mhurhangee/patent-ind-claim-en huggingface dataset:
A method for transmitting a code block stream, comprising: determining, by a transmitting device, a target code block in a code block stream that is in a first rate mode and comprises a plurality of code blocks, wherein the target code block comprises a code block of a start type in the first rate mode; modifying, by the transmitting device, information carried in a code block type field of the target code block to target information, wherein the target information comprises information carried in a code block type field of a code block of a start type in a second rate mode; or the target information comprises information carried in a code block type field of a code block of a terminate type in a second rate mode; and transmitting, by the transmitting device, a code block stream in the second rate mode to a transport network, wherein the code block stream in the second rate mode comprises a modified target code block. determining, by a transmitting device, a target code block in a code block stream that is in a first rate mode and comprises a plurality of code blocks, wherein the target code block comprises a code block of a start type in the first rate mode; modifying, by the transmitting device, information carried in a code block type field of the target code block to target information, wherein the target information comprises information carried in a code block type field of a code block of a start type in a second rate mode; or the target information comprises information carried in a code block type field of a code block of a terminate type in a second rate mode; and transmitting, by the transmitting device, a code block stream in the second rate mode to a transport network, wherein the code block stream in the second rate mode comprises a modified target code block.
A model-based prediction method, wherein the method is performed by a machine learning model system, the system including a machine learning model and an embedding model for converting an input tensor of the machine learning model, the embedding model being deployed separately from the machine learning model, the embedding model being deployed in an embedding running environment , and the machine learning model being deployed in a model running environment , and wherein the method comprises: receiving , by the model running environment, an input tensor of the machine learning model; sending , by the model running environment , a table query request to the embedding running environment , the table query request including the input tensor, to request low-dimensional conversion of the input tensor; receiving, by the model running environment , a table query result returned by the embedding running environment , the table query result being obtained by the embedding running environment by performing embedding query and processing based on the input tensor; and inputting , by the model running environment , the table query result into the machine learning model, and running the machine learning model to complete model-based prediction. receiving , by the model running environment, an input tensor of the machine learning model; sending , by the model running environment , a table query request to the embedding running environment , the table query request including the input tensor, to request low-dimensional conversion of the input tensor; receiving, by the model running environment , a table query result returned by the embedding running environment , the table query result being obtained by the embedding running environment by performing embedding query and processing based on the input tensor; and inputting , by the model running environment , the table query result into the machine learning model, and running the machine learning model to complete model-based prediction.
A reflector comprising a molded product obtained by molding a polyphenylene sulfide resin composition, and a metal layer formed thereon, the polyphenylene sulfide resin comprising: 1 to 30 parts by weight of a mica (b) having an aspect ratio of not less than 80, relative to 100 parts by weight of a polyphenylene sulfide resin (a), wherein the polyphenylene sulfide resin composition has a specific gravity of not greater than 1.50. 1 to 30 parts by weight of a mica (b) having an aspect ratio of not less than 80, relative to 100 parts by weight of a polyphenylene sulfide resin (a), wherein the polyphenylene sulfide resin composition has a specific gravity of not greater than 1.50.
A streetlight comprising at least one lighting unit which has a housing equipped with a light source composed of at least one LED module which comprises the LEDs and the controlling and supplying means mounted on a printed circuit board , further comprising a bottom cover which is at least partially translucent, a top cover , and a fixture , and wherein the lighting unit has at least one heat sink module fixed with thermal connection to the housing , wherein the at least one heat sink module is placed in a void pocket opened to the outside and bounded by front wall and lateral walls of the housing , and the top cover , characterized in that the fixture has an actuator, to adjust the longitudinal tilt angle (α) of the lighting unit , and an actuator, to adjust the transversal tilt angle (β) of the lighting unit , and in that the lighting unit is powered by a photovoltaic device , which is a photovoltaic panel attached directly to the lighting unit , and in that the number of additional heat sink modules installed in the void pocket is an integer proportional to the heating power produced by the photovoltaic panel, and in that two or more lighting units are arranged side by side or they are set backs to each other, wherein the fixture is common for at least two lighting units , and the fixture is fixed to the lamppost or to the wall mount bracket .
