mhurhangee/patent-ind-claim-en huggingface dataset:
A base station comprising: a receiver configured to receive, for a Narrow Band-Internet of Things, NB-loT, repetitions of a data signal and repetitions of a demodulation reference signal, DMRS in a plurality of subframes; and circuitry configured to demodulate the data signal by using the DMRS, characterized in that the repetitions of DMRS are mapped to consecutive symbols and are mapped to symbols other than symbols corresponding to an SRS resource candidate regardless of the number of repetitions, wherein a SRS resource candidate is a candidate for a resource to which a sounding reference signal, SRS, to be used to measure an uplink received signal quality is to be mapped. a receiver configured to receive, for a Narrow Band-Internet of Things, NB-loT, repetitions of a data signal and repetitions of a demodulation reference signal, DMRS in a plurality of subframes; and circuitry configured to demodulate the data signal by using the DMRS, characterized in that the repetitions of DMRS are mapped to consecutive symbols and are mapped to symbols other than symbols corresponding to an SRS resource candidate regardless of the number of repetitions, wherein a SRS resource candidate is a candidate for a resource to which a sounding reference signal, SRS, to be used to measure an uplink received signal quality is to be mapped.
A ski or snowboard comprising a multi-layered gliding board body defining a longitudinal axis extending in the direction of its length , the gliding board body comprising - at least one strength-relevant upper chord - at least one strength-relevant lower chord , - at least one core element arranged therebetween, - at least one cover layer of a plastic material forming the upper side of the gliding board body , and - at least one running surface covering forming the underside of the gliding board body , wherein at least one depression is embossed in a surface of the at least one cover layer facing away from the core element , and that at least two small plates arranged at a distance from one another in the direction of the longitudinal axis are glued into the at least one depression , which small plates are formed from a material which has a higher elastic modulus than the plastic material of the cover layer , characterized in that a distance between small plates directly following one another in the longitudinal direction of the gliding board body is between 1 mm and 20 mm, in particular between 2 mm and 10 mm, preferably between 3 mm and 5 mm. - at least one strength-relevant upper chord - at least one strength-relevant lower chord , - at least one core element arranged therebetween, - at least one cover layer of a plastic material forming the upper side of the gliding board body , and - at least one running surface covering forming the underside of the gliding board body , wherein at least one depression is embossed in a surface of the at least one cover layer facing away from the core element , and that at least two small plates arranged at a distance from one another in the direction of the longitudinal axis are glued into the at least one depression , which small plates are formed from a material which has a higher elastic modulus than the plastic material of the cover layer , characterized in that a distance between small plates directly following one another in the longitudinal direction of the gliding board body is between 1 mm and 20 mm, in particular between 2 mm and 10 mm, preferably between 3 mm and 5 mm.
Method for monitoring at least one electronic object , characterized in that it comprises a method for instrumenting a container , forming a recipient for an assortment of materials configured to mix the assortment of materials, capable of being set moving in a preset coordinate system, wherein it comprises the following steps: - placing a plurality of communicating elements in the container on an internal surface of the container and determining a position of each of the communicating elements on the internal surface of the container , the internal surface of the container delimiting an internal volume having a known geometry, and the step of placing the communicating elements comprising the following steps; - randomly placing the communicating elements in the container , preferably while moving, - fastening the communicating elements on the internal surface of the container, - determining, by way of data delivered by the communicating elements and of the known geometry, the position of the various communicating elements relative to the internal surface of the container . - tracking the location of each communicating element over time in the preset coordinate system. and characterized in that it comprises the following complementary steps; - introducing at least one electronic object into the container , - tracking a behaviour of the at least one electronic object in the container , especially while the container is moving in the preset coordinate system, regarding an interaction of the at least one electronic object with each communicating element . - placing a plurality of communicating elements in the container on an internal surface of the container and determining a position of each of the communicating elements on the internal surface of the container , the internal surface of the container delimiting an internal volume having a known geometry, and the step of placing the communicating elements comprising the following steps; - randomly placing the communicating elements in the container , preferably while moving, - fastening the communicating elements on the internal surface of the container, - determining, by way of data delivered by the communicating elements and of the known geometry, the position of the various communicating elements relative to the internal surface of the container . - randomly placing the communicating elements in the container , preferably while moving, - fastening the communicating elements on the internal surface of the container, - determining, by way of data delivered by the communicating elements and of the known geometry, the position of the various communicating elements relative to the internal surface of the container . - tracking the location of each communicating element over time in the preset coordinate system. - introducing at least one electronic object into the container , - tracking a behaviour of the at least one electronic object in the container , especially while the container is moving in the preset coordinate system, regarding an interaction of the at least one electronic object with each communicating element .
