by the parsing module belongs, wherein user locations indicated by area codes in the area code set are within a same geographical area range; and an acquiring module , configured to acquire, according to a mapping relationship between the area code set determined by the determining module and an actual access point name, APN, the actual APN for the UE.
A method for assaying for alpha-L-iduronidase, comprising: (a) contacting a sample with a first solution to provide a solution comprising one or more lysosomal enzymes; (b) contacting the solution comprising one or more lysosomal enzymes with an enzyme substrate for alpha-L-iduronidase and incubating the substrate for alpha-L-iduronidase with the solution comprising one or more lysosomal enzymes for a time sufficient to provide a solution comprising an enzyme product for alpha-L-iduronidase, wherein the substrate for alpha-L-iduronidase is a compound having a carbohydrate moiety and an aglycone moiety and having the formula: wherein L 2 is a linker comprising 1-20 carbon atoms in which one or more carbon atoms may be replaced with a heteroatom selected from N, O, and S, and/or one or more of carbon atoms may be substituted with a C 1 -C 6 alkyl group or halogen; L 3 is a linker comprising 1-20 carbon atoms in which one or more carbon atoms may be replaced with a heteroatom selected from N, O, or S, and/or one or more carbon atoms may be substituted with a C 1 -C 6 alkyl group or halogen; R 4 is a C 1 -C 10 alkyl group; and (c) determining the quantity of alpha-L-iduronidase product. (a) contacting a sample with a first solution to provide a solution comprising one or more lysosomal enzymes; (b) contacting the solution comprising one or more lysosomal enzymes with an enzyme substrate for alpha-L-iduronidase and incubating the substrate for alpha-L-iduronidase with the solution comprising one or more lysosomal enzymes for a time sufficient to provide a solution comprising an enzyme product for alpha-L-iduronidase, wherein the substrate for alpha-L-iduronidase is a compound having a carbohydrate moiety and an aglycone moiety and having the formula: wherein L 2 is a linker comprising 1-20 carbon atoms in which one or more carbon atoms may be replaced with a heteroatom selected from N, O, and S, and/or one or more of carbon atoms may be substituted with a C 1 -C 6 alkyl group or halogen; L 3 is a linker comprising 1-20 carbon atoms in which one or more carbon atoms may be replaced with a heteroatom selected from N, O, or S, and/or one or more carbon atoms may be substituted with a C 1 -C 6 alkyl group or halogen; R 4 is a C 1 -C 10 alkyl group; and L 2 is a linker comprising 1-20 carbon atoms in which one or more carbon atoms may be replaced with a heteroatom selected from N, O, and S, and/or one or more of carbon atoms may be substituted with a C 1 -C 6 alkyl group or halogen; L 3 is a linker comprising 1-20 carbon atoms in which one or more carbon atoms may be replaced with a heteroatom selected from N, O, or S, and/or one or more carbon atoms may be substituted with a C 1 -C 6 alkyl group or halogen; R 4 is a C 1 -C 10 alkyl group; and (c) determining the quantity of alpha-L-iduronidase product.
Rotor nozzle , in particular for high-pressure cleaners , with a nozzle housing which has a swirl chamber between an inflow opening and an outlet opening , a rotor which is inclined with respect to a longitudinal axis (L) of the nozzle housing being arranged in the nozzle housing , which rotor is movably supported on a side facing the outlet opening and is mounted on a side facing away from the outlet opening on a bearing part which is rotatable about the longitudinal axis (L), wherein the bearing part can be set in rotation by fluid (F) entering the swirl chamber through the inflow opening , wherein the rotor nozzle has, in addition to the inflow opening , a bypass and a pressure-controlled valve which automatically releases the bypass in dependence on a pressure of the fluid (F), so that fluid (F) can flow into the swirl chamber through the inflow opening and additionally through the bypass .
Method for producing a shaped component , wherein the shaped component is produced from multiple layers arranged one on top of the other, and wherein at least one layer is produced at least in some regions from a starting material by means of a printing process, characterized in that at least one further layer is produced at least in some regions by means of a spraying process using fibre pieces , wherein fibre pieces of glass or aramid with a length of approximately 50 mm are used in the spraying process.
