mhurhangee/patent-ind-claim-en huggingface dataset:
A method of defining a sensor model, comprising: determining a probability of obtaining a measurement from a plurality of potential causes in a field of view of a sensor; determining a probability of obtaining an image based on the determined probability of obtaining the measurement ; and planning an action for a robot, comprising the sensor, based on the probability of obtaining the image ; characterised in that the sensor is modeled based on a stochastic map, and the stochastic map comprises a mean occupancy level for each voxel in the stochastic map and a variance of the mean occupancy level for each voxel , wherein the step of determining a probability of obtaining a measurement is based on the stochastic map. determining a probability of obtaining a measurement from a plurality of potential causes in a field of view of a sensor; determining a probability of obtaining an image based on the determined probability of obtaining the measurement ; and planning an action for a robot, comprising the sensor, based on the probability of obtaining the image ; characterised in that the sensor is modeled based on a stochastic map, and the stochastic map comprises a mean occupancy level for each voxel in the stochastic map and a variance of the mean occupancy level for each voxel , wherein the step of determining a probability of obtaining a measurement is based on the stochastic map.
Filtration system, in particular for the cleaning of the intake air of a gas turbine, with a flow channel surrounded by walls with an inflow opening and an outflow opening , with a partition wall which is positioned between the inflow opening and the outflow opening , which is limited by the walls of the flow channel and which includes at least one holding beam , and with at least two filters for the cleaning of a fluid which flows through the flow channel , wherein at least one first filter which constitutes one single mounting unit is mounted to the at least one holding beam on the partition wall and is sealed to the at least one holding beam of the partition wall , characterised in that at least one second filter which again constitutes one single mounting unit is mounted to the at least one holding beam on the partition wall , wherein the at least one second filter is sealed to the at least one holding beam of the partition wall and is sealed directly to the at least one first filter . with a flow channel surrounded by walls with an inflow opening and an outflow opening , with a partition wall which is positioned between the inflow opening and the outflow opening , which is limited by the walls of the flow channel and which includes at least one holding beam , and with at least two filters for the cleaning of a fluid which flows through the flow channel , wherein at least one first filter which constitutes one single mounting unit is mounted to the at least one holding beam on the partition wall and is sealed to the at least one holding beam of the partition wall , characterised in that at least one second filter which again constitutes one single mounting unit is mounted to the at least one holding beam on the partition wall , wherein the at least one second filter is sealed to the at least one holding beam of the partition wall and is sealed directly to the at least one first filter .
Pressure control device for a vehicle , the vehicle having at least one engine for generating vehicle drive power, a compressed air supply and storage installation and a compressed air compressor coupled or couplable to the vehicle engine , and the pressure control device having at least one electronic control apparatus and at least one valve assembly for the controllable connection of a compression space of the compressed air compressor to the compressed air supply and storage installation , with the features: b) the pressure control device is designed, in a compressed air generation mode, for connecting the compression space to the compressed air supply and storage installation for the conveyance of compressed air from the compression space into the compressed air supply and storage installation , c) the pressure control device is designed, in a compressed air expansion mode, for connecting the compression space to the compressed air supply and storage installation for the conveyance of compressed air from the compressed air supply and storage installation into the compression space , c) the pressure control device is designed for changing over from the compressed air generation mode into the compressed air expansion mode, and vice versa, as a result of the electrical actuation of one or more electrically actuable valves of the valve assembly by means of the electronic control apparatus , characterized in that at least some of the electrically actuable valves are integrated in a cylinder , in particular into the cylinder head, and/or at least some of the electrically actuable valves are integrated into a crankcase of the compressed air compressor . b) the pressure control device is designed, in a compressed air generation mode, for connecting the compression space to the compressed air supply and storage installation for the conveyance of compressed air from the compression space into the compressed air supply and storage installation , c) the pressure control device is designed, in a compressed air expansion mode, for connecting the compression space to the compressed air supply and storage installation for the conveyance of compressed air from the compressed air supply and storage installation into the compression space , c) the pressure control device is designed for changing over from the compressed air generation mode into the compressed air expansion mode, and vice versa, as a result of the electrical actuation of one or more electrically actuable valves of the valve assembly by means of the electronic control apparatus , characterized in that at least some of the electrically actuable valves are integrated in a cylinder , in particular into the cylinder head, and/or at least some of the electrically actuable valves are integrated into a crankcase of the compressed air compressor .
