mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling electronic devices in a home network, the method comprising: collecting, at a device management apparatus, user information regarding a user within a predetermined area; and controlling, at the device management apparatus, access to at least one of the electronic devices based on the user information, wherein controlling access comprises at least one of: restricting the access to the at least one of the electronic devices according to a usage level categorized based on the user information, and restricting the access to the at least one of the electronic devices according to a hierarchical relationship of the user information. collecting, at a device management apparatus, user information regarding a user within a predetermined area; and controlling, at the device management apparatus, access to at least one of the electronic devices based on the user information, wherein controlling access comprises at least one of: restricting the access to the at least one of the electronic devices according to a usage level categorized based on the user information, and restricting the access to the at least one of the electronic devices according to a hierarchical relationship of the user information. restricting the access to the at least one of the electronic devices according to a usage level categorized based on the user information, and restricting the access to the at least one of the electronic devices according to a hierarchical relationship of the user information.
A method comprising: dynamically selecting a symbol space for data-non-associated uplink feedback control signaling; and sending the selected uplink feedback control signaling using the selected symbol space, wherein said dynamically selecting takes place in a base station and a dynamically selected symbol space is transmitted from said base station to user equipment and wherein said sending the selected uplink feedback control signaling takes place from said user equipment to said base station. dynamically selecting a symbol space for data-non-associated uplink feedback control signaling; and sending the selected uplink feedback control signaling using the selected symbol space, wherein said dynamically selecting takes place in a base station and a dynamically selected symbol space is transmitted from said base station to user equipment and wherein said sending the selected uplink feedback control signaling takes place from said user equipment to said base station.
A crystal form I of (1R,2S)-1-(6-bromo-2-methoxyquinolin-3-yl)-4-dimethylamino-1-phenyl-2-(1-naphthyl)-2-butan ol fumarate, wherein the X-ray powder diffraction pattern thereof has characteristic peaks at 2θ (°) values of 5.6±0.2, 11.2±0.2, 22.6±0.2, 23.1±0.2, 23.6±0.2, 29.0±0.2.
A magnetic sensor device including a magnetic detection element and a biasing magnet applying a bias magnetic field to the magnetic detection element with a line of magnetic force in a constant direction and being configured to detect a magnetic field change caused by passing of a medium with a magnetic pattern through the bias magnetic field as an electric signal with the magnetic detection element, and to read the magnetic pattern of the medium, the magnetic sensor device comprising: - a plurality of the magnetic detection elements arrayed along a reading line intersecting with a relative movement direction of the medium; - a plurality of switches, each of the plurality of switches being connected to the respective magnetic detection element of the plurality of magnetic detection elements and to an output line common to the plurality of magnetic detection elements; - a switch controller closing the plurality of switches sequentially one by one to transfer respective outputs from the magnetic detection elements sequentially one by one to the output line; wherein the switch controller periodically carries out a reading cycle in synchronization with the relative movement of the medium, the reading cycle being an operation of transferring the outputs of all magnetic detection elements of the plurality of magnetic detection elements one by one to the output line common to the plurality of the magnetic detection elements; characterized in that the switch controller carries out the reading cycle in synchronization with the relative movement of the medium and at a frequency of a unit feeding time that is a time period at which a relative movement distance of the medium becomes equal to a constant pitch between the adjacent magnetic detection elements along the reading line. - a plurality of the magnetic detection elements arrayed along a reading line intersecting with a relative movement direction of the medium; - a plurality of switches, each of the plurality of switches being connected to the respective magnetic detection element of the plurality of magnetic detection elements and to an output line common to the plurality of magnetic detection elements; - a switch controller closing the plurality of switches sequentially one by one to transfer respective outputs from the magnetic detection elements sequentially one by one to the output line;
An arrangement comprising at least two burners, the arrangement having an exhaust gas guiding device, the exhaust gas guiding device serving to jointly guide exhaust gases of the two burners, the arrangement having a supply device, the supply device supplying the two burners jointly with combustion air, the arrangement having at least one backflow barrier, the backflow barrier preventing a gaseous medium from flowing in at least one flow direction, the backflow barrier being arranged in the exhaust gas guiding device or in the supply device, the backflow barrier having at least one opening and at least one movable element, the movable element being movable between at least two positions, the opening being open in case the movable element is in one of the two positions, the opening being closed in case the movable element is in another of the two positions, characterized in that the backflow barrier is arranged in the exhaust gas guiding device, one exhaust gas guide extending from each of the two burners, one opening being associated with each exhaust gas guide, the movable element being a flap mounted in a decentralized manner or on one side between the two openings, and a position of the flap being dependent on a ratio of the exhaust gas quantities of the two burners. the arrangement having an exhaust gas guiding device, the exhaust gas guiding device serving to jointly guide exhaust gases of the two burners, the arrangement having a supply device, the supply device supplying the two burners jointly with combustion air, the arrangement having at least one backflow barrier, the backflow barrier preventing a gaseous medium from flowing in at least one flow direction, the backflow barrier being arranged in the exhaust gas guiding device or in the supply device, the backflow barrier having at least one opening and at least one movable element, the movable element being movable between at least two positions, the opening being open in case the movable element is in one of the two positions, the opening being closed in case the movable element is in another of the two positions, characterized in that the backflow barrier is arranged in the exhaust gas guiding device, one exhaust gas guide extending from each of the two burners, one opening being associated with each exhaust gas guide, the movable element being a flap mounted in a decentralized manner or on one side between the two openings, and a position of the flap being dependent on a ratio of the exhaust gas quantities of the two burners.
