mhurhangee/patent-ind-claim-en huggingface dataset:
A terminal apparatus configured to communicate with a base station apparatus in a serving cell, the terminal apparatus comprising: a Radio Resource Control, RRC, layer processing unit configured to configure in the serving cell a set of one or more downlink, DL, bandwidth parts given by a first RRC signaling; and a radio transmission and/or reception unit configured to monitor a first PDCCH with a first DCI format in an active DL bandwidth part where a first DL bandwidth part from the set of one or more DL bandwidth parts is set to the active DL bandwidth part, the first DCI format being used for scheduling a PDSCH in the active DL bandwidth part where a second DL bandwidth part from the set of one or more DL bandwidth parts is set to the active DL bandwidth part, and configured to monitor a second PDCCH with a second DCI format in the active DL bandwidth part where the first DL bandwidth part is set to the active DL bandwidth part, the second DCI format being used for scheduling a PDSCH in the active DL bandwidth part where the first DL bandwidth part is set to the active DL bandwidth part, wherein a first size of a first resource assignment information field in the first DCI format is given based on the first RRC signaling, and a second size of a second resource assignment information field in the second DCI format is given based on a second RRC signaling which includes a master information block, MIB, the second RRC signaling being different from the first RRC signaling. a Radio Resource Control, RRC, layer processing unit configured to configure in the serving cell a set of one or more downlink, DL, bandwidth parts given by a first RRC signaling; and a radio transmission and/or reception unit configured to monitor a first PDCCH with a first DCI format in an active DL bandwidth part where a first DL bandwidth part from the set of one or more DL bandwidth parts is set to the active DL bandwidth part, the first DCI format being used for scheduling a PDSCH in the active DL bandwidth part where a second DL bandwidth part from the set of one or more DL bandwidth parts is set to the active DL bandwidth part, and configured to monitor a second PDCCH with a second DCI format in the active DL bandwidth part where the first DL bandwidth part is set to the active DL bandwidth part, the second DCI format being used for scheduling a PDSCH in the active DL bandwidth part where the first DL bandwidth part is set to the active DL bandwidth part, wherein a first size of a first resource assignment information field in the first DCI format is given based on the first RRC signaling, and a second size of a second resource assignment information field in the second DCI format is given based on a second RRC signaling which includes a master information block, MIB, the second RRC signaling being different from the first RRC signaling.
Lightweight dowel comprising at least three resilient flanks , in particular at least four resilient flanks , and one resilient flank base , wherein the resilient flanks are each connected to the resilient flank base by a lower end remote from a head of the Lightweight dowel (I), wherein the resilient flank base has a height (H6), measured in the direction of a longitudinal axis (LAI) of the Lightweight dowel (I), which corresponds to a maximum of one third of an outer diameter (D6) of the resilient flank base , characterised in that a screw channel is formed between the resilient flanks which tapers in the direction of the resilient flank base , the screw channel being dimensioned such that the resilient flanks can be pressed radially outwards by screwing in a screw (S) into a head area (K7) of the lightweight dowel, and that the lightweight dowel (I) comprises at least three and in particular at least four resilient flanks . resilient flank base , wherein the resilient flanks are each connected to the resilient flank base by a lower end remote from a head of the Lightweight dowel (I), wherein the resilient flank base has a height (H6), measured in the direction of a longitudinal axis (LAI) of the Lightweight dowel (I), which corresponds to a maximum of one third of an outer diameter (D6) of the resilient flank base , characterised in that a screw channel is formed between the resilient flanks which tapers in the direction of the resilient flank base , the screw channel being dimensioned such that the resilient flanks can be pressed radially outwards by screwing in a screw (S) into a head area (K7) of the lightweight dowel, and that the lightweight dowel (I) comprises at least three and in particular at least four resilient flanks .
