mhurhangee/patent-ind-claim-en huggingface dataset:
A precision time transfer method, in a first node that communicates with a second node , to determine a difference in time between the first node and the second node , the precision time transfer method comprising: receiving a departure time, T D-A , from the second node , wherein the departure time, T D-A , is determined by the second node based on detecting a timing marker in a Forward Error Correction FEC frame ; determining an arrival time, T A-B , based on detecting the timing marker in the FEC frame ; and determining, by the first node, a time difference based on the departure time and the arrival time; wherein the timing marker is detected subsequent to FEC encoding in a transmitter of the second node and prior to FEC decoding in a receiver of the first node . receiving a departure time, T D-A , from the second node , wherein the departure time, T D-A , is determined by the second node based on detecting a timing marker in a Forward Error Correction FEC frame ; determining an arrival time, T A-B , based on detecting the timing marker in the FEC frame ; and determining, by the first node, a time difference based on the departure time and the arrival time; wherein the timing marker is detected subsequent to FEC encoding in a transmitter of the second node and prior to FEC decoding in a receiver of the first node .
A method for determining a deviation of a spatial orientation of a beam axis (S) of a beam processing machine from a spatial nominal orientation (S0) of the beam axis (S), the beam processing machine having an axis of rotation (B, C) to be calibrated and a measuring device, the method comprising the following step: cutting contour sections (KA1, KB2) with a processing beam into a test workpiece , characterized in that the contour sections (KA1, KB2) are cut from two sides into a test workpiece , wherein the contour sections (KA1, KB2) extend parallel to a nominal orientation of the rotation axis (B, C) to be calibrated, and that the method further comprises the following steps detecting the contour sections (KA1, KA2) with the measuring device from one side of the test workpiece to determine the spatial position of the contour sections (KA1, KB1), and determining the deviation of the spatial orientation of the beam axis (S) of the beam processing machine from the spatial nominal orientation (S0) based on the spatial positions of the contour sections (KA1, KB1) in comparison with nominal position values assigned to a cutting during the nominal orientation. cutting contour sections (KA1, KB2) with a processing beam into a test workpiece , characterized in that the contour sections (KA1, KB2) are cut from two sides into a test workpiece , wherein the contour sections (KA1, KB2) extend parallel to a nominal orientation of the rotation axis (B, C) to be calibrated, and that the method further comprises the following steps detecting the contour sections (KA1, KA2) with the measuring device from one side of the test workpiece to determine the spatial position of the contour sections (KA1, KB1), and determining the deviation of the spatial orientation of the beam axis (S) of the beam processing machine from the spatial nominal orientation (S0) based on the spatial positions of the contour sections (KA1, KB1) in comparison with nominal position values assigned to a cutting during the nominal orientation.
A scintillation crystal comprising NaX:Tl, La, wherein: X represents a halogen; each of Tl and La has a dopant concentration of at least 1x10 -5 mol%; and the scintillation crystal has an energy resolution less than 6.4% when measured at 662 keV, 22°C, and an integration time of 1 microsecond. X represents a halogen; each of Tl and La has a dopant concentration of at least 1x10 -5 mol%; and the scintillation crystal has an energy resolution less than 6.4% when measured at 662 keV, 22°C, and an integration time of 1 microsecond.
An analysis instrument comprising a cartridge bay for receiving a sample preparation cartridge , wherein the cartridge bay comprises: a first controllable heater for heating a sample; a first temperature sensor for monitoring the temperature of the first controllable heater; a second temperature sensor for monitoring the temperature of the sample, a controller operable to receive data from the first and second temperature sensors, and configured to control the temperature of the first controllable heater , based on the data received from the first and second temperature sensors, characterized in that the controller is configured to heat the sample to a predetermined temperature by: controlling the first controllable heater to be at an initial temperature that is higher than the predetermined temperature, whilst the temperature measured by the second temperature sensor is below a predetermined threshold; controlling the first controllable heater to reduce its temperature from the initial temperature to a predetermined lower temperature, when the temperature measured by the second temperature sensor exceeds the predetermined threshold. a first controllable heater for heating a sample; a first temperature sensor for monitoring the temperature of the first controllable heater; a second temperature sensor for monitoring the temperature of the sample, a controller operable to receive data from the first and second temperature sensors, and configured to control the temperature of the first controllable heater , based on the data received from the first and second temperature sensors, characterized in that the controller is configured to heat the sample to a predetermined temperature by: controlling the first controllable heater to be at an initial temperature that is higher than the predetermined temperature, whilst the temperature measured by the second temperature sensor is below a predetermined threshold; controlling the first controllable heater to reduce its temperature from the initial temperature to a predetermined lower temperature, when the temperature measured by the second temperature sensor exceeds the predetermined threshold. controlling the first controllable heater to be at an initial temperature that is higher than the predetermined temperature, whilst the temperature measured by the second temperature sensor is below a predetermined threshold; controlling the first controllable heater to reduce its temperature from the initial temperature to a predetermined lower temperature, when the temperature measured by the second temperature sensor exceeds the predetermined threshold.
A glass plate scribing method characterized by comprising the steps of: rotating or swinging a cutter wheel about a vertical axis perpendicular to one surface of a glass plate in a state in which said cutter wheel is brought into pressure contact with the one surface of the glass plate at a scribe starting point at the time of a scribing start, to thereby scribe form a dent at the starting point; bringing said cutter wheel into pressure contact with the one surface of the glass plate at the dent after said dent is formed; and subsequently starting scribing from within the dent by said cutter wheel with respect to the one surface of the glass plate in a state in which said cutter wheel is brought into pressure contact with the one surface of the glass plate at said dent.
A vehicle hard surface cleaning composition comprising: a surfactant present in an amount of 0.1 to 8.0 total weight percent; a hydrotrope present in an amount of 0.1 to 3.0 total weight percent; a wetting agent present in an amount of 0.1 to 5.0 total weight percent; a protectant present in an amount of 0.01 to 17 total weight percent and comprising graphene present in an amount of 0.01 to 0.1 total weight percent; and an aqueous diluent making up a remainder of the composition, wherein the surfactant is C 10 -C 16 alkylbenzenesulfonic acid sodium salt, C 12 -C 14 amine oxide, or C 8 - 28 alkyl betaine and C 8 - 28 alkyl amido betaines, C 8 - 16 alkyl polyglycosides, or a combination thereof, wherein the hydrotrope is xylene sulfonates, cumene sulfonates, p-toluene sulfonates, C 4 -C 24 iminodipropionates or combinations thereof; and wherein the wetting agent is dimethicone PEG-8 succinate, branched secondary alcohol ethoxylate, 8 EO, or a combination thereof. a surfactant present in an amount of 0.1 to 8.0 total weight percent; a hydrotrope present in an amount of 0.1 to 3.0 total weight percent; a wetting agent present in an amount of 0.1 to 5.0 total weight percent; a protectant present in an amount of 0.01 to 17 total weight percent and comprising graphene present in an amount of 0.01 to 0.1 total weight percent; and an aqueous diluent making up a remainder of the composition, wherein the surfactant is C 10 -C 16 alkylbenzenesulfonic acid sodium salt, C 12 -C 14 amine oxide, or C 8 - 28 alkyl betaine and C 8 - 28 alkyl amido betaines, C 8 - 16 alkyl polyglycosides, or a combination thereof, wherein the hydrotrope is xylene sulfonates, cumene sulfonates, p-toluene sulfonates, C 4 -C 24 iminodipropionates or combinations thereof; and wherein the wetting agent is dimethicone PEG-8 succinate, branched secondary alcohol ethoxylate, 8 EO, or a combination thereof. wherein the surfactant is C 10 -C 16 alkylbenzenesulfonic acid sodium salt, C 12 -C 14 amine oxide, or C 8 - 28 alkyl betaine and C 8 - 28 alkyl amido betaines, C 8 - 16 alkyl polyglycosides, or a combination thereof, wherein the hydrotrope is xylene sulfonates, cumene sulfonates, p-toluene sulfonates, C 4 -C 24 iminodipropionates or combinations thereof; and wherein the wetting agent is dimethicone PEG-8 succinate, branched secondary alcohol ethoxylate, 8 EO, or a combination thereof.
A dental abutment for use with a dental implant , comprising: an abutment body having a longitudinal