mhurhangee/patent-ind-claim-en huggingface dataset:
An arrangement for wind turbine blade and tower maintenance, characterised in that it comprises: a central rod , three balancing rods , a central hub , at least one tool arm adapted to releasably fix one or more tools aimed for surface maintenance; and a tool arm motor adapted to adjust the angle of the tool arm in respect of the central rod , wherein: - the central rod and three balancing rods are connected to the central hub ; - the tool arm is rotatably fixed to the central rod and/or to the central hub via tool arm motor drive; - the three balancing rods , as well as central rod or the central hub are adapted to be connected to carrying and balancing ropes or cables. - the central rod and three balancing rods are connected to the central hub ; - the tool arm is rotatably fixed to the central rod and/or to the central hub via tool arm motor drive; - the three balancing rods , as well as central rod or the central hub are adapted to be connected to carrying and balancing ropes or cables.
A paraboloidal percussion instrument having at least one face and multiple resonating bodies, characterized in that the resonating bodies on their inner side describe the spatial form of elliptical paraboloids which spatially coincide in their respective focal points (F).
A method performed by a wireless device for bitrate recommendation on an uplink or downlink communication channel between the wireless device and a network node in a wireless communications system , comprising: requesting , to the network node, that the network node recommend a data rate on the uplink or downlink communication channel for the wireless device by generating a first information element that indicates the request, and transmitting to the network node the first information element that indicates the request via a protocol layer on the uplink communication channel, wherein the first information element includes a first index that indicates a desired data rate, wherein the first index is an index to a table of data rates on the uplink or downlink communication channel and an indication of whether the recommended data rate applies to the uplink or downlink communication channel. requesting , to the network node, that the network node recommend a data rate on the uplink or downlink communication channel for the wireless device by generating a first information element that indicates the request, and transmitting to the network node the first information element that indicates the request via a protocol layer on the uplink communication channel, wherein the first information element includes a first index that indicates a desired data rate, wherein the first index is an index to a table of data rates on the uplink or downlink communication channel and an indication of whether the recommended data rate applies to the uplink or downlink communication channel.
A co-crystal of a sodium benzoate compound and a co-former, wherein the co-former is a compound of Formula (I): in which L is alkyl, carbocyclyl, C=C, C=C-C=C, C=C, or absent; A is alkyl, carbocyclyl, aryl, or heteroaryl; and X=O or N-B, B being H, alkyl, carbocyclyl, aryl, or heteroaryl; provided that when L is absent, A is pyridyl and X is O. L is alkyl, carbocyclyl, C=C, C=C-C=C, C=C, or absent; A is alkyl, carbocyclyl, aryl, or heteroaryl; and X=O or N-B, B being H, alkyl, carbocyclyl, aryl, or heteroaryl; provided that when L is absent, A is pyridyl and X is O.
A recombinant yeast cell, functionally expressing one or more heterologous nucleic acid sequences encoding ribulose-1,5-biphosphate carboxylase oxygenase (Rubisco) and phosphoribulokinase (PRK), said yeast cell comprising one or more chaperones selected from the group of GroEL, GroES, functional homologues of GroEL and functional homologues of GroES , wherein said functional homologues of a chaperone selected from the group of GroEL and GroES have more than 50%, sequence identity with GroEL or GroES; and wherein the ribulose-1,5-biphosphate carboxylase oxygenase (Rubisco) is a Rubisco comprising the protein sequence of SEQUENCE ID NO: 2 or a functional homologue thereof comprising a sequence having at least 80% sequence identity with SEQUENCE ID NO:2.