A system for regulation of vehicles in a vehicle train which are adapted to communicating via wireless communication, which system comprises a processor unit adapted to - receiving wirelessly from vehicles in the train data which comprise vehicle parameters for the vehicles and identification data which indicate the vehicle or vehicles from which said parameters come, - estimating one or more states for at least one vehicle k i +1 in the train on the basis of at least a model of the vehicle and said parameters received, further being characterised in that the processor unit is adapted to - calculating for said estimated states one or more check values which indicate how reliable the estimation of the state or states is, depending on the transmission of the wireless data signals, - determining a distance d between a vehicle k i behind and vehicle k i +1 in the train on the basis of said check value or values, and generating a control signal for regulating said vehicle k i according to said distance d , - sending said control signal to a control unit of vehicle k i , which vehicle is then regulated so that the distance between the two vehicles k i and k i +1 becomes d such that a safe distance from the vehicle in front k i +1 is continually maintained. - receiving wirelessly from vehicles in the train data which comprise vehicle parameters for the vehicles and identification data which indicate the vehicle or vehicles from which said parameters come, - estimating one or more states for at least one vehicle k i +1 in the train on the basis of at least a model of the vehicle and said parameters received, further being characterised in that the processor unit is adapted to - calculating for said estimated states one or more check values which indicate how reliable the estimation of the state or states is, depending on the transmission of the wireless data signals, - determining a distance d between a vehicle k i behind and vehicle k i +1 in the train on the basis of said check value or values, and generating a control signal for regulating said vehicle k i according to said distance d , - sending said control signal to a control unit of vehicle k i , which vehicle is then regulated so that the distance between the two vehicles k i and k i +1 becomes d such that a safe distance from the vehicle in front k i +1 is continually maintained.
A printing system comprising: a print engine ; a substrate support having a plurality of apertures spaced apart from each other; a colour sensor mounted on a carriage and moveable along the substrate support to measure light from each aperture; and a controller to: control the colour sensor to measure characteristics of light emitted through each aperture; determine, for each aperture, light calibration data based on the measured characteristics of light; obtain light characteristic data for light emitted through each of the apertures and through colour patches printed on a substrate ; determine, based on the determined light calibration data and obtained light characteristic data, calibrated colour patch light characteristic data; and determine, based on the calibrated colour patch light characteristic data, printing system colour calibration data for performing printing system colour calibration for use when printing images on backlit substrates using the print engine. a print engine ; a substrate support having a plurality of apertures spaced apart from each other; a colour sensor mounted on a carriage and moveable along the substrate support to measure light from each aperture; and a controller to: control the colour sensor to measure characteristics of light emitted through each aperture; determine, for each aperture, light calibration data based on the measured characteristics of light; obtain light characteristic data for light emitted through each of the apertures and through colour patches printed on a substrate ; determine, based on the determined light calibration data and obtained light characteristic data, calibrated colour patch light characteristic data; and determine, based on the calibrated colour patch light characteristic data, printing system colour calibration data for performing printing system colour calibration for use when printing images on backlit substrates using the print engine. control the colour sensor to measure characteristics of light emitted through each aperture; determine, for each aperture, light calibration data based on the measured characteristics of light; obtain light characteristic data for light emitted through each of the apertures and through colour patches printed on a substrate ; determine, based on the determined light calibration data and obtained light characteristic data, calibrated colour patch light characteristic data; and determine, based on the calibrated colour patch light characteristic data, printing system colour calibration data for performing printing system colour calibration for use when printing images on backlit substrates using the print engine.
A composition comprising a long-acting, IL-2Rβ-selective agonist compound comprised of IL-2 covalently attached to a poly(ethylene glycol) or pharmaceutically acceptable salts thereof for use in a method of treating a patient suffering from a cancer, wherein the method comprises the steps of: (a) administering to the patient an IL-2Rβ-activating amount of the composition comprising a long-acting, IL-2Rβ-selective agonist compound; and (b) administering an IL-15 receptor-activating amount of a long-acting IL-15 agonist comprised of IL-15 covalently attached to a poly(ethylene glycol), or pharmaceutically acceptable salts thereof.
A trackable device comprising: means for causing the trackable device to transition (S2.4) between a first positioning mode and a second positioning mode, wherein, in the first positioning mode, the trackable device is configured to wirelessly transmit to a locator device at least one data packet including a data portion for enabling determination of a bearing between the trackable device and the locator device in order to determine a position of the trackable device with a first resolution and, in the second positioning mode, the trackable device is configured to wirelessly transmit to the locator device at least one data packet which does not include the data portion for enabling determination of the bearing between the trackable device and the locator device, wherein the second positioning mode enables determination of the position of the trackable device with a second resolution, wherein the second resolution is lower than the first resolution.