A method of preparing a salt product comprising the steps of: (i) providing a mixture which comprises sodium chloride and organic material dissolved in a solvent, said organic material being a solid under ambient temperature conditions; wherein the mixture comprises 5% to 35% by weight of sodium chloride based on the weight of the solvent and further comprises 0.1% to 20% by weight of the organic material based on the weight of the solvent; and (ii) atomising said mixture to produce atomised droplets of the mixture and evaporating said solvent from the atomised droplets to produce a salt product which comprises particles containing: i) sodium chloride and ii) the organic material, said particles of said salt product having a structure comprised of individual crystallites of sodium chloride attached together in the particle, which particles of said salt product comprise hollow particles formed of an outer shell of said crystallites, wherein more than 95% of the particles have a size less than 50 μm; wherein: step (ii) is effected by spray drying at an elevated temperature in the range of 100°C to 210°C; the organic material comprises at least one polymeric material; and the particle size is determined by Laser Light Scattering. (i) providing a mixture which comprises sodium chloride and organic material dissolved in a solvent, said organic material being a solid under ambient temperature conditions; wherein the mixture comprises 5% to 35% by weight of sodium chloride based on the weight of the solvent and further comprises 0.1% to 20% by weight of the organic material based on the weight of the solvent; and (ii) atomising said mixture to produce atomised droplets of the mixture and evaporating said solvent from the atomised droplets to produce a salt product which comprises particles containing: i) sodium chloride and ii) the organic material, said particles of said salt product having a structure comprised of individual crystallites of sodium chloride attached together in the particle, which particles of said salt product comprise hollow particles formed of an outer shell of said crystallites, wherein more than 95% of the particles have a size less than 50 μm; wherein: step (ii) is effected by spray drying at an elevated temperature in the range of 100°C to 210°C; the organic material comprises at least one polymeric material; and the particle size is determined by Laser Light Scattering. step (ii) is effected by spray drying at an elevated temperature in the range of 100°C to 210°C; the organic material comprises at least one polymeric material; and the particle size is determined by Laser Light Scattering.
A blade outer air seal segment , comprising: a radially outward surface ; a radially inward surface oriented away from the radially outward surface ; a cooling channel located between the radially outward surface and the radially inward surface ; an inlet orifice fluidly coupled to the cooling channel ; and characterized by a stress-relief orifice between the inlet orifice and the cooling channel , wherein a diameter (D1) of the inlet orifice is less than a diameter (D2) of the stress-relief orifice . a radially outward surface ; a radially inward surface oriented away from the radially outward surface ; a cooling channel located between the radially outward surface and the radially inward surface ; an inlet orifice fluidly coupled to the cooling channel ; and characterized by a stress-relief orifice between the inlet orifice and the cooling channel , wherein a diameter (D1) of the inlet orifice is less than a diameter (D2) of the stress-relief orifice .
An inflator for a protection device in a vehicle, comprising a circumferential wall and a filter which extends at least partially along the wall , wherein the wall has at least one supporting portion which constitutes an axial support for the filter , characterized in that plural supporting portions are formed by embossed beads which are spaced apart in circumferential direction and do not extend inwardly over the entire thickness of the filter .
