mhurhangee/patent-ind-claim-en huggingface dataset:
A formed rotary dresser comprising regions in which diamond abrasive grains , which include a plurality of octahedral diamond abrasive grains and diamond abrasive grains having a different shape from the octahedral diamond abrasive grains , are scattered and arranged on an outer circumferential surface thereof to be brought into contact with a grindstone to be dressed, and slit regions (SL) in which the abrasive grains are not arranged on the outer circumferential surface thereof, characterized in that the slit regions (SL) are provided to be inclined with respect to a rotational axis (Ax), and that the plurality of octahedral diamond abrasive grains are arranged only in specific regions along downstream edges of the slit regions (SL) in a rotating direction such that one face of each octahedron is parallel with the outer circumferential surface.
Frame for construction element, the frame comprising a honeycomb structure that extends longitudinally along a longitudinal axis (X), said structure comprising cells of a polygonal cross-section having an axis (Y) that is orthogonal to the longitudinal axis as the normal, the structure comprising at least two rows of cells that are separated from one another by a central arm that extends in parallel with the longitudinal axis (X) of said structure, the rows being bordered on the outside by a first longitudinal arm and a second longitudinal arm of the structure , the first arm and the second arm both extending in parallel with the longitudinal axis (X), the frame being charaterised in that it comprises one or more reinforcing elements that are fully integrated into the structure, each reinforcing element being shaped into a bar arranged inside the structure, the frame comprising a first bar that extends in the first arm, a second bar that extends in the second arm and a central bar that extends in the central arm, the different bars being integrated into the arms of the structure.
Current measuring device for detecting a current in an electric line , having a housing , a fastening device which is arranged on the housing and is intended to fasten the housing to a supporting rail , and at least one magnetic field sensor , wherein the housing has a first housing part and a second housing part which together form an accommodating device for accommodating an electric line between the housing parts , wherein the housing parts can be separated from one another in order to place an electric line onto the current measuring device and can be placed onto one another in order to accommodate the electric line in the accommodating device between the housing parts , wherein the at least one magnetic field sensor is designed to detect a magnetic field on the electric line accommodated in the accommodating device , characterized by a calibration assembly having a test conductor to which a test current can be applied and which is arranged in the housing with respect to the at least one magnetic field sensor in such a manner that an evaluation of a detected magnetic field can be calibrated on the basis of a test current.
A nucleic acid release agent, comprising Tris-HCl, sodium chloride, potassium chloride, Tween 20, Triton X-100, ethyl phenyl polyethylene glycol and a strong base; wherein Tris-HCl has a molar concentration ranging from 0.5 mM to 500 mM, sodium chloride has a molar concentration from 20 mM to 500 mM, potassium chloride has a mass concentration ranging from 5mg/mL to 8mg/mL, Tween 20 has a volume percentage ranging from 0.1% to 2%, Triton X-100 has a volume percentage ranging from 0.1% to 3%, ethyl phenyl polyethylene glycol has a volume percentage ranging from 0.1% to 3%, and the strong base has a mass concentration ranging from 2 mg/mL to 50 mg/mL.
An electrodeposition method for producing a multilayer coating that comprises multiple nanoscale layers on a substrate for protecting the substrate from corrosion caused by oxidation, reduction, stress, dissolution, acid, base or sulfidation, the method comprising: (a) placing a substrate to be coated in an electrolyte containing metal ions, ceramic particles, polymer particles, or a combination thereof; (b) applying electric current and varying in time one or more of: the amplitude of the electric current, electrolyte temperature, electrolyte additive concentration, or electrolyte agitation, in order to produce multiple first and second nanoscale layers having a thickness from 0.5 to 10,000 nanometers that periodically vary in electrodeposited species or electrodeposited species microstructures, wherein variations in said nanoscale layers of said electrodeposited species or electrodeposited species microstructures result in galvanic interactions between the first nanoscale layers and the second nanoscale layers, wherein the first nanoscale layers have a first reactivity and the second nanoscale layers have a second reactivity that define the galvanic interactions between the first nanoscale layers and the second nanoscale layers; and (c) growing the multilayer coating under such conditions until the desired thickness of the multilayer coating on said substrate is achieved; wherein the electrodeposited species comprise an alloy of Ni and Co; and wherein one of the first or second nanoscale layers is more noble than the