A process for preparing a repellant surface, the process comprising applying a coating composition onto a smooth surface of a substrate being hydrophilic with hydroxyl groups thereon to form a chemical layer on the surface; and applying a lubricant to the chemical layer, wherein the coating composition includes: (i) a silane or siloxane or both, (ii) a solvent and (iii) an acid catalyst, wherein the lubricant is a perfluorinated oil or a silicone oil or a mineral oil or a plant oil or any combination thereof.
multi-part ventilation grille holder with a holding section (H) to which a mobile terminal device can be attached and with a fastening section (B) by means of which the ventilation grille holder can be fastened detachably to or between ventilation grille bars of a ventilation grille, characterized in that the fastening section (B) comprises a fastening housing rotatable about an axis of rotation (R) and having a housing wall in which an insert driver with at least one clamping pin and a fixing clamp holder with at least one fixing pin and at least one through-hole in the fastening housing , enclosed by the housing wall , can be mounted so as to be operatively connected thereto, in that the at least one clamping pin completely crosses the at least one through-hole of the fixing clamp holder , so that upon a rotational movement of the fastening housing relative to the fixing clamp mounting about the axis of rotation (R) and movement of a rotary pin with a rotary pin axis (S) laterally spaced from the axis of rotation (R), a linear movement of the insert driver perpendicular to the axis of rotation (R) can be achieved by driving the insert driver through the rotary pin and a pin receptacle and thus a linear movement of the at least one clamping pin relative to the at least one fixing pin can be generated within the at least one through hole .
An optical transmitter (100; 200; 300; 500), comprising: an encoding means (110; 310; 510) for encoding digital signals to be transmitted under a predetermined transmission condition over an optical carrier wave by using one of a plurality of encoding methods; an encoding control means for selecting a predetermined encoding method corresponding to the predetermined transmission condition from among the plurality of encoding methods and causing the encoding means (110; 310; 510) to operate in accordance with the predetermined encoding method; a mapping means (130; 230; 530) for mapping output bit signals output from the encoding means to modulation symbols; and an optical modulation means for modulating the optical carrier wave based on symbol signals output from the mapping means. an encoding means (110; 310; 510) for encoding digital signals to be transmitted under a predetermined transmission condition over an optical carrier wave by using one of a plurality of encoding methods; an encoding control means for selecting a predetermined encoding method corresponding to the predetermined transmission condition from among the plurality of encoding methods and causing the encoding means (110; 310; 510) to operate in accordance with the predetermined encoding method; a mapping means (130; 230; 530) for mapping output bit signals output from the encoding means to modulation symbols; and an optical modulation means for modulating the optical carrier wave based on symbol signals output from the mapping means.
A nucleic acid regulatory element for enhancing endothelial cell-specific gene expression comprising the sequence of SEQ ID NO:22, wherein said regulatory element has a maximal length of 1000 nucleotides.
A razor cartridge comprising: a housing having a leading longitudinal side and a trailing longitudinal side ; one or more shaving blades disposed between the leading longitudinal side and the trailing longitudinal side ; and characterised by : a hygromorphic layer disposed between the leading longitudinal side and the trailing longitudinal side and adjacent to the one or more shaving blades a housing having a leading longitudinal side and a trailing longitudinal side ; one or more shaving blades disposed between the leading longitudinal side and the trailing longitudinal side ; and characterised by : a hygromorphic layer disposed between the leading longitudinal side and the trailing longitudinal side and adjacent to the one or more shaving blades
A redundant, load-sharing system to distribute electrical power to components in a vehicle , the system comprising: a plurality of components ; a plurality of power sources ; at least two power distribution buses , wherein each of the power distribution buses is electrically coupled to one or more of the power sources ; a plurality of switching devices , wherein each of the switching devices is configured to electrically couple and/or decouple one or more of the components to at least one of the power distribution buses ; and at least two channel controllers , wherein each of the channel controllers is configured to receive power from at least one of the power distribution buses and provide power allocation instructions to one or more of the switching devices ; a means for in-situ noise measurement, configured to measure the electric noise generated by each of the components and power sources in-situ during the operation of the vehicle , and wherein the switching devices isolate the components and the power sources that are determined to be electrically noisy from the components and the power sources that are sensitive to electric noise. a plurality of components ; a plurality of power sources ; at least two power distribution buses , wherein each of the power distribution buses is electrically coupled to one or more of the power sources ; a plurality of switching devices , wherein each of the switching devices is configured to electrically couple and/or decouple one or more of the components to at least one of the power distribution buses ; and at least two channel controllers , wherein each of the channel controllers is configured to receive power from at least one of the power distribution buses and provide power allocation instructions to one or more of the switching devices ; a means for in-situ noise measurement, configured to measure the electric noise generated by each of the components and power sources in-situ during the operation of the vehicle , and wherein the switching devices isolate the components and the power sources that are determined to be electrically noisy from the components and the power sources that are sensitive to electric noise.