A method for training a machine learning system to process one or more radio signals, the method comprising: providing a first set of input data representing one or more radio signals to a first neural network that is configured to generate output data representing an estimation of one or more characteristics of a radio signal; obtaining first output data generated by the first neural network based on the first neural network processing the first set of input data; receiving , by a signal transformer, a second set of input data that includes (i) the first set of input data and (ii) the first output data generated by the first neural network; generating , by the signal transformer and based on the second set of input data, data representing a transformed radio signal by applying one or more transforms of a set of predetermined transforms to the first set of input data representing the one or more radio signals; providing the data representing the transformed radio signal to a second neural network that is configured to generate output data describing the one or more radio signals based on processing the data representing the transformed radio signal; obtaining second output data generated by the second neural network based on the second neural network processing the data representing the transformed radio signal; determining a target loss that is based on (i) the second output data generated by the second neural network and (ii) target information describing the one or more radio signals; and adjusting the respective parameters of the first neural network and the second neural network based on the target loss. providing a first set of input data representing one or more radio signals to a first neural network that is configured to generate output data representing an estimation of one or more characteristics of a radio signal; obtaining first output data generated by the first neural network based on the first neural network processing the first set of input data; receiving , by a signal transformer, a second set of input data that includes (i) the first set of input data and (ii) the first output data generated by the first neural network; generating , by the signal transformer and based on the second set of input data, data representing a transformed radio signal by applying one or more transforms of a set of predetermined transforms to the first set of input data representing the one or more radio signals; providing the data representing the transformed radio signal to a second neural network that is configured to generate output data describing the one or more radio signals based on processing the data representing the transformed radio signal; obtaining second output data generated by the second neural network based on the second neural network processing the data representing the transformed radio signal; determining a target loss that is based on (i) the second output data generated by the second neural network and (ii) target information describing the one or more radio signals; and adjusting the respective parameters of the first neural network and the second neural network based on the target loss.
Fluid compression device driven by an electric machine, said electric machine comprising a rotor and a stator, and said compression device comprising a compression shaft on which is mounted at least one compression wheel , said rotor being secured with said compression shaft , said rotor comprising a rotor shaft , a cylindrical magnet mounted on at least one part of said rotor shaft , a ferrule made of non-magnetic material for retaining said magnet on said rotor shaft , said rotor shaft comprising a bore for the insertion of one end of said compression shaft , said rotor comprising at least one non-magnetic stop on one side of said magnet , the non-magnetic stop being in the form of a ring inserted between a shoulder of the rotor shaft and the cylindrical magnet , characterized in that said rotor is secured with said compression shaft by means of a thread and in that said rotor comprises a handling end piece for moving said rotor .
An extensible Markup Language, XML, Document Management, XDM, Server, XDMS, in an XDM system for realizing an XML document management function, the XDMS comprising: means for receiving an XDM Configuration Access Protocol, XCAP, PUT request message for retrieving an XML document from an XML Document Management Client, XDMC, the XCAP PUT request message including an XCAP Uniform Resource Identifier, URI, that identifies a first storage position from which the XDMS is to retrieve the XML document and further including a second storage position to which the retrieved XML document is to be stored by the XDMS, means for retrieving the XML document from the first storage position identified by the XCAP URI contained in the XCAP PUT request message; and means for storing the XML document in the second storage positions, wherein a content type of the XCAP PUT request message specifies an external body and wherein the URI of the said first storage position is in body data of the XCAP PUT request message. means for receiving an XDM Configuration Access Protocol, XCAP, PUT request message for retrieving an XML document from an XML Document Management Client, XDMC, the XCAP PUT request message including an XCAP Uniform Resource Identifier, URI, that identifies a first storage position from which the XDMS is to retrieve the XML document and further including a second storage position to which the retrieved XML document is to be stored by the XDMS, means for retrieving the XML document from the first storage position identified by the XCAP URI contained in the XCAP PUT request message; and means for storing the XML document in the second storage positions, wherein a content type of the XCAP PUT request message specifies an external body and wherein the URI of the said first storage position is in body data of the XCAP PUT request message.
An apparatus comprising: a reaction chamber containing a polypeptide synthesizing enzyme, the reaction chamber having a port to receive a sample comprising a target analyte and a protein degradation product; a product chamber ; and a separator configured to retain polypeptides resulting from reaction of the protein degradation product with the polypeptide synthesizing enzyme in the reaction chamber and to transport purified remaining portions of the sample comprising a target analyte to the product chamber . a reaction chamber containing a polypeptide synthesizing enzyme, the reaction chamber having a port to receive a sample comprising a target analyte and a protein degradation product; a product chamber ; and a separator configured to retain polypeptides resulting from reaction of the protein degradation product with the polypeptide synthesizing enzyme in the reaction chamber and to transport purified remaining portions of the sample comprising a target analyte to the product chamber .
