mhurhangee/ep-ind-claims huggingface dataset:
An electronic apparatus comprising: a processor configured to perform operations comprising: obtaining first upscaling information of an input image by using a first artificial intelligence AI, model, wherein the first AI model is trained to obtain upscaling information based on feature information of the input image, wherein the obtaining comprises: obtaining feature information for a pixel which is not in a predetermined region, and obtaining the first upscaling information by inputting the feature information to the first AI model; obtaining a downscaled image by downscaling, based on the first upscaling information, the input image; and obtaining, based on an output resolution, an output image by upscaling the downscaled image to have the output resolution, characterized in that the predetermined region is a margin area with reference to a center pixel included in an edge region identified in the input image. a processor configured to perform operations comprising: obtaining first upscaling information of an input image by using a first artificial intelligence AI, model, wherein the first AI model is trained to obtain upscaling information based on feature information of the input image, wherein the obtaining comprises: obtaining feature information for a pixel which is not in a predetermined region, and obtaining the first upscaling information by inputting the feature information to the first AI model; obtaining a downscaled image by downscaling, based on the first upscaling information, the input image; and obtaining, based on an output resolution, an output image by upscaling the downscaled image to have the output resolution, obtaining first upscaling information of an input image by using a first artificial intelligence AI, model, wherein the first AI model is trained to obtain upscaling information based on feature information of the input image, wherein the obtaining comprises: obtaining feature information for a pixel which is not in a predetermined region, and obtaining the first upscaling information by inputting the feature information to the first AI model; obtaining feature information for a pixel which is not in a predetermined region, and obtaining the first upscaling information by inputting the feature information to the first AI model; obtaining a downscaled image by downscaling, based on the first upscaling information, the input image; and obtaining, based on an output resolution, an output image by upscaling the downscaled image to have the output resolution, characterized in that the predetermined region is a margin area with reference to a center pixel included in an edge region identified in the input image.
A vacuum pump comprising: at least two rotors each comprising at least one lobe, said at least two rotors being mounted within a stator; at least one of said lobes comprising an inertial pressure relief valve (20,22), said inertial pressure relief valve comprising: a body mounted to move between a closed position in which it obstructs a fluid flow pathway between leading and trailing sides of said rotor and an open position in which said fluid flow pathway is not obstructed; wherein said body is configured to move between said open and closed positions in response to changes in forces acting on said body triggered by changes in a rotational velocity of said rotor, characterised in that said body is mounted such that a deceleration of said rotor provides a force biasing said body away from said closed position and an acceleration of said rotor provides a force biasing said body towards said closed position. at least two rotors each comprising at least one lobe, said at least two rotors being mounted within a stator; at least one of said lobes comprising an inertial pressure relief valve (20,22), said inertial pressure relief valve comprising: a body mounted to move between a closed position in which it obstructs a fluid flow pathway between leading and trailing sides of said rotor and an open position in which said fluid flow pathway is not obstructed; wherein said body is configured to move between said open and closed positions in response to changes in forces acting on said body triggered by changes in a rotational velocity of said rotor, characterised in that said body is mounted such that a deceleration of said rotor provides a force biasing said body away from said closed position and an acceleration of said rotor provides a force biasing said body towards said closed position. a body mounted to move between a closed position in which it obstructs a fluid flow pathway between leading and trailing sides of said rotor and an open position in which said fluid flow pathway is not obstructed; wherein said body is configured to move between said open and closed positions in response to changes in forces acting on said body triggered by changes in a rotational velocity of said rotor, characterised in that said body is mounted such that a deceleration of said rotor provides a force biasing said body away from said closed position and an acceleration of said rotor provides a force biasing said body towards said closed position.
Domestic appliance, in particular dishwasher, having a container for receiving an item to be processed, wherein force receiving elements (4; 5; 6; 7), in particular for support with respect to a surrounding piece of kitchen furniture or a wall in an installed state and/or for support against external forces in a stacked or raised state during the transport or a temporary storage, are assigned to the container at least in its upper region, and wherein two external casing walls (8; 9) arranged laterally to the front side are secured against a pull-off force with a transverse component at least on two force receiving elements (4; 5) arranged in close range of a front side of the container facing the user, characterised in that two external casing walls (8; 9) arranged laterally to the front side are also secured against a forward pull-off force with a component at least on the two force receiving elements (4; 5) arranged in close range of a front side of the container facing the user, wherein per casing wall (8; 9) at least two lugs (12; 13; 14;15) are provided, of which one lug (12; 14), in the engagement position with respect to the force receiving element (4; 5), blocks a forward detachment of the casing wall (8; 9) and in the engagement position with respect to the force receiving element (4; 5) a lug (13; 15) blocks a detachment of the casing wall (8; 9) in the lateral direction.
A sliding component in which: an overlay comprises intermetallic particles in a matrix comprising Sn, characterized in that the intermetallic particles comprise an aluminide, the matrix comprising Sn is electroplated and the electroplated Sn has a columnar grain structure. an overlay comprises intermetallic particles in a matrix comprising Sn, characterized in that the intermetallic particles comprise an aluminide, the matrix comprising Sn is electroplated and the electroplated Sn has a columnar grain structure.
Construction unit of an ammonia plant, comprising a. a front end for an ammonia plant, comprising as components a primary reformer, a secondary reformer, an HTS converter and an LTS converter and optionally a methanizer, which are in operative connection with one another and b. at least one natural gas compressor, designed and set up for compressing natural gas and for compressing nitrogen, the natural gas compressor being arranged upstream of the primary reformer and it being possible for the constructional unit to be connected downstream of the LTS converter and, if appropriate, downstream of the methanizer via at least one line to an ammonia converter of an ammonia plant, characterised in that the constructional unit has at least one line which is connected to the ammonia converter of an ammonia plant, in that the constructional unit comprises at least one circuit line for nitrogen branching off downstream of the LTS converter or downstream of the methanizer and leading back into the region upstream of the natural gas compressor, it being possible to shut off the line leading from the constructional unit to the ammonia converter downstream of the LTS converter or downstream of the methanizer. a. a front end for an ammonia plant, comprising as components a primary reformer, a secondary reformer, an HTS converter and an LTS converter and optionally a methanizer, which are in operative connection with one another and b. at least one natural gas compressor, designed and set up for compressing natural gas and for compressing nitrogen,
A hybrid electric cable comprising, in a common outer sheath, at least two power cables (2, 3; 2' to 7') and at least two data transmission cables (4, 5; 8' to 11'), including a common layer of conductive material for electromagnetic protection, at least one common steel mechanical protection screen further being arranged on said outer sheath, characterized in that said common steel mechanical protection screen has a thickness of between 0.1 and 0.8 mm and in that below said common steel mechanical protection screen, it includes a layer of insulating material, a laminate of aluminum insulating material glued on the preceding layer and a layer of plastic maintaining material.
A conjugate of formula ConjB: ConjC ConjDE: wherein: Ab is an antibody that binds to CD19, the antibody comprising a VH domain having the sequence according to any one of SEQ ID NOs. 1, 2, 3, 4, 5 or 6, optionally further comprising a VL domain having the sequence according to any one of SEQ ID NOs. 7, 8, 9, 10, 11 or 12. ConjB: ConjC ConjDE:
Control method for adjusting an electromechanical parking brake, - according to which an actuator of the parking brake is adjusted by virtue of actuation by means of an actuator control unit, - wherein a writable, non-volatile memory unit is provided and stores position data relating to the current actuator position of the actuator in a readable and writable form; - according to which the actuation of the actuator for adjusting the latter is continued if a write error occurs or when writing the position data to the memory unit, - according to which a synchronization process is carried out independently of the actuation of the actuator if the write error is detected, with the result that the position data stored in the memory unit correctly reflect the actuator position of the actuator after this synchronization process has been completed. - according to which an actuator of the parking brake is adjusted by virtue of actuation by means of an actuator control unit, - wherein a writable, non-volatile memory unit is provided and stores position data relating to the current actuator position of the actuator in a readable and writable form; - according to which the actuation of the actuator for adjusting the latter is continued if a write error occurs or when writing the position data to the memory unit, - according to which a synchronization process is carried out independently of the actuation of the actuator if the write error is detected, with the result that the position data stored in the memory unit correctly reflect the actuator position of the actuator after this synchronization process has been completed.
One or more non-transitory machine-readable media storing instructions which, when executed by one or more processors, cause: identifying, by an application, a public cloud user account of a user for using a public cloud service (102, 302); characterised in that the instructions when executed further cause: obtaining information, by the application from the public cloud service (102, 302), indicating a pre-approval for binding (a) the public cloud user account and (b) a personal cloud user account of the user for using a personal cloud device (110, 110a-c, 310); transmitting, by the application to the personal cloud device (110, 110a-c, 310), a request to bind the public cloud user account and the personal cloud user account, the request to bind comprising an identifier associated with the public cloud user account; obtaining, by the application, a confirmation indicating that a binding between the public cloud user account and the personal cloud user account has been generated in response to the request to bind. identifying, by an application, a public cloud user account of a user for using a public cloud service (102, 302); characterised in that the instructions when executed further cause: obtaining information, by the application from the public cloud service (102, 302), indicating a pre-approval for binding (a) the public cloud user account and (b) a personal cloud user account of the user for using a personal cloud device (110, 110a-c, 310); transmitting, by the application to the personal cloud device (110, 110a-c, 310), a request to bind the public cloud user account and the personal cloud user account, the request to bind comprising an identifier associated with the public cloud user account; obtaining, by the application, a confirmation indicating that a binding between the public cloud user account and the personal cloud user account has been generated in response to the request to bind. obtaining information, by the application from the public cloud service (102, 302), indicating a pre-approval for binding (a) the public cloud user account and (b) a personal cloud user account of the user for using a personal cloud device (110, 110a-c, 310); transmitting, by the application to the personal cloud device (110, 110a-c, 310), a request to bind the public cloud user account and the personal cloud user account, the request to bind comprising an identifier associated with the public cloud user account; obtaining, by the application, a confirmation indicating that a binding between the public cloud user account and the personal cloud user account has been generated in response to the request to bind.
A method for a mobile station, MS, performing base station, BS, cooperative communication in a wireless communication system, the method comprising: measuring signal quality (312, 512) for one or more neighboring BSs of a serving BS; characterized in that the method further comprises: determining (314, 514) a number of beams available for a communication between the serving BS and the MS; and if the number of available beams is smaller than a predetermined value and at least one neighboring BS has a signal measurement larger than a first threshold while the MS operates in a single cell mode in which the MS communicates with the serving BS, requesting (320, 518) for switching the single cell mode to a BS cooperative communication mode to the serving BS. measuring signal quality (312, 512) for one or more neighboring BSs of a serving BS; characterized in that the method further comprises: determining (314, 514) a number of beams available for a communication between the serving BS and the MS; and if the number of available beams is smaller than a predetermined value and at least one neighboring BS has a signal measurement larger than a first threshold while the MS operates in a single cell mode in which the MS communicates with the serving BS, requesting (320, 518) for switching the single cell mode to a BS cooperative communication mode to the serving BS. determining (314, 514) a number of beams available for a communication between the serving BS and the MS; and if the number of available beams is smaller than a predetermined value and at least one neighboring BS has a signal measurement larger than a first threshold while the MS operates in a single cell mode in which the MS communicates with the serving BS, requesting (320, 518) for switching the single cell mode to a BS cooperative communication mode to the serving BS.
A biocompatible thermogelling composition comprising: a) a chitosan solution; and b) a buffering solution consisting of an amino-sugar carbonate solution, of an amino-sugar phosphate solution or of a phosporylated amino-sugar solution; wherein the composition is biocompatible, isotonic and turns into gel with time or by lowering or increasing the temperature. a) a chitosan solution; and b) a buffering solution consisting of an amino-sugar carbonate solution, of an amino-sugar phosphate solution or of a phosporylated amino-sugar solution;
A negative ion source comprising: a plasma chamber for containing a gas to be ionized; a microwave source configured to transmit microwaves to the plasma chamber to ionize the gas into atomic species including hyperthermal neutral atoms; a negative ion source converter configured to convert the hyperthermal neutral atoms to negative ions; a magnetic filter configured to reduce a temperature of electrons between the plasma chamber and the negative ion source converter; a beam formation mechanism configured to extract the negative ions; and at least one waveguide configured to electrically isolate the plasma chamber and the microwave source, the at least one waveguide configured to allow a break in the waveguide to be insulated with air. a plasma chamber for containing a gas to be ionized; a microwave source configured to transmit microwaves to the plasma chamber to ionize the gas into atomic species including hyperthermal neutral atoms; a negative ion source converter configured to convert the hyperthermal neutral atoms to negative ions; a magnetic filter configured to reduce a temperature of electrons between the plasma chamber and the negative ion source converter; a beam formation mechanism configured to extract the negative ions; and at least one waveguide configured to electrically isolate the plasma chamber and the microwave source, the at least one waveguide configured to allow a break in the waveguide to be insulated with air.
A method for operating a turbomachine of a hybrid-electric propulsion system of an aircraft, the hybrid-electric propulsion system comprising a turbomachine and an electrical system, the electrical system comprising an electric machine coupled to the turbomachine, the method comprising: receiving, by one or more computing devices, a command to accelerate the turbomachine to provide a desired thrust output; receiving, by the one or more computing devices, data indicative of a rate of change of an exhaust gas temperature within the turbomachine approaching or exceeding an upper exhaust gas temperature threshold; and providing, by the one or more computing devices, electrical power to the electric machine to add power to the turbomachine to provide, or assist with providing, the desired thrust output in response to receiving the command to accelerate the turbomachine and receiving the data indicative of the rate of change of the exhaust gas temperature approaching or exceeding the upper exhaust gas temperature threshold. receiving, by one or more computing devices, a command to accelerate the turbomachine to provide a desired thrust output; receiving, by the one or more computing devices, data indicative of a rate of change of an exhaust gas temperature within the turbomachine approaching or exceeding an upper exhaust gas temperature threshold; and providing, by the one or more computing devices, electrical power to the electric machine to add power to the turbomachine to provide, or assist with providing, the desired thrust output in response to receiving the command to accelerate the turbomachine and receiving the data indicative of the rate of change of the exhaust gas temperature approaching or exceeding the upper exhaust gas temperature threshold.
Semiconductor light source comprising a plurality of three-dimensional semiconductor sources (6 1, 6 2) of submillimetric dimensions, wherein at least some three-dimensional semiconductor sources (6 1) are connected electrically to one another into a first set dedicated to an emission of a light beam substantially at a first wavelength, and other three-dimensional semiconductor sources (6 2) are connected electrically to one another into a second set dedicated to a reception of a light beam substantially at a second wavelength, the first set and the second set respectively forming an emission zone and a reception zone that are distinct, and wherein the three-dimensional semiconductor sources are on a same substrate.
A method of conjugating a drug to an antibody resulting in selectivity in the placement of the drug, comprising: fully reducing the antibody with a reducing agent; treating the fully reduced antibody with limiting amounts of a reoxidizing agent to reform at least one interchain disulfide bond of the antibody, such that at least two interchain thiols remain; and conjugating the drug to the interchain thiols. fully reducing the antibody with a reducing agent; treating the fully reduced antibody with limiting amounts of a reoxidizing agent to reform at least one interchain disulfide bond of the antibody, such that at least two interchain thiols remain; and conjugating the drug to the interchain thiols.
Method for determining the position of corrosion sites in reinforced concrete, in which, at at least two measurement locations on the concrete surface, a value (UB, UC) of a voltage potential (UB, UC) given at the respective measurement location is measured relative to a reference voltage potential given at a reference location, characterized in that a 3D spatial coordinate (XA, YA, UA = 0/XB, YB, UB/XC, YC, UC) is formed from the 2D coordinates (XB, YB, XC, YC) for each measurement location or for each measurement location and the reference location in a plane of a predetermined coordinate system together with the value of the voltage potential (UA, UB, UC) at the respective location, said 3D spatial coordinate determining respectively one point (A, B, C) in the coordinate system, and, from at least three of the points (A, B, C) formed thus, a measure for the gradient of a plane or a variable depending thereon is determined in relation to this plane defined mathematically by the at least three points (A, B, C), from which the direction to a corrosion site and/or a distance from a corrosion site is calculated.
A bulk catalyst composition comprising one or more Group VIII metals and two or more Group VIB metals, which bulk catalyst composition comprises i. first metal oxidic particles comprising one or more first Group VIII metals and one or more first Group VIB metals ii. separately prepared second metal oxidic particles comprising one or more second Group VIII metals and one or more second Group VIB metals, wherein the composition of Group VIB and Group VIII metals in the first and second metal oxidic particles are different, and wherein the first metal oxidic particles comprise molybdenum as the main Group VIB metal and the second metal oxidic particles comprise tungsten as the main Group VIB metal; wherein the first and second oxidic bulk particles are separately shaped by extrusion, pilling, pelletising, agglomeration, grinding or spray drying to form separate first and second shaped bulk catalyst particles, which are combined to form the bulk catalyst composition; wherein the first and second shaped bulk catalysts are combined by blending the particles to a homogeneous mixture or in at least two consecutive layers wherein the layers have a different relative amount of the first and second shaped bulk catalysts or in one layer having in a direction perpendicular to the layer a composition gradient along which the relative amount of the first and second shaped bulk catalysts gradually changes. i. first metal oxidic particles comprising one or more first Group VIII metals and one or more first Group VIB metals ii. separately prepared second metal oxidic particles comprising one or more second Group VIII metals and one or more second Group VIB metals, wherein the composition of Group VIB and Group VIII metals in the first and second metal oxidic particles are different, and wherein the first metal oxidic particles comprise molybdenum as the main Group VIB metal and the second metal oxidic particles comprise tungsten as the main Group VIB metal;