A charge control resin for toner comprising a resin component having both a polyester unit produced by polycondensation of a dihydric alcohol component and a dibasic or tribasic aromatic carboxylic acid component, and an aryl group having a structure shown by the following formulae or: wherein R 1 to R 4, independently, represent a hydrogen atom, an alkyl group having 1 to 6 carbon atoms, a hydroxyl group, or an alkoxy group having 1 to 6 carbon atoms, or R 1 to R 4 at adjacent positions, taken together, may form a benzene ring, and R 5 represents an alkyl group having 1 to 4 carbon atoms; wherein R 6 to R 8, independently, represent a hydrogen atom, an alkyl group having 1 to 6 carbon atoms, a hydroxyl group, or an alkoxy group having 1 to 6 carbon atoms, or adjacent two of R 6 to R 8, taken together, may form a benzene ring at adjacent positions, and R 9 represents an alkyl group having 1 to 4 carbon atoms wherein the charge control resin for toner contains 0.1 to 0.9 mmol/g of the aryl group having a structure shown by the formulae or and has a weight average molecular weight (Mw) calculated by gel permeation chromatography within the range of 2,000 to 200,000.
A conjugate comprising a ligand of PSMA, a linker, and a drug, wherein the linker is covalently bound to the drug and the linker is covalently bound to the ligand, and where the linker comprises a chain of at least seven atoms or of at least about 10 angstroms in length, wherein the ligand (a) comprises a phosphonic acid or a phosphinic acid, or (b) is a urea of two amino acids. (a) comprises a phosphonic acid or a phosphinic acid, or (b) is a urea of two amino acids.
Manoeuvring drive for a trailer, said manoeuvring drive having an electric motor, a drive roller and a gearbox (14, 16) that couples the electric motor to the drive roller, characterised in that the gearbox is a self-locking hypoid gearbox.
Floating vessel comprising at least one inflatable hull (1, 1') comprising at least one pneumatic casing (2, 2') with two walls (2 c, 2 d) placed one over the other, said walls (2 c, 2 d) each comprising a fabric sheet and being connected to each other by a multitude of connecting wires (2 f) distributed over the entire surface of said sheets, forming a structure adapted to be inflated to a pressure capable of rigidifying said structure and being capable of ensuring the buoyancy of said hull independently of any attached buoyancy element, and equipped with a propulsion device, characterised in that said casing (2, 2') has a first cross-sectional curvature and a second curvature on at least its front part in longitudinal section, one (2 c) of said walls, called the upper wall, corresponding to the inner side of said curvature and the other (2 d) of said walls, called the lower wall, corresponding to the outer side of said curvature, in that the upper wall and the lower wall of said casing (2, 2') comprise a clip that allow to carry out, by cutting means (2i, 2k) or a fold (2 p), a stem having said first and second curvatures, in that it comprises at least one sealed inner strip (2 m', 2 m) sealingly fixed between said walls (2 c, 2 d) to form the lateral wall of at least a first orifice (4 a) for the passage of a drift extending over at least a portion of the length of said pneumatic casing and passing through said inflatable hull (1, 1'), and in that it comprises a piece (6 a) forming a drift well adapted to be received in said first through orifice (4 a) of said hull (1, 1'), and in that the propulsion device comprises a mast and a sail.