A method of analyzing a liquid sample containing solid matter, the method comprising - fractionating the sample according to particle sizes and/or masses of the solid matter, so as to produce sample fractions, by - conducting the sample to a disintegration channel (23, 31, 71A-F) having depressions (72A-F) to retain the sample in said disintegration channel (23, 31, 71A-F), and a through-flow zone, - applying a liquid flow having a non-constant temporal velocity profile through the disintegration channel (23, 31, 71A-F), in order to gradually release solid particles of the sample with the liquid flow from said depressions (72A-F) to the through-flow zone in the disintegration channel (23, 31, 71A-F), wherein the liquid flow is applied at a velocity producing hydrodynamic shear on the sample when interacting with said depressions (72A-F); - measuring at least one physical or chemical property of at least one of said sample fractions. - fractionating the sample according to particle sizes and/or masses of the solid matter, so as to produce sample fractions, by - conducting the sample to a disintegration channel (23, 31, 71A-F) having depressions (72A-F) to retain the sample in said disintegration channel (23, 31, 71A-F), and a through-flow zone, - applying a liquid flow having a non-constant temporal velocity profile through the disintegration channel (23, 31, 71A-F), in order to gradually release solid particles of the sample with the liquid flow from said depressions (72A-F) to the through-flow zone in the disintegration channel (23, 31, 71A-F), wherein the liquid flow is applied at a velocity producing hydrodynamic shear on the sample when interacting with said depressions (72A-F); - measuring at least one physical or chemical property of at least one of said sample fractions.
A geared turbofan aircraft engine assembly, comprising: a nacelle ; an engine disposed within an annular cavity of the nacelle and supported by a pylon ; a precooler configured to receive and condition hot bleed air from the engine and ambient air entering the nacelle from an exterior of the aircraft; wherein the precooler comprises a forward facing scoop disposed directly downstream from the fan of the turbine engine and configured to receive the ambient air , and wherein the precooler comprises a heat exchanger ; and characterized in that the precooler further comprises an interference arrangement configured to physically obstruct passage of a foreign object travelling in the ambient air within the precooler , wherein the interference arrangement comprises a plurality of substantially linear rods extending in a direction generally perpendicular to the airflow. a nacelle ; an engine disposed within an annular cavity of the nacelle and supported by a pylon ; a precooler configured to receive and condition hot bleed air from the engine and ambient air entering the nacelle from an exterior of the aircraft; wherein the precooler comprises a forward facing scoop disposed directly downstream from the fan of the turbine engine and configured to receive the ambient air , and wherein the precooler comprises a heat exchanger ; and characterized in that the precooler further comprises an interference arrangement configured to physically obstruct passage of a foreign object travelling in the ambient air within the precooler , wherein the interference arrangement comprises a plurality of substantially linear rods extending in a direction generally perpendicular to the airflow.
Electronically commutated electric motor having a stator and a rotor and including a control unit which is connected to the stator , which is designed to generate control signals for supplying stator coils of the stator with current for generating a rotating magnetic field, and the electric motor is designed to at least partially compensate for a torque ripple of a torque generated by the rotor, wherein the electric motor includes a rotor position sensor and a current sensor , wherein the current sensor is designed to detect currents flowing in the stator coils and to generate a current signal representing the currents, wherein the control unit includes a processing unit which is designed to ascertain harmonics of the electromotive force and to generate a control signal which compensates for the effect of the harmonics and to overlap the compensating control signal with the control signal, as a function of the current signal and a voltage supplied to the stator coils and a rotor position signal generated by the rotor position sensor , so that it is possible to compensate at least partially or completely for the effect of the harmonics and thus the torque ripple, characterized in that the processing unit includes an RLS estimator which is designed to ascertain the harmonics, in particular the phase and amplitude of the harmonics, by means of a least-squares method, wherein the processing unit is designed to control the stator by means of a flatness-based control as a function of the compensating control signal .
A device for elevating the Schneiderian membrane of the maxillary sinus to treat the majority of human patients in need for enlargement of the height of a maxillary alveolar ridge bone comprising: a cannula for insertion through an opening in a human maxillary alveolar ridge bone towards said Schneiderian membrane and a balloon , a distal part of said cannula being sized to be inside the maxillary alveolar ridge of said majority of human patients in need for enlargement of the height of said maxillary alveolar ridge bone , said cannula has an external thread to be engaged with the bony walls of said maxillary alveolar ridge bone below said Schneiderian membrane , at least part of said balloon being inside said cannula , a proximal part of said cannula being connected to a first filling tube so when advancing a first liquid though said first filling tube said first liquid pass through said cannula outside said device inside said maxillary sinus to directly touch and elevate said Schneiderian membrane , said proximal part of said cannula being connected to a second filling tube so when advancing a second liquid though said second filling tube , said second liquid being inserted inside said balloon so as to expand at least part of said balloon distally to a distal end of said cannula inside said maxillary sinus to elevate said Schneiderian membrane while said balloon being in direct contact with said first liquid inside said maxillary sinus .