A three-dimensional (3-D) printer comprising: an intermediate transfer surface ; a build material development station positioned to electrostatically transfer build material to said intermediate transfer surface ; a support material development station positioned to electrostatically transfer support material to said intermediate transfer surface , said build material having a higher melting temperature than said support material , said build material development station and said support material development station transfer layers of said build material and said support material to said intermediate transfer surface ; a transfuse station adjacent said intermediate transfer surface , said transfuse station is positioned to receive said layers as said intermediate transfer surface moves past said transfuse station ; and a platen moving relative to said intermediate transfer surface , said intermediate transfer surface transfers a layer of said build material and said support material to said platen each time said platen contacts one of said layers on said intermediate transfer surface at said transfuse station to successively form a freestanding stack of said layers on said platen , wherein the intermediate transfer surface is an intermediate transfer belt (ITB) and the transfuse station includes a roller on a first side of the ITB supporting the ITB , and wherein the platen moves synchronously with the ITB at the same speed and in the same direction as the ITB . an intermediate transfer surface ; a build material development station positioned to electrostatically transfer build material to said intermediate transfer surface ; a support material development station positioned to electrostatically transfer support material to said intermediate transfer surface , said build material having a higher melting temperature than said support material , said build material development station and said support material development station transfer layers of said build material and said support material to said intermediate transfer surface ; a transfuse station adjacent said intermediate transfer surface , said transfuse station is positioned to receive said layers as said intermediate transfer surface moves past said transfuse station ; and a platen moving relative to said intermediate transfer surface , said intermediate transfer surface transfers a layer of said build material and said support material to said platen each time said platen contacts one of said layers on said intermediate transfer surface at said transfuse station to successively form a freestanding stack of said layers on said platen , wherein the intermediate transfer surface is an intermediate transfer belt (ITB) and the transfuse station includes a roller on a first side of the ITB supporting the ITB , and wherein the platen moves synchronously with the ITB at the same speed and in the same direction as the ITB .
A vehicle structural member comprising: an elongate hollow member having an integrated structure; and a supporting member joined to the elongate hollow member , wherein the elongate hollow member includes: a first portion that includes a first pipe , a second pipe disposed outside the first pipe and extending along the first pipe , and a connection portion extending along the first pipe and the second pipe , formed integrally with the first pipe and the second pipe , and connecting the first pipe and the second pipe , wherein the first pipe and the second pipe are spaced apart from each other in a direction crossing longitudinal directions of the first pipe and the second pipe ; and a second portion that includes the first pipe continuing from the first portion , and does not include the second pipe , characterized in that the second portion further includes a segment extending along an entirety of a length of the first pipe , wherein the segment is produced by removing a part of the connection portion . an elongate hollow member having an integrated structure; and a supporting member joined to the elongate hollow member , wherein the elongate hollow member includes: a first portion that includes a first pipe , a second pipe disposed outside the first pipe and extending along the first pipe , and a connection portion extending along the first pipe and the second pipe , formed integrally with the first pipe and the second pipe , and connecting the first pipe and the second pipe , wherein the first pipe and the second pipe are spaced apart from each other in a direction crossing longitudinal directions of the first pipe and the second pipe ; and a second portion that includes the first pipe continuing from the first portion , and does not include the second pipe , characterized in that the second portion further includes a segment extending along an entirety of a length of the first pipe , wherein the segment is produced by removing a part of the connection portion . a first portion that includes a first pipe , a second pipe disposed outside the first pipe and extending along the first pipe , and a connection portion extending along the first pipe and the second pipe , formed integrally with the first pipe and the second pipe , and connecting the first pipe and the second pipe , wherein the first pipe and the second pipe are spaced apart from each other in a direction crossing longitudinal directions of the first pipe and the second pipe ; and a second portion that includes the first pipe continuing from the first portion , and does not include the second pipe , characterized in that the second portion further includes a segment extending along an entirety of a length of the first pipe , wherein the segment is produced by removing a part of the connection portion .
An airfoil comprising: an airfoil body including a leading edge (LE) and a trailing edge (TE) and a first side wall and a second side wall that is spaced apart from the first side wall , the first side wall and the second side wall joining the leading edge (LE) and the trailing edge (TE) and at least partially defining a cavity in the airfoil body ; and a damper member enclosed in the cavity , the damper member being loose within the cavity , wherein the damper member is longitudinally elongated with respect to a longitudinal axis (L) defined by the airfoil body , the damper member extends between a first terminal end and a second terminal end , and the first terminal end and the second terminal end are free of any connection to the airfoil body and the damper member includes longitudinally alternating bearing sections and non-bearing sections with respect to a longitudinal axis (L) defined by the airfoil body . an airfoil body including a leading edge (LE) and a trailing edge (TE) and a first side wall and a second side wall that is spaced apart from the first side wall , the first side wall and the second side wall joining the leading edge (LE) and the trailing edge (TE) and at least partially defining a cavity in the airfoil body ; and a damper member enclosed in the cavity , the damper member being loose within the cavity , wherein the damper member is longitudinally elongated with respect to a longitudinal axis (L) defined by the airfoil body , the damper member extends between a first terminal end and a second terminal end , and the first terminal end and the second terminal end are free of any connection to the airfoil body and the damper member includes longitudinally alternating bearing sections and non-bearing sections with respect to a longitudinal axis (L) defined by the airfoil body .