An axle assembly comprising: an axle housing having a center portion that defines a bowl opening and a differential carrier opening that receives a differential that has a ring gear ; and a bowl cover that is mounted to the axle housing , the bowl cover includes: a perimeter surface that is radially disposed about a center axis and extends around the bowl cover ; a flange that extends from the perimeter surface , wherein the flange facilitates mounting of the bowl cover to the axle housing ; and a bowl that extends from the flange and covers the bowl opening , and characterized in that the bowl is a substantially spherical cap that is centered about the center axis , and in that the bowl cover has an outer surface that faces away from the axle housing and a suspension mount that is disposed on the outer surface and that extends away from the axle housing . an axle housing having a center portion that defines a bowl opening and a differential carrier opening that receives a differential that has a ring gear ; and a bowl cover that is mounted to the axle housing , the bowl cover includes: a perimeter surface that is radially disposed about a center axis and extends around the bowl cover ; a flange that extends from the perimeter surface , wherein the flange facilitates mounting of the bowl cover to the axle housing ; and a bowl that extends from the flange and covers the bowl opening , and characterized in that the bowl is a substantially spherical cap that is centered about the center axis , and in that the bowl cover has an outer surface that faces away from the axle housing and a suspension mount that is disposed on the outer surface and that extends away from the axle housing . a perimeter surface that is radially disposed about a center axis and extends around the bowl cover ; a flange that extends from the perimeter surface , wherein the flange facilitates mounting of the bowl cover to the axle housing ; and a bowl that extends from the flange and covers the bowl opening , and characterized in that the bowl is a substantially spherical cap that is centered about the center axis , and in that the bowl cover has an outer surface that faces away from the axle housing and a suspension mount that is disposed on the outer surface and that extends away from the axle housing .
Vehicle , in particular rail vehicle, having an electrical conductor which is located at least in certain sections in the passenger compartment , and at least one electrical interface in the region of an opening in the outer skin of the vehicle or outside the vehicle , characterized in that the interface is separated from the interior of the vehicle by at least one fire protection device which, in the case of a fire in the passenger compartment , prevents or at least delays the fire from having the effect of disabling the interface the fire protection device is attached - when viewed from the passenger compartment - in front of the opening in the outer skin of the vehicle , the fire protection device has mineral wool and at least one piece of sheet metal which separates the interface from the passenger compartment , wherein the mineral wool is arranged between the electrical interface and the piece of sheet metal .
An auxiliary lubricant comprising: a composition comprising intermediate molecular weight surfactant-functionalized nanoparticles dispersed in a base oil, wherein said nanoparticles are functionalized with an amphoteric surfactant containing alcohol, amine, carboxylic acid, carbonate, ester, ether alcohol, sulfate, sulphonate, phosphate, phosphite, or phosphonate head groups and intermediate molecular weight hydrocarbon, fluorocarbon or siloxane tails having backbones 15-30 atoms in length, wherein the intermediate molecular weight amphoteric surfactant-functionalized nanoparticles comprise surfactant head groups adsorbed on nanoparticle surfaces, leaving intermediate molecular weight tails having backbones 15-30 atoms in length extended out and forming a boundary-like layer around the nanoparticle surfaces, wherein said nanoparticles are an inorganic phase selected from the group consisting of boric acid, metal sulfides comprising Zn, W and/or Mo and alkali silicates comprising Na and/or K. a composition comprising intermediate molecular weight surfactant-functionalized nanoparticles dispersed in a base oil, wherein said nanoparticles are functionalized with an amphoteric surfactant containing alcohol, amine, carboxylic acid, carbonate, ester, ether alcohol, sulfate, sulphonate, phosphate, phosphite, or phosphonate head groups and intermediate molecular weight hydrocarbon, fluorocarbon or siloxane tails having backbones 15-30 atoms in length, wherein the intermediate molecular weight amphoteric surfactant-functionalized nanoparticles comprise surfactant head groups adsorbed on nanoparticle surfaces, leaving intermediate molecular weight tails having backbones 15-30 atoms in length extended out and forming a boundary-like layer around the nanoparticle surfaces, wherein said nanoparticles are an inorganic phase selected from the group consisting of boric acid, metal sulfides comprising Zn, W and/or Mo and alkali silicates comprising Na and/or K.