substrate and another of the first or second nanoscale layers is less noble than the substrate, or wherein the first and second nanoscale layers are both more noble than the substrate. (a) placing a substrate to be coated in an electrolyte containing metal ions, ceramic particles, polymer particles, or a combination thereof; (b) applying electric current and varying in time one or more of: the amplitude of the electric current, electrolyte temperature, electrolyte additive concentration, or electrolyte agitation, in order to produce multiple first and second nanoscale layers having a thickness from 0.5 to 10,000 nanometers that periodically vary in electrodeposited species or electrodeposited species microstructures, wherein variations in said nanoscale layers of said electrodeposited species or electrodeposited species microstructures result in galvanic interactions between the first nanoscale layers and the second nanoscale layers, wherein the first nanoscale layers have a first reactivity and the second nanoscale layers have a second reactivity that define the galvanic interactions between the first nanoscale layers and the second nanoscale layers; and (c) growing the multilayer coating under such conditions until the desired thickness of the multilayer coating on said substrate is achieved;
A process for producing an adherent coating on a resinous substrate, said process comprising the steps of; i) contacting surface of said resinous substrate with an adhesion promoting cleaning solution to clean said surface, said cleaning solution comprising at least one telechelic diol in a carrier liquid, the carrier liquid comprising one or more solvents wherein the solvent is selected from the group consisting of alkanes and cycloalkanes having from 5 to 20 carbon atoms, aromatics, ethers, ketones, and a combination thereof; ii) applying a layer of a coating composition on said cleaned surface of said substrate, iii) curing said layer of said coating composition into said adherent coating on said resinous substrate wherein the telechelic diol is a saturated hydrocarbon polymer containing 85 to 99 weight percent of hydrocarbon units containing less than 13 percent by weight of heteroatoms and the saturated hydrocarbon polymer has a number average molecular weight in the range from 1000 to 20,000 and having terminal hydroxyl groups. i) contacting surface of said resinous substrate with an adhesion promoting cleaning solution to clean said surface, said cleaning solution comprising at least one telechelic diol in a carrier liquid, the carrier liquid comprising one or more solvents wherein the solvent is selected from the group consisting of alkanes and cycloalkanes having from 5 to 20 carbon atoms, aromatics, ethers, ketones, and a combination thereof; ii) applying a layer of a coating composition on said cleaned surface of said substrate, iii) curing said layer of said coating composition into said adherent coating on said resinous substrate
A system, comprising: at least one computing device in a cloud provider network; and instructions executable in the at least one computing device, wherein when executed the instructions cause the at least one computing device to at least: receive a request from an organization to provision a radio-based private network, including a radio access network and an associated core network, to cover one or more buildings of the organization; determine an arrangement of a plurality of cells to cover the one or more buildings; automatically identify frequency spectrum for the plurality of cells via a spectrum reservation service; cause cell equipment to be preconfigured to implement the plurality of cells before shipping the cell equipment to the organization; and provision at least a portion of the associated core network for the organization in the cloud provider network. at least one computing device in a cloud provider network; and instructions executable in the at least one computing device, wherein when executed the instructions cause the at least one computing device to at least: receive a request from an organization to provision a radio-based private network, including a radio access network and an associated core network, to cover one or more buildings of the organization; determine an arrangement of a plurality of cells to cover the one or more buildings; automatically identify frequency spectrum for the plurality of cells via a spectrum reservation service; cause cell equipment to be preconfigured to implement the plurality of cells before shipping the cell equipment to the organization; and provision at least a portion of the associated core network for the organization in the cloud provider network. receive a request from an organization to provision a radio-based private network, including a radio access network and an associated core network, to cover one or more buildings of the organization; determine an arrangement of a plurality of cells to cover the one or more buildings; automatically identify frequency spectrum for the plurality of cells via a spectrum reservation service; cause cell equipment to be preconfigured to implement the plurality of cells before shipping the cell equipment to the organization; and provision at least a portion of the associated core network for the organization in the cloud provider network.