A polyaxial bone anchoring device for coupling a rod to a bone anchoring element, the anchoring device including a bone anchoring element comprising a shank for anchoring in bone and a head ; a receiving part (5; 5'; 5") having a first end and a second end , a central axis (C) extending through the first end and the second end, a recess for receiving a rod , wherein the receiving part (5; 5'; 5") receives the head of the bone anchoring element ; and a pressure member (7; 7'; 7") for exerting pressure onto the head , wherein the pressure member (7; 7'; 7") comprises at least one engagement portion (756; 753a, 753b; 75a", 75b") that is configured to be engaged by an instrument so as to move the pressure member (7; 7'; 7") in an axial direction from a non locking position in which the head is pivotable in the receiving part (5, 5', 5") to a locking position in which the head is clamped, and wherein the receiving part (5, 5', 5") comprises a first contact surface (50b; 560a; 50c") that cooperates with a second contact surface (71; 751; 71") at the pressure member (7; 7'; 7") in such a manner that the pressure member (7; 7'; 7") is configured to remain in the locking position when the instrument is removed, wherein the receiving part (5; 5'; 5") comprises at its outer surface at least one engagement portion (53a, 53b; 53a', 53b'; 35b") for the instrument.
A poly(phenylene ether) composition comprising 15 to 45 parts by weight a poly(phenylene ether); 5 to 50 parts by weight of a hydrogenated block copolymer of an alkenyl aromatic monomer and a conjugated diene; 0 to 15 parts by weight of a polypropylene or a polyethylene; 2 to 10 parts by weight of a polybutene having a number average molecular weight of 500 to 1500 grams per mole determined by gel permeation chromatography using polystyrene standards; 10 to 45 parts by weight of a flame retardant; 0.5 to 10 parts by weight of a liquid ultraviolet absorbing agent having a melting point that is less than or equal to 25°C; and 0.5 to 10 parts by weight of a poly(alkylene oxide); wherein all parts by weight are based on 100 parts by weight total of flame retardants and polymers other than the poly(alkylene oxide). 15 to 45 parts by weight a poly(phenylene ether); 5 to 50 parts by weight of a hydrogenated block copolymer of an alkenyl aromatic monomer and a conjugated diene; 0 to 15 parts by weight of a polypropylene or a polyethylene; 2 to 10 parts by weight of a polybutene having a number average molecular weight of 500 to 1500 grams per mole determined by gel permeation chromatography using polystyrene standards; 10 to 45 parts by weight of a flame retardant; 0.5 to 10 parts by weight of a liquid ultraviolet absorbing agent having a melting point that is less than or equal to 25°C; and 0.5 to 10 parts by weight of a poly(alkylene oxide); wherein all parts by weight are based on 100 parts by weight total of flame retardants and polymers other than the poly(alkylene oxide).
Window panel for a body structure of a vehicle (V), especially for an airframe of an aircraft or spacecraft, comprising: a first skin extending over a first side of the panel to form an outer skin of the vehicle body structure; a second skin extending over a second side of the panel to form an inner skin of the vehicle body structure; a core , especially a foam core, located between and covered by the first and second skins in a sandwich structure; and a plurality of window apertures provided in the panel formed through the first skin , the core , and the second skin wherein the plurality of window apertures are arranged spaced at intervals laterally adjacent one another along the panel ; wherein the first skin and the second skin are joined to one another to form a monolithic region at or around a periphery of each window aperture , wherein the monolithic region forms an attachment region at which a window assembly is fixable in the panel by means of a retainer element formed as an oval-shaped or ring-shaped plate which is configured for being clamped over the window assembly and which is mounted and fixed on fastening elements in the form of bolts which are fixed or secured to the panel in the monolithic region around the periphery of each window aperture to secure and hold the window assembly . a first skin extending over a first side of the panel to form an outer skin of the vehicle body structure; a second skin extending over a second side of the panel to form an inner skin of the vehicle body structure; a core , especially a foam core, located between and covered by the first and second skins in a sandwich structure; and a plurality of window apertures provided in the panel formed through the first skin , the core , and the second skin wherein the plurality of window apertures are arranged spaced at intervals laterally adjacent one another along the panel ; wherein the first skin and the second skin are joined to one another to form a monolithic region at or around a periphery of each window aperture , wherein the monolithic region forms an attachment region at which a window assembly is fixable in the panel by means of a retainer element formed as an oval-shaped or ring-shaped plate which is configured for being clamped over the window assembly and which is mounted and fixed on fastening elements in the form of bolts which are fixed or secured to the panel in the monolithic region around the periphery of each window aperture to secure and hold the window assembly .