A method of decoding a bitstream of encoded video by reconstructing significant-coefficient flags for a transform unit, the transform unit comprising a sequence of block-based coefficient groups, each coefficient group corresponding to a significant-coefficient-group flag and a set of significant-coefficient flags encoded in the bitstream, the method comprising: determining a coefficient group for which the corresponding significant-coefficient-group flag is set; determining a context for each significant-coefficient flag in the set of significant-coefficient flags corresponding to said coefficient group, wherein determining the context for at least one of the significant-coefficient flags is at least partly based on a significant-coefficient-group flag of a coefficient group neighboring that coefficient group; and decoding each significant-coefficient flag of the set of significant-coefficient flags corresponding to that coefficient group, using the respective determined context, wherein each significant-coefficient-group flag indicates whether its associated coefficient group is presumed to contain at least one non-zero significant-coefficient flag; and wherein decoding comprises context-adaptive entropy decoding. determining a coefficient group for which the corresponding significant-coefficient-group flag is set; determining a context for each significant-coefficient flag in the set of significant-coefficient flags corresponding to said coefficient group, wherein determining the context for at least one of the significant-coefficient flags is at least partly based on a significant-coefficient-group flag of a coefficient group neighboring that coefficient group; and decoding each significant-coefficient flag of the set of significant-coefficient flags corresponding to that coefficient group, using the respective determined context,
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.
A composition in powder form comprising methylcellulose, wherein said composition has a powder x-ray diffraction spectrum at source x-ray wavelength of 1.789 Å showing a peak at a 2θ value between 14.5 and 16.5 degrees having intensity level Ipeak and a trough at a 2θ value between 16.51 and 20 degrees having intensity level Itrough, wherein a peak index PIndex is defined as PIndex = Ipeak − Itrough / Itrough and wherein said PIndex is 0.1 or greater. wherein said composition has a powder x-ray diffraction spectrum at source x-ray wavelength of 1.789 Å showing a peak at a 2θ value between 14.5 and 16.5 degrees having intensity level Ipeak and a trough at a 2θ value between 16.51 and 20 degrees having intensity level Itrough, wherein a peak index PIndex is defined as PIndex = Ipeak − Itrough / Itrough and wherein said PIndex is 0.1 or greater.
Squirrel-cage rotor for an asynchronous machine , the squirrel-cage rotor comprising: - a first shaft journal , - a second shaft journal , - a laminated rotor core and - a filler body , wherein - the filler body is cast onto the laminated rotor core , so that the laminated rotor core is mounted on the filler body in a rotationally fixed manner, and - the filler body is connected to the shaft journals in a rotationally fixed manner, so that a torque is transmitted from the shaft journals to the laminated rotor core , characterized in that - the first shaft journal has a first axial bore , - the second shaft journal has a second axial bore , and - the filler body has a third axial bore , wherein the third axial bore connects the first axial bore to the second axial bore , so that the first bore , the second bore and the third bore together form a cooling duct which runs through the first shaft journal , the filler body and the second shaft journal . - a first shaft journal , - a second shaft journal , - a laminated rotor core and - a filler body , wherein - the filler body is cast onto the laminated rotor core , so that the laminated rotor core is mounted on the filler body in a rotationally fixed manner, and - the filler body is connected to the shaft journals in a rotationally fixed manner, so that a torque is transmitted from the shaft journals to the laminated rotor core , characterized in that - the first shaft journal has a first axial bore , - the second shaft journal has a second axial bore , and - the filler body has a third axial bore , wherein the third axial bore connects the first axial bore to the second axial bore , so that the first bore , the second bore and the third bore together form a cooling duct which runs through the first shaft journal , the filler body and the second shaft journal .