A process for polymerizing or copolymerizing one or more ethylenically unsaturated monomers at temperatures from 100°C to 350°C and pressures in the range of from 110 MPa to 500 MPa in a continuously operated polymerization reactor, wherein the polymerization is carried out in a production line in which the monomers are brought to the polymerization pressure by one or more compressors in a sequence of compression stages in which the compressed gas mixture is cooled after each compression stage by a compression stage cooler, the compressed monomers are optionally passed through a pre-heater or a pre-cooler and transferred into the polymerization reactor, which is optionally cooled by cooling jackets, a reaction mixture obtained by the polymerization is leaving the reactor through a pressure control valve, and optionally cooled by an post reactor cooler, the reaction mixture is separated into polymeric and gaseous components in two or more stages, where the gaseous components separated off in a first stage at an absolute pressure of from 15 MPa to 50 MPa are recycled to the one or more compressors via a high-pressure gas recycle line, and the gaseous components separated off in a second stage at an absolute pressure in the range of from 0.1 to 0.5 MPa are recycled to the first stage of the sequence of compression stages via a low-pressure gas recycle line, and the polymeric components obtained by the polymerization are transformed into pellets, wherein at least one of the pre-heater or pre-cooler, the polymerization reactor and the post reactor cooler is composed of tubes of a length from 5 m to 25 m which are flanged together, either directly or via bends, and the flanges are covered by a chimney construction, and wherein air is conveyed through the chimney construction and the air exiting the chimney construction is monitored with respect to the hydrocarbon concentration.
An anti-CD40 antibody comprising a heavy chain comprising an amino acid sequence as set forth in SEQ ID NO: 41, and a light chain comprising an amino acid sequence as set forth in SEQ ID NO: 40.
A microwave treatment apparatus comprising: a vessel (10; 10a; 10b; 10c; 10d) inside which a treatment target moves; a microwave irradiating unit (20; 21; 22) that irradiates an internal portion of the vessel (10; 10a; 10b; 10c; 10d) with microwaves; and a heat generating member (30; 30a; 30b; 30c; 30d; 30e) that is provided inside the vessel (10; 10a; 10b; 10c; 10d) along a movement path of the treatment target, generates heat by absorbing part of microwaves used for irradiation by the microwave irradiating unit (20; 21; 22), and transmits part of the microwaves, the heat generating member (30; 30a; 30b; 30c; 30d; 30e) including a support member and a heating medium that is supported by the support member, wherein the microwave irradiating unit (20; 21; 22) heats the treatment target from an outside through heat generation of the heating medium, and directly heats the treatment target with microwaves transmitted through the heat generating member (30; 30a; 30b; 30c; 30d; 30e), and wherein the microwave irradiating unit (20; 21; 22) heats the treatment target at different positions on the movement path. a vessel (10; 10a; 10b; 10c; 10d) inside which a treatment target moves; a microwave irradiating unit (20; 21; 22) that irradiates an internal portion of the vessel (10; 10a; 10b; 10c; 10d) with microwaves; and a heat generating member (30; 30a; 30b; 30c; 30d; 30e) that is provided inside the vessel (10; 10a; 10b; 10c; 10d) along a movement path of the treatment target, generates heat by absorbing part of microwaves used for irradiation by the microwave irradiating unit (20; 21; 22), and transmits part of the microwaves, the heat generating member (30; 30a; 30b; 30c; 30d; 30e) including a support member and a heating medium that is supported by the support member, wherein the microwave irradiating unit (20; 21; 22) heats the treatment target from an outside through heat generation of the heating medium, and directly heats the treatment target with microwaves transmitted through the heat generating member (30; 30a; 30b; 30c; 30d; 30e), and wherein the microwave irradiating unit (20; 21; 22) heats the treatment target at different positions on the movement path.
A data processing method, wherein the method comprises: receiving, by a first edge computing node, a container image update instruction, wherein the first edge computing node is any edge computing node in an edge computing cluster, the edge computing cluster comprises at least two edge computing nodes, and the container image update instruction is used to instruct the at least two edge computing nodes in the edge computing cluster to update a container image; obtaining, by the first edge computing node, a to-be-updated container image; and sending, by the first edge computing node, the to-be-updated container image to another edge computing node in the edge computing cluster, wherein before the obtaining, by the first edge computing node, a to-be-updated container image, the method further comprises: after the first edge computing node receives the container image update instruction, selecting, by the first edge computing node, an edge computing node from the edge computing cluster as an agent node. receiving, by a first edge computing node, a container image update instruction, wherein the first edge computing node is any edge computing node in an edge computing cluster, the edge computing cluster comprises at least two edge computing nodes, and the container image update instruction is used to instruct the at least two edge computing nodes in the edge computing cluster to update a container image; obtaining, by the first edge computing node, a to-be-updated container image; and sending, by the first edge computing node, the to-be-updated container image to another edge computing node in the edge computing cluster, wherein before the obtaining, by the first edge computing node, a to-be-updated container image, the method further comprises: after the first edge computing node receives the container image update instruction, selecting, by the first edge computing node, an edge computing node from the edge computing cluster as an agent node.
An environmental control system of an aircraft comprising: a plurality of inlets (22, 24, 28) for receiving a plurality of mediums including a first medium, a second medium, and a third medium; an outlet for delivering a conditioned flow of the second medium to one or more loads of the aircraft; a first air cycle machine and a second air cycle machine, the second air cycle machine being arranged in fluid communication with the first air cycle machine and the outlet, wherein an inlet of the second air cycle machine is directly connected to an outlet of the first air cycle machine, and the first air cycle machine is driven by energy extracted from the first medium, wherein the first medium is a flow of bleed air; wherein the second medium is distinct from the first medium, wherein the second air cycle machine is arranged downstream from the first air cycle machine and upstream from the outlet relative to a flow of the second medium; and wherein the first air cycle machine is simultaneously driven by the third medium. a plurality of inlets (22, 24, 28) for receiving a plurality of mediums including a first medium, a second medium, and a third medium; an outlet for delivering a conditioned flow of the second medium to one or more loads of the aircraft; a first air cycle machine and a second air cycle machine, the second air cycle machine being arranged in fluid communication with the first air cycle machine and the outlet, wherein an inlet of the second air cycle machine is directly connected to an outlet of the first air cycle machine, and the first air cycle machine is driven by energy extracted from the first medium, wherein the first medium is a flow of bleed air; wherein the second medium is distinct from the first medium, wherein the second air cycle machine is arranged downstream from the first air cycle machine and upstream from the outlet relative to a flow of the second medium; and wherein the first air cycle machine is simultaneously driven by the third medium.
A method of random access preamble selection, performed by a wireless device, comprising: receiving a plurality of random access preamble configuration parameters from an access node; determining which one of a plurality of grouping schemes random access preambles are grouped in accordance with, wherein different grouping schemes are associated with different types of group selection criteria, wherein the plurality of grouping schemes comprise first and second grouping schemes (125a, 125b) associated with respective types of group selection criteria in which selection of a group is according to at least a size of a pending transmission from the wireless device and according to a coverage enhancement level of the wireless device, respectively, wherein determining which one of the plurality of grouping schemes the random access preambles are grouped in accordance with is based on a comparison of at least two of the random access preamble configuration parameters; selecting, from among groups of the random access preambles as defined in accordance with the determined grouping scheme, a group based on the type of group selection criteria associated with the determined grouping scheme; and attempting random access to a base station using a random access preamble selected from the selected group. receiving a plurality of random access preamble configuration parameters from an access node; determining which one of a plurality of grouping schemes random access preambles are grouped in accordance with, wherein different grouping schemes are associated with different types of group selection criteria, wherein the plurality of grouping schemes comprise first and second grouping schemes (125a, 125b) associated with respective types of group selection criteria in which selection of a group is according to at least a size of a pending transmission from the wireless device and according to a coverage enhancement level of the wireless device, respectively, wherein determining which one of the plurality of grouping schemes the random access preambles are grouped in accordance with is based on a comparison of at least two of the random access preamble configuration parameters; selecting, from among groups of the random access preambles as defined in accordance with the determined grouping scheme, a group based on the type of group selection criteria associated with the determined grouping scheme; and attempting random access to a base station using a random access preamble selected from the selected group.
A method, performed by a first control device, for controlling physically connecting a first and a second module (30, 40) to assemble a vehicle, the vehicle being assembled from a set of modules comprising: at least one drive module; and at least one functional module, wherein the at least one drive module comprises a pair of wheels and is configured to be autonomously operated and drive the assembled vehicle, wherein the first control device is comprised in the first module (30, 40), characterized in that the method comprises: - activating a sensor device in the first module (30, 40); - identifying an area between the two modules (30, 40) by means of the sensor device; - transmitting information about the identified area to the second module (30, 40); - continuously determining the position of the second module (30, 40) in relation to the first module (30, 40), by means of the sensor device, while the second module (30, 40) is moving towards the first module (30, 40), and transmitting the determined position to the second module (30, 40); and - physically connecting the modules (30, 40) when the second module (30, 40) has reached the first module (30, 40). at least one drive module; and at least one functional module, - activating a sensor device in the first module (30, 40); - identifying an area between the two modules (30, 40) by means of the sensor device; - transmitting information about the identified area to the second module (30, 40); - continuously determining the position of the second module (30, 40) in relation to the first module (30, 40), by means of the sensor device, while the second module (30, 40) is moving towards the first module (30, 40), and transmitting the determined position to the second module (30, 40); and - physically connecting the modules (30, 40) when the second module (30, 40) has reached the first module (30, 40).