Method for making sand cores, comprising a generating step in which at least one core is generated with the desired shape in an inner space (1.0) demarcated by a job box , by means of 3D manufacturing in which a plurality of layers of a granular material and of an additive that solidifies the granular material are applied in an alternating and selective manner on a platform (1.1) of the job box , and a hardening step in which the core generated in the generating step is hardened, the generating step is implemented with the job box in a first station of an installation and the hardening step is implemented in a second station of said installation , the job box being conveyed to the second station where said hardening step is implemented, after the generating step is performed in the first station , characterised in that in the hardening step, in order to harden the core generated in the generating step microwaves and a drying stream are applied in the inner space (1.0) of the job box where said core is arranged, and in said hardening step, before applying microwaves and the drying stream, the inner space (1.0) of the job box is closed in a leak-tight manner in the upper part thereof, with a lid configured for that purpose, the vertical movement of the lid toward the job box or of the job box toward the lid being caused in order to establish the leak-tight closure, the drying stream being generated by applying suction on the inner space (1.0) of the job box , from the outside of said inner space (1.0) said suction being applied through a suction plate which is arranged between the lid and the material present in the inner space (1.0) of the job box , and with said suction plate in contact with said material.
An optical reflex sight for mounting on a firearm comprising: a base defining a barrel end and a rear end; a frame extending upwardly from the base at the barrel end and defining an opening ; an optical element received in the opening; and an illumination device operable to display an aiming point on the optical element to generate said aiming point; wherein the frame comprises upstanding side walls and a top wall comprising an upper surface , a lower surface that contacts the optical element, characterized in that the optical reflex sight comprises one or more cavities within the top wall. a base defining a barrel end and a rear end; a frame extending upwardly from the base at the barrel end and defining an opening ; an optical element received in the opening; and an illumination device operable to display an aiming point on the optical element to generate said aiming point; wherein the frame comprises upstanding side walls and a top wall comprising an upper surface , a lower surface that contacts the optical element, characterized in that the optical reflex sight comprises one or more cavities within the top wall.
Drywall screwdriver having a housing , having a screw-in depth limiting element , having a transmission unit , having an output spindle , having a drive unit , and having a clutch unit , which is provided to couple a torque transmission of the transmission unit to the output spindle and/or decouple it therefrom, wherein a transmission element of the transmission unit is fixedly connected to at least one clutch element of the clutch unit , wherein the transmission unit comprises at least one planetary transmission , characterized in that the clutch element comprises at least one entrainment element , which is formed in one piece with a planet carrier element of the planetary transmission .