Process for oxidation of alkanes to ketones or aldehydes using oxygen as oxidising agent, characterised in that at least two catalysts according to general formula I (catalyst 1), [M 2 (R-HPTB)X 3 ] (I), and general formula II (catalyst 2) [M' 4 OX 6 L] (II), both catalysts being chosen independently from each other, are applied sequentially or at the same time in order to catalyse the oxidation-reaction, whereat R-HPTB denotes multidentate N,N,N',N'-tetrakis(2-R-benzimidazolylmethyl)2-hydroxy-1,3-diaminopropane ligands and metal atoms M are respectively independently from each other chosen from the list comprising Fe, Co, Ni, and metal atoms M' are atoms of a metal chosen from the list comprising Cu, Ag, Au, and substituents R are independently from each other chosen from the list comprising H, methyl, ethyl, propyl, benzyl, 2-methyl-pyridyl, and X are halogen atoms, independently from each other chosen from the list comprising CI, Br, and ligands L are nitrogen-containing ligands, independently from each other chosen from the list comprising aliphatic amines, aromatic amines, methylaminobenzene as well as substituted methylaminobenzenes, whereat the process is performed in the presence or absence of a solvent or a mixture of solvents, depending on the reactivity of the educts as well as the reactivitiy of catalyst 1 and catalyst 2.
A method for determining an azimuth angle of a wind power installation comprising a wind measuring device, with the steps of - attaching at least two GNSS receivers on a nacelle of the wind power installation, - comparing the reception signals of the GNSS receivers , - deriving the azimuth angle from the comparison result; - characterized in that the at least two GNSS receivers are attached to a wind measuring supporting frame or the wind measuring device , by means of a holder, and - the holder is configured to releasably accommodate an orienting apparatus for the orientation of the wind measuring device . - attaching at least two GNSS receivers on a nacelle of the wind power installation, - comparing the reception signals of the GNSS receivers , - deriving the azimuth angle from the comparison result; - characterized in that the at least two GNSS receivers are attached to a wind measuring supporting frame or the wind measuring device , by means of a holder, and - the holder is configured to releasably accommodate an orienting apparatus for the orientation of the wind measuring device .
An interchangeable lens comprising: a lens barrel ; a movable unit configured to be movable along an optical axis with respect to the lens barrel ; a plurality of individual-eye lenses configured to be integrally movable with the movable unit and arranged such that emission positions of imaging lights emitted through the respective individual-eye lenses do not overlap with one another; and characterized in that it further comprises one or a plurality of light sources configured to be movable along the optical axis integrally with the movable unit and the plurality of individual-eye lenses , and arranged such that an emission position of an irradiation light emitted to an image sensor provided in a camera body does not overlap with the emission position of the imaging light of each of the plurality of individual-eye lenses . a lens barrel ; a movable unit configured to be movable along an optical axis with respect to the lens barrel ; a plurality of individual-eye lenses configured to be integrally movable with the movable unit and arranged such that emission positions of imaging lights emitted through the respective individual-eye lenses do not overlap with one another; and characterized in that it further comprises one or a plurality of light sources configured to be movable along the optical axis integrally with the movable unit and the plurality of individual-eye lenses , and arranged such that an emission position of an irradiation light emitted to an image sensor provided in a camera body does not overlap with the emission position of the imaging light of each of the plurality of individual-eye lenses .
A method for removing a ceramic coating from a substrate , comprising: contacting the ceramic coating with a composition comprising a fluoride source and nitric acid, wherein the ceramic coating comprises aluminum silicide, sodium aluminum silicate, potassium aluminum silicate, sodium potassium aluminum silicate, or combinations thereof.
Method for separating carbon dioxide from a gas stream, in particular from a flue gas stream, - wherein a gas stream in an absorber of a separation device is brought into contact with a washing medium and the carbon dioxide contained in the gas stream is separated, - wherein an amino acid salt solution is used as a washing medium, - wherein the charged washing medium, in order to release the carbon dioxide, is supplied to a desorber of the separation device , - wherein a vapor stream is removed from the desorber and supplied to a cooling unit to form a condensate, - wherein degradation products, in particular nitrosamines, contained in at least a partial stream of the condensate are photolytically decomposed to decomposition products, - wherein at least the decomposition products, in particular nitrites and amines, are removed, and - wherein at least a partial stream of the condensate is returned to the desorber , characterized in that a first partial stream of the washing medium flowing out from the absorber is supplied to a first desorber stage of the desorber without preheating and a second partial stream of the washing medium flowing out from the absorber is supplied to a second desorber stage of the desorber in a preheated state, wherein the first partial stream is temporarily throttled or completely shut off. - wherein a gas stream in an absorber of a separation device is brought into contact with a washing medium and the carbon dioxide contained in the gas stream is separated, - wherein an amino acid salt solution is used as a washing medium, - wherein the charged washing medium, in order to release the carbon dioxide, is supplied to a desorber of the separation device , - wherein a vapor stream is removed from the desorber and supplied to a cooling unit to form a condensate, - wherein degradation products, in particular nitrosamines, contained in at least a partial stream of the condensate are photolytically decomposed to decomposition products, - wherein at least the decomposition products, in particular nitrites and amines, are removed, and - wherein at least a partial stream of the condensate is returned to the desorber ,
A tibial prosthesis for a knee arthroplasty comprising: a tibial bearing component having medial and lateral proximal articular surfaces and an opposing distal surface, wherein the tibial bearing component defines at least one recess therein with the at least one recess having an opening at a periphery of the tibial bearing component ; a tibial baseplate coupled to the tibial bearing component on a proximal surface thereof and having a distal surface configured to be disposed on a resected proximal surface of a tibia; an insert configured to be disposed within the at least one recess and engage the tibial baseplate and the tibial bearing component ; and a fastener , wherein the insert comprises: a body having an aperture defined thereby characterised by a first foot connected to the body and extending distal therefrom, the first foot having a first side surface engaging the tibial baseplate ; and a second foot connected to the body and extending distal therefrom, the second foot spaced from the first foot and having a second side surface engaging the tibial baseplate ; wherein the fastener has a head received by the aperture to retain the insert to the tibial baseplate . a tibial bearing component having medial and lateral proximal articular surfaces and an opposing distal surface, wherein the tibial bearing component defines at least one recess therein with the at least one recess having an opening at a periphery of the tibial bearing component ; a tibial baseplate coupled to the tibial bearing component on a proximal surface thereof and having a distal surface configured to be disposed on a resected proximal surface of a tibia; an insert configured to be disposed within the at least one recess and engage the tibial baseplate and the tibial bearing component ; and a fastener , wherein the insert comprises: a body having an aperture defined thereby characterised by a first foot connected to the body and extending distal therefrom, the first foot having a first side surface engaging the tibial baseplate ; and a second foot connected to the body and extending distal therefrom, the second foot spaced from the first foot and having a second side surface engaging the tibial baseplate ; wherein the fastener has a head received by the aperture to retain the insert to the tibial baseplate . a body having an aperture defined thereby characterised by a first foot connected to the body and extending distal therefrom, the first foot having a first side surface engaging the tibial baseplate ; and a second foot connected to the body and extending distal therefrom, the second foot spaced from the first foot and having a second side surface engaging the tibial baseplate ; wherein the fastener has a head received by the aperture to retain the insert to the tibial baseplate .
Wear-resistant element for attaching to a comminution device or to a silo, characterised in that the wear-resistant element is formed fully from a ceramic which comprises yttrium-stabilised, tetragonal polycrystalline zirconia (TPZ), wherein the TPZ has a volume fraction of at least 60%, preferably at least 80%, and in particular 95% to 100% in the ceramic.
A self-adhesive prepreg comprising: a base prepreg including reinforcing fibers, and an epoxy resin composition (I) that is partially or entirely impregnated into a reinforcing fiber layer that is formed of the reinforcing fibers; and an adhesive layer including a nonwoven fabric that is laminated on at least one surface of the base prepreg so as to be integrated with the base prepreg , and a layer with an epoxy resin composition (II) that is laminated on a surface of the nonwoven fabric so as to be integrated with the nonwoven fabric , wherein the epoxy resin composition (I) and the epoxy resin composition (II) are compatible, the content of the epoxy resin composition (II) is 150 to 250 g/m 2 , the nonwoven fabric is formed of thermoplastic resin, having a melting point of such a degree that the resin is not melted in the thermal molding, the mass per unit area of the nonwoven fabric is 10 to 50 g/m 2 , and the nonwoven fabric has a 10%-extension load of 1 to 35 N which is measured by the method according to the description. a base prepreg including reinforcing fibers, and an epoxy resin composition (I) that is partially or entirely impregnated into a reinforcing fiber layer that is formed of the reinforcing fibers; and an adhesive layer including a nonwoven fabric that is laminated on at least one surface of the base prepreg so as to be integrated with the base prepreg , and a layer with an epoxy resin composition (II) that is laminated on a surface of the nonwoven fabric so as to be integrated with the nonwoven fabric , wherein the epoxy resin composition (I) and the epoxy resin composition (II) are compatible, the content of the epoxy resin composition (II) is 150 to 250 g/m 2 , the nonwoven fabric is formed of thermoplastic resin, having a melting point of such a degree that the resin is not melted in the thermal molding, the mass per unit area of the nonwoven fabric is 10 to 50 g/m 2 , and the nonwoven fabric has a 10%-extension load of 1 to 35 N which is measured by the method according to the description.