An assembly (1; 1') of a frame component (2; 2') and a bungee component (3; 3') adapted to convert a trampoline into a bungee trampoline, - which trampoline is of the kind having a sheet of fabric or canvas attached and distended to a trampoline frame having a perimeter and at least three trampoline legs (8; 8") distributed along the perimeter of the trampoline frame , - each trampoline leg (8; 8") has an elongated straight leg part , - the frame component (2; 2') comprises at least three frame poles , at least three brackets and a circumferential upper frame (16; 16'), and - each frame pole has an upper pole part with an upper pole end and a lower pole part with a lower pole end, - the lower pole part of the frame poles is adapted for mounting the assembly (1; 1') to an elongated straight leg part of the trampoline legs (8; 8") of the trampoline by means of the brackets so that the longitudinal axis of each frame pole is parallel and not coaxial with the longitudinal axis of the corresponding straight leg part of the trampoline , characterized in that - the circumferential upper frame (16; 16') is connected to and extending between the upper end of each frame pole , and - the corners of the upper frame (16; 16') are rounded. - which trampoline is of the kind having a sheet of fabric or canvas attached and distended to a trampoline frame having a perimeter and at least three trampoline legs (8; 8") distributed along the perimeter of the trampoline frame , - each trampoline leg (8; 8") has an elongated straight leg part , - the frame component (2; 2') comprises at least three frame poles , at least three brackets and a circumferential upper frame (16; 16'), and - each frame pole has an upper pole part with an upper pole end and a lower pole part with a lower pole end, - the lower pole part of the frame poles is adapted for mounting the assembly (1; 1') to an elongated straight leg part of the trampoline legs (8; 8") of the trampoline by means of the brackets so that the longitudinal axis of each frame pole is parallel and not coaxial with the longitudinal axis of the corresponding straight leg part of the trampoline , characterized in that - the circumferential upper frame (16; 16') is connected to and extending between the upper end of each frame pole , and - the corners of the upper frame (16; 16') are rounded.
A gas turbine engine component comprising: opposing walls providing an interior cooling passage , one of the walls has a turbulator with a hook provided as a cross section of the turbulator that is enclosed within the walls; wherein the hook includes a first portion extending from a surface of the one wall, and a second portion extending from the first portion longitudinally within the interior cooling passage ; and the first and second portions and the surface provide a pocket , the pocket configured to provide a cavitation zone; characterised in that the interior flow passage is configured to provide a flow direction F, and the second portion extends in a direction substantially parallel to the flow direction F. opposing walls providing an interior cooling passage , one of the walls has a turbulator with a hook provided as a cross section of the turbulator that is enclosed within the walls; wherein the hook includes a first portion extending from a surface of the one wall, and a second portion extending from the first portion longitudinally within the interior cooling passage ; and the first and second portions and the surface provide a pocket , the pocket configured to provide a cavitation zone; characterised in that the interior flow passage is configured to provide a flow direction F, and the second portion extends in a direction substantially parallel to the flow direction F.
A method for transmitting demodulation reference signals, DMRSs, and control information to a user equipment, UE, by a base station, the method comprising the steps of: transmitting first DMRSs in first physical resource blocks, PRBs for a common search space, the first PRBs are indicated based on information on a broadcast channel; transmitting second DMRSs in second PRBs for a UE-specific search space, the second PRBS are indicated based on a higher layer signaling; transmitting a first downlink control information, DCI, format on a first control channel in the first PRBs; and transmitting a second DCI format on a second control channel in the second PRBs, wherein the first PRBs and the second PRBs are not overlapping, and wherein the first DCI format includes first cyclic redundancy check, CRC, bits scrambled with a first radio network temporary identifier, RNTI, and wherein the second DCI format includes second CRC bits scrambled with a second RNTI, and wherein the first RNTI is one of a paging RNTI, a random access RNTI, a system information RNTI, a cell RNTI, and a semi-persistent scheduling, SPS, RNTI, and wherein the second RNTI is a cell RNTI or a SPS RNTI, and wherein the first DMRS is scrambled by a sequence determined based on a physical identity of the base station, and wherein the second DMRS is scrambled by a sequence determined based on the higher layer signaling. transmitting first DMRSs in first physical resource blocks, PRBs for a common search space, the first PRBs are indicated based on information on a broadcast channel; transmitting second DMRSs in second PRBs for a UE-specific search space, the second PRBS are indicated based on a higher layer signaling; transmitting a first downlink control information, DCI, format on a first control channel in the first PRBs; and transmitting a second DCI format on a second control channel in the second PRBs, wherein the first PRBs and the second PRBs are not overlapping, and wherein the first DCI format includes first cyclic redundancy check, CRC, bits scrambled with a first radio network temporary identifier, RNTI, and wherein the second DCI format includes second CRC bits scrambled with a second RNTI, and wherein the first RNTI is one of a paging RNTI, a random access RNTI, a system information RNTI, a cell RNTI, and a semi-persistent scheduling, SPS, RNTI, and wherein the second RNTI is a cell RNTI or a SPS RNTI, and wherein the first DMRS is scrambled by a sequence determined based on a physical identity of the base station, and wherein the second DMRS is scrambled by a sequence determined based on the higher layer signaling.