A method of wireless communications, comprising: receiving , by a wireless node, over a wireless local area network, WLAN, or bluetooth connection assistance information from a user equipment, UE, regarding a plurality of neighbouring cells for use in performing a cell search, wherein the assistance information is received via broadcast transmission from the UE to a group of wireless nodes; and performing , by the wireless node, the cell search using the assistance information. receiving , by a wireless node, over a wireless local area network, WLAN, or bluetooth connection assistance information from a user equipment, UE, regarding a plurality of neighbouring cells for use in performing a cell search, wherein the assistance information is received via broadcast transmission from the UE to a group of wireless nodes; and performing , by the wireless node, the cell search using the assistance information.
A power conversion system comprising: a plurality of power converters ; a phase shifting transformer comprising 3-phase primary windings , a core , and a plurality of m secondary winding groups (113a,..., 113m), wherein each of the secondary winding groups (113a,...,113m) comprises a plurality of n secondary windings in electromagnetic communication with a corresponding primary winding and feeding the plurality of power converters, and wherein each of the plurality of n secondary windings are organized into one of two virtual secondary winding groups , and wherein a phase angle set of the secondary windings in each of the two virtual secondary winding groups is selected that shifts the secondary winding phases from each adjacent secondary winding phase by a secondary winding phase shift δ , where δ = 60°/(0.5 m x n ), to form a 3 m x n pulse harmonics cancellation pattern within each virtual secondary winding group, and wherein the two virtual secondary winding groups have the same phase angle sets. a plurality of power converters ; a phase shifting transformer comprising 3-phase primary windings , a core , and a plurality of m secondary winding groups (113a,..., 113m), wherein each of the secondary winding groups (113a,...,113m) comprises a plurality of n secondary windings in electromagnetic communication with a corresponding primary winding and feeding the plurality of power converters, and wherein each of the plurality of n secondary windings are organized into one of two virtual secondary winding groups , and wherein a phase angle set of the secondary windings in each of the two virtual secondary winding groups is selected that shifts the secondary winding phases from each adjacent secondary winding phase by a secondary winding phase shift δ , where δ = 60°/(0.5 m x n ), to form a 3 m x n pulse harmonics cancellation pattern within each virtual secondary winding group, and wherein the two virtual secondary winding groups have the same phase angle sets.
Process for treatment of concentrated solutions originating from drained waste waters from communal and industrial waste, comprising the steps of adding calcium oxide and reused solidificate to the concentrated solution thereby creating a solidificate; reintroducing into the process a portion of the created solidificate; and taking the remaining portion of the created solidificate by an elevator (L) to a device (N) for drying and cooling and for evaporation of water contained in the remaining portion while drying same , creating thereby a neutral and stable solidificate as the final product.
A wheel loader front unit comprising - a frame , - the wheel loader front unit further comprising two hub supporting elements , each hub supporting element being arranged on opposite sides outside of the frame for supporting a respective hub unit , - a lift arm for supporting an implement of the wheel loader, the lift arm being arranged to be pivoted around a pivot connection to the frame by means of a main hydraulic cylinder , and - a tilting hydraulic cylinder arranged to actuate a tilting movement of the implement in relation to the lift arm , - characterized in that the wheel loader front unit further comprises a slave hydraulic cylinder hydraulically connected to the tilting hydraulic cylinder for controlling the tilting movement of the implement when the lift arm is pivoted by means of the main hydraulic cylinder , - wherein the slave hydraulic cylinder extends between the lift arm and one of the hub supporting elements . - a frame , - the wheel loader front unit further comprising two hub supporting elements , each hub supporting element being arranged on opposite sides outside of the frame for supporting a respective hub unit , - a lift arm for supporting an implement of the wheel loader, the lift arm being arranged to be pivoted around a pivot connection to the frame by means of a main hydraulic cylinder , and - a tilting hydraulic cylinder arranged to actuate a tilting movement of the implement in relation to the lift arm , - characterized in that the wheel loader front unit further comprises a slave hydraulic cylinder hydraulically connected to the tilting hydraulic cylinder for controlling the tilting movement of the implement when the lift arm is pivoted by means of the main hydraulic cylinder , - wherein the slave hydraulic cylinder extends between the lift arm and one of the hub supporting elements .