An isoamylase comprising an amino acid mutation selected from the group consisting of A554P/A580T, M277I/A580T, D268A/A580T, A549P/A580T, A554P/M277I/A580T, A554P/D268A/A580T, A554P/A549P/A580T, M277I/D268A/A580T, D268A/A549P/A580T, A554P/M277I/D268A/A549P, A554P/D268A/A549P/A580T, A554P/M277I/A549P/A580T, A554P/M277I/D268A/A580T, M277I/D268A/A549P/A580T and A554P/M277I/D268A/A549P/A580T in (i) an isoamylase consisting of an amino acid sequence represented by SEQ ID No: 1 or (ii) an isoamylase consisting of the amino acid sequence represented by SEQ ID No: 1 and having deletion, substitution or insertion of one to several amino acid residues and having an amino acid sequence identity with the amino acid sequence represented by SEQ ID No: 1 of 80% or more, wherein the isoamylase comprising the amino acid mutation selected from the group consisting of A554P/A580T, M277I/A580T, D268A/A580T, A549P/A580T, A554P/M277I/A580T, A554P/D268A/A580T, A554P/A549P/A580T, M277I/D268A/A580T, D268A/A549P/A580T, A554P/M277I/D268A/A549P, A554P/D268A/A549P/A580T, A554P/M277I/A549P/A580T, A554P/M277I/D268A/A580T, M277I/D268A/A549P/A580T and A554P/M277I/D268A/A549P/A580T expresses improved heat resistance compared to the isoamylase having the amino acid sequence represented by SEQ ID No: 1. (i) an isoamylase consisting of an amino acid sequence represented by SEQ ID No: 1 or (ii) an isoamylase consisting of the amino acid sequence represented by SEQ ID No: 1 and having deletion, substitution or insertion of one to several amino acid residues and having an amino acid sequence identity with the amino acid sequence represented by SEQ ID No: 1 of 80% or more,
A method, carried out by at least one apparatus, the method comprising: - checking whether a supply of a cleaning agent is likely to be used up, wherein the check is based, at least in part, on quantity information which is representative of an amount of the cleaning agent in a user's supply and on consumption information which is indicative of the user's likely consumption behavior with respect to the cleaning agent, wherein the consumption information specifies what amount of the cleaning agent is consumed in what time period, at least in part, on the basis of a previous time curve of consumption of the cleaning agent, and wherein the quantity information is information which is representative of an amount of the cleaning agent removed from the supply; - ordering or triggering ordering of a supply of the cleaning agent if the result of the check is that a supply of the cleaning agent is likely to be used up. - checking whether a supply of a cleaning agent is likely to be used up, wherein the check is based, at least in part, on quantity information which is representative of an amount of the cleaning agent in a user's supply and on consumption information which is indicative of the user's likely consumption behavior with respect to the cleaning agent, wherein the consumption information specifies what amount of the cleaning agent is consumed in what time period, at least in part, on the basis of a previous time curve of consumption of the cleaning agent, and wherein the quantity information is information which is representative of an amount of the cleaning agent removed from the supply; - ordering or triggering ordering of a supply of the cleaning agent if the result of the check is that a supply of the cleaning agent is likely to be used up.
A method for channel state reporting by a terminal in a wireless communication system, the method being performed by the terminal and comprising: receiving configuration information for a plurality of aperiodic channel state information reference signal, CSI-RS, resources; receiving an aperiodic CSI request as downlink control information, DCI; and reporting aperiodic CSI based on an aperiodic CSI-RS resource of the plurality of aperiodic CSI-RS resources, wherein the aperiodic CSI-RS resource is determined among the plurality of aperiodic CSI-RS resources based on the aperiodic CSI request, wherein a CSI-RS on the aperiodic CSI-RS resource is received after a configured length of time from when the aperiodic CSI request is received, wherein the configured length of time is configured through Radio Resource Control (RRC) signaling, and wherein the aperiodic CSI request does not include information on the configured length of time. receiving configuration information for a plurality of aperiodic channel state information reference signal, CSI-RS, resources; receiving an aperiodic CSI request as downlink control information, DCI; and reporting aperiodic CSI based on an aperiodic CSI-RS resource of the plurality of aperiodic CSI-RS resources, wherein the aperiodic CSI-RS resource is determined among the plurality of aperiodic CSI-RS resources based on the aperiodic CSI request, wherein a CSI-RS on the aperiodic CSI-RS resource is received after a configured length of time from when the aperiodic CSI request is received, wherein the configured length of time is configured through Radio Resource Control (RRC) signaling, and wherein the aperiodic CSI request does not include information on the configured length of time.