Electric bicycle having a remote control unit for the display unit of the electric bicycle , wherein the remote control unit is arranged in the region of a handlebar grip at a distance from the display unit and comprises assistance selection buttons for selecting the assistance level, a rocker switch for gear selection and at least one input device for menu navigation and selection of menu items that are displayed on the display unit , characterised in that , when viewed in the direction of the handlebar grip axis, the input device , the assistance selection buttons and the rocker switch run along a convexly curved common line , the curvature of which is ergonomically adapted to the range of movement of the rider's thumb, and in that the assistance selection buttons are arranged at an angle to one another and form a concave section for ergonomic operation by the thumb of a rider.
Method for sensing travel by means of a travel-sensing arrangement for a brake system, wherein the travel-sensing arrangement has a first magnetic angle sensor , and the following step is carried out: - determining a first field strength in a first direction and determining a second field strength in a second direction by means of the first angle sensor , characterized in that the travel-sensing arrangement has a second magnetic angle sensor which is arranged at a predetermined distance from the first angle sensor , and the following step is carried out: - determining a first field strength in a first direction and determining a second field strength in a second direction by means of the first angle sensor . - determining a first field strength in a first direction and determining a second field strength in a second direction by means of the first angle sensor , characterized in that the travel-sensing arrangement has a second magnetic angle sensor which is arranged at a predetermined distance from the first angle sensor , and the following step is carried out: - determining a first field strength in a first direction and determining a second field strength in a second direction by means of the first angle sensor . - determining a first field strength in a first direction and determining a second field strength in a second direction by means of the first angle sensor .
Calibration system for calibrating a number of receive signal paths, each comprising a receiver , of an antenna system , the calibration system comprising: a reference signal generator that is configured to generate a reference signal , a reference beamforming unit that is coupled to the reference signal generator and that is configured to duplicate the reference signal into a calibration signal for every one of the receivers (151, 153 155, 251, 253, 255) and to apply a beamforming with predetermined beamforming weights to the calibration signals and to provide each one of the receivers with the respectively beamformed calibration signal , and an estimation unit that is coupled to respective output interfaces of the receivers and that is configured to determine amplitude deviations and/or phase deviations of the receivers (151, 153, 155, 251 253, 255) based on output signals provided by the receivers via the respective output interfaces, characterised in that the reference beamforming unit is configured to select the beamforming weights such that the calibration signals cancel out at a receive beamformer of the antenna system when the receive beamformer is configured to apply beamforming weights to the output signals of the receivers that are designed to maximize the signal strength at boresight , and the calibration system is configured to only perform the calibration when the beamformer uses beamforming weights in boresight or in a predefined region around boresight. a reference signal generator that is configured to generate a reference signal , a reference beamforming unit that is coupled to the reference signal generator and that is configured to duplicate the reference signal into a calibration signal for every one of the receivers (151, 153 155, 251, 253, 255) and to apply a beamforming with predetermined beamforming weights to the calibration signals and to provide each one of the receivers with the respectively beamformed calibration signal , and an estimation unit that is coupled to respective output interfaces of the receivers and that is configured to determine amplitude deviations and/or phase deviations of the receivers (151, 153, 155, 251 253, 255) based on output signals provided by the receivers via the respective output interfaces, characterised in that the reference beamforming unit is configured to select the beamforming weights such that the calibration signals cancel out at a receive beamformer of the antenna system when the receive beamformer is configured to apply beamforming weights to the output signals of the receivers that are designed to maximize the signal strength at boresight , and the calibration system is configured to only perform the calibration when the beamformer uses beamforming weights in boresight or in a predefined region around boresight.
A method of transmitting data, by a terminal , in a mobile communication system, the method comprising the steps of: receiving , by the terminal, first control information including a first maximum retransmission limit, MRL, value from a base station during a setup of a connection between the terminal and the base station; receiving , by the terminal, second control information including a second MRL and persistent resource information from the base station after the setup of the connection; transmitting , by the terminal, first data based on the first MRL value through a dynamic resource; and transmitting , by the terminal, second data based on the second MRL value through a persistent resource indicated by the persistent resource information. receiving , by the terminal, first control information including a first maximum retransmission limit, MRL, value from a base station during a setup of a connection between the terminal and the base station; receiving , by the terminal, second control information including a second MRL and persistent resource information from the base station after the setup of the connection; transmitting , by the terminal, first data based on the first MRL value through a dynamic resource; and transmitting , by the terminal, second data based on the second MRL value through a persistent resource indicated by the persistent resource information.