Method to operate an annular combustor (CB) of a gas turbine (GT), wherein the gas turbine (GT) comprises a compressor (CO) said combustors (CB) and the turbine (TB) and at least two temperature measurements (TN1, ..., TNX, ..., TNY, ..., TNN) downstream said combustor (CB) to measure a respective combustion gas (CG) temperature, wherein said compressor (CO) delivers an oxygen containing gas (OCG) to said combustor (CB), wherein said combustor (CB) comprises at least two burners (B1, ..., B2) and one main combustion chamber (MCC) of annular shape downstream said burners (B1, ..., B2), wherein at least two of said burners (B1, ..., B2) join commonly into said main combustion chamber (MCC) to generate said combustion gas (CG) from burning fuel (F) and said oxygen containing gas (OCG), wherein one extraction (EX) is provided to tap off at least a portion of the oxygen containing gas (OSG) downstream said compressor (CO) and upstream of said combustors (CB), and wherein said extraction (EX) is part of a bypass, wherein said bypass bypasses said combustors (CB) and joins into a hot gas path downstream said combustors (CB), wherein said extraction (EX) comprises a valve (BV) to control the portion of the oxygen containing gas (OSG) to be tapped off, said method comprising the steps of: - monitoring the combustion gas temperature by said temperature measurements (TN1, ..., TNX, ..., TNY, ..., TNN) at different locations at respectively equal axial flow-distances to said burners of the combustion gas (CG), - comparing at least two temperatures of said temperature measurements (TN1, ..., TNX, ..., TNY, ..., TNN), - opening said valve (BV) or increasing the opening position of said valve (BV) when said comparison reveals that a difference between said at least two temperatures of said temperature measurements exceeds a temperature difference threshold ΔT1. - monitoring the combustion gas temperature by said temperature measurements (TN1, ..., TNX, ..., TNY, ..., TNN) at different locations at respectively equal axial flow-distances to said burners of the combustion gas (CG), - comparing at least two temperatures of said temperature measurements (TN1, ..., TNX, ..., TNY, ..., TNN), - opening said valve (BV) or increasing the opening position of said valve (BV) when said comparison reveals that a difference between said at least two temperatures of said temperature measurements exceeds a temperature difference threshold ΔT1.
Printed circuit comprising a substrate , and a conductive circuit on at least part of a first face of the substrate , the conductive circuit comprising a catalytic ink layer printed on part of the first face of the substrate , a first metal layer deposited on the catalytic ink layer , and a second metal layer deposited on the first metal layer , with the first metal layer being a nickel layer deposited on the catalytic ink layer by means of an electroless metal plating process, and with the second metal layer being a copper layer deposited on the first metal layer by means of a galvanic metal plating process, characterized in that the printed circuit comprises an additional conductive circuit on at least part of a second face of the substrate , the additional conductive circuit comprising an additional catalytic ink layer printed by means of the catalytic ink printing process, a first additional metal layer deposited on the additional catalytic ink layer with the first additional metal layer being a nickel layer deposited by means of the electroless metal plating process, and a second additional metal layer deposited on the first additional metal layer with the second additional metal layer being a copper layer deposited by means of the galvanic metal plating process, the substrate comprises a through opening communicating the first face of the substrate with the second face of the substrate , and the printed circuit comprises a catalytic ink connection layer (3") printed on the contour of the opening by means of the catalytic ink printing process, a nickel metal connecting layer (4") deposited by means of the electroless metal plating process on the catalytic ink connection layer (3") printed on the contour of the opening , and a copper metal connecting layer (5") deposited by means of the galvanic metal plating process on the nickel metal connecting layer (4"), such that the catalytic ink layer printed on the first face of the substrate and the additional catalytic ink layer printed on the second face of the substrate are electrically connected to one another through the catalytic ink connection layer (3"), with the first metal layer and the first additional metal layer being electrically connected to one another by means of the nickel metal connecting layer (4"), and with the second metal layer and the second additional metal layer being electrically connected to one another by means of the copper metal connecting layer (5").