A lubricant composition comprising, relative to the total weight of the composition: - at least 50 weight % of at least one base oil; and - 0.1 to 30 % by weight of an imidazoline compound of formula (A): defined such that: - R 1 represents a linear or branched alkyl group comprising 1 to 16 carbon atoms, optionally substituted at the end of the chain by a group selected from among NH 2 or SH, or R 1 represents a linear or branched alkenyl group comprising 2 to 16 carbon atoms, optionally substituted at the end of the chain by a group selected from among NH 2 or SH; and - R 2 represents a linear or branched alkyl group comprising 1 to 36 carbon atoms, or R 2 represents a linear or branched alkenyl group comprising 2 to 36 carbon atoms. - at least 50 weight % of at least one base oil; and - 0.1 to 30 % by weight of an imidazoline compound of formula (A): - R 1 represents a linear or branched alkyl group comprising 1 to 16 carbon atoms, optionally substituted at the end of the chain by a group selected from among NH 2 or SH, or R 1 represents a linear or branched alkenyl group comprising 2 to 16 carbon atoms, optionally substituted at the end of the chain by a group selected from among NH 2 or SH; and - R 2 represents a linear or branched alkyl group comprising 1 to 36 carbon atoms, or R 2 represents a linear or branched alkenyl group comprising 2 to 36 carbon atoms.
A diffuser assembly, comprising: (a) a diffuser adapted to reside within a conduit , having a upper mounting member mountable within the conduit and having a fluid inlet port , and a lower section having a diffuser screen ; (b) a plurality of cutters below the fluid inlet port , wherein the cutters are radially oriented relative to a central axis of the diffuser ; and (c) a centralizing member adjacent to the diffuser screen and having a diameter greater than the diffuser screen ; and wherein the diffuser screen is a cylinder having a plurality of diffuser slots formed therein and a bottom cap having a fluid port ; and wherein each of the plurality of cutters extends substantially parallel to the central axis and includes a diffusing edge . (a) a diffuser adapted to reside within a conduit , having a upper mounting member mountable within the conduit and having a fluid inlet port , and a lower section having a diffuser screen ; (b) a plurality of cutters below the fluid inlet port , wherein the cutters are radially oriented relative to a central axis of the diffuser ; and (c) a centralizing member adjacent to the diffuser screen and having a diameter greater than the diffuser screen ; and wherein the diffuser screen is a cylinder having a plurality of diffuser slots formed therein and a bottom cap having a fluid port ; and wherein each of the plurality of cutters extends substantially parallel to the central axis and includes a diffusing edge .
A prefabricated steel part of a reinforced concrete-filled steel pipe sleeve joint, comprising: high-strength outer steel pipes, reinforcement restraining plates, high-tensile reinforcements , conversion partition sleeves and an ordinary outer steel pipe, wherein the high-strength outer steel pipes, the reinforcement restraining plates, the conversion partition sleeves and the ordinary outer steel pipe are respectively high-strength outer round steel pipes , round reinforcement restraining plates , round conversion partition sleeves and an ordinary outer round steel pipe , wherein two round conversion partition sleeves are provided that are respectively located at an upper end and a lower end of the ordinary outer round steel pipe ; one of the round conversion partition sleeves , which is located at the upper end of the ordinary outer round steel pipe , being connected with one of the high-strength outer round steel pipes ; the other round conversion partition sleeve , which is located at the lower end of the ordinary outer round steel pipe , being connected with the other high-strength outer round steel pipe ; the high-tensile reinforcements penetrate through the ordinary outer round steel pipe ; wherein upper ends and lower ends of the high-tensile reinforcements are respectively extended to interiors of the high-strength outer round steel pipes ; the high-tensile reinforcements being connected with the round conversion partition sleeves ; the upper ends and the lower ends of the high-tensile reinforcements being respectively connected with the round reinforcement restraining plates .