An intervertebral stabilization system , comprising: a tissue-engineered intervertebral disc configured to fit within an intervertebral space between a first vertebra and a second vertebra , wherein the tissue-engineered intervertebral disc comprises: a nucleus pulposus structure comprising a first population of cells; an annulus fibrosis structure surrounding and in contact with the nucleus pulposus structure; a bioresorbable plate to secure the tissue-engineered intervertebral disc between the first vertebra and the second vertebra, wherein the bioresorbable plate is configured to couple with the first vertebra and the second vertebra; and characterized by a plurality of bioresorbable screws to secure the bioresorbable plate with the first vertebra and the second vertebra, wherein the plurality of bioresorbable screws are configured to degrade at a slower rate or over a longer period of time relative to the bioresorbable plate. a nucleus pulposus structure comprising a first population of cells; an annulus fibrosis structure surrounding and in contact with the nucleus pulposus structure; a bioresorbable plate to secure the tissue-engineered intervertebral disc between the first vertebra and the second vertebra, wherein the bioresorbable plate is configured to couple with the first vertebra and the second vertebra; and characterized by a plurality of bioresorbable screws to secure the bioresorbable plate with the first vertebra and the second vertebra, wherein the plurality of bioresorbable screws are configured to degrade at a slower rate or over a longer period of time relative to the bioresorbable plate.
A microphone assembly to be worn at a user's chest, comprising: at least three microphones for capturing audio signals from the user's voice, the microphones defining a microphone plane; an acceleration sensor for sensing gravitational acceleration in at least two orthogonal dimensions so as to determine a direction of gravity ( G xy ); a beamformer unit for processing the captured audio signals in a manner so as to create a plurality of N acoustic beams (1a-6a, 1b-6b) having directions spread across the microphone plane, a unit for selecting a subgroup of M acoustic beams from the N acoustic beams, wherein the M acoustic beams are those of the N acoustic beams whose direction is closest to the direction antiparallel to the direction of gravity determined from the gravitational acceleration sensed by the acceleration sensor; characterised by an audio signal processing unit having M independent channels , one for each of the M acoustic beams of the subgroup, for producing an output audio signal for each of the M acoustic beams; a unit for estimating the speech quality of the audio signal in each of the channels; and an output unit for selecting the signal of the channel with the highest estimated speech quality as the output signal of the microphone assembly . at least three microphones for capturing audio signals from the user's voice, the microphones defining a microphone plane; an acceleration sensor for sensing gravitational acceleration in at least two orthogonal dimensions so as to determine a direction of gravity ( G xy ); a beamformer unit for processing the captured audio signals in a manner so as to create a plurality of N acoustic beams (1a-6a, 1b-6b) having directions spread across the microphone plane, a unit for selecting a subgroup of M acoustic beams from the N acoustic beams, wherein the M acoustic beams are those of the N acoustic beams whose direction is closest to the direction antiparallel to the direction of gravity determined from the gravitational acceleration sensed by the acceleration sensor; characterised by an audio signal processing unit having M independent channels , one for each of the M acoustic beams of the subgroup, for producing an output audio signal for each of the M acoustic beams; a unit for estimating the speech quality of the audio signal in each of the channels; and an output unit for selecting the signal of the channel with the highest estimated speech quality as the output signal of the microphone assembly .
A method for startup of a catalytic oxidation unit for an aircraft using catalytic oxidation comprising: flowing air from an air source into the catalytic oxidation unit; recycling air from an outlet of the catalytic oxidation unit to an inlet of the catalytic oxidation unit through a recycle duct; and flowing a fuel from a fuel source into the catalytic oxidation unit, wherein flowing the fuel initiates a catalytic reaction; characterized in that air is recycled to establish an air flow through the catalytic oxidation unit and wherein flowing fuel into the catalytic oxidation unit occurs after the air flow has been established; wherein a ratio of the air to the fuel entering the catalytic oxidation unit is at a relative stoichiometric ratio of oxygen to fuel between 1 and 7; or wherein a ratio of the air to the fuel entering the catalytic oxidation unit is at a relative stoichiometric ratio of oxygen to fuel between 7 and 21. flowing air from an air source into the catalytic oxidation unit; recycling air from an outlet of the catalytic oxidation unit to an inlet of the catalytic oxidation unit through a recycle duct; and flowing a fuel from a fuel source into the catalytic oxidation unit, wherein flowing the fuel initiates a catalytic reaction; characterized in that air is recycled to establish an air flow through the catalytic oxidation unit and wherein flowing fuel into the catalytic oxidation unit occurs after the air flow has been established;
A humanized antibody that specifically binds to human Tau(pS422), wherein the antibody comprises a) in the heavy chain variable domain the HVRs of SEQ ID NO: 08, 18 and 10, and in the light chain variable domain the HVRs of SEQ ID NO: 13, 14 and 15, or b) in the heavy chain variable domain the HVRs of SEQ ID NO: 08, 09 and 10, and in the light chain variable domain the HVRs of SEQ ID NO: 12, 05 and 15, or c) in the heavy chain variable domain the HVRs of SEQ ID NO: 08, 09 and 10, and in the light chain variable domain the HVRs of SEQ ID NO: 13, 14 and 15. a) in the heavy chain variable domain the HVRs of SEQ ID NO: 08, 18 and 10, and in the light chain variable domain the HVRs of SEQ ID NO: 13, 14 and 15, or b) in the heavy chain variable domain the HVRs of SEQ ID NO: 08, 09 and 10, and in the light chain variable domain the HVRs of SEQ ID NO: 12, 05 and 15, or c) in the heavy chain variable domain the HVRs of SEQ ID NO: 08, 09 and 10, and in the light chain variable domain the HVRs of SEQ ID NO: 13, 14 and 15.
A method for producing an aromatic nitrile compound, the method comprising a dehydration reaction, wherein an aromatic amide compound is dehydrated, the method having a contact step for bringing the aromatic amide compound into contact with a catalyst in a gas phase during the dehydration reaction, wherein the aromatic amide compound includes at least a heteroaryl amide compound and the aromatic nitrile compound includes at least a heteroaryl nitrile compound; wherein the heteroaryl amide compound includes 2-picolinamide and the heteroaryl nitrile compound includes 2-cyanopyridine and wherein the catalyst includes an alkali metal. the method having a contact step for bringing the aromatic amide compound into contact with a catalyst in a gas phase during the dehydration reaction, wherein the aromatic amide compound includes at least a heteroaryl amide compound and the aromatic nitrile compound includes at least a heteroaryl nitrile compound; wherein the heteroaryl amide compound includes 2-picolinamide and the heteroaryl nitrile compound includes 2-cyanopyridine and wherein the catalyst includes an alkali metal.
A process of producing an electrospun fibrous mat, said process comprising the steps of (a) preparing an electrospinning ink comprising metal supported on a carrier, an ionomer, an electrospinning polymer and a solvent by mixing, wherein the duration of mixing is at least 1 hour; and (b) electrospinning in electrospinning equipment said electrospinning ink to obtain the electrospun fibrous mat, wherein step (b) is performed by nozzle-free electrospinning. (a) preparing an electrospinning ink comprising metal supported on a carrier, an ionomer, an electrospinning polymer and a solvent by mixing, wherein the duration of mixing is at least 1 hour; and (b) electrospinning in electrospinning equipment said electrospinning ink to obtain the electrospun fibrous mat,
A compound or pharmaceutically acceptable salt thereof, wherein, the compound is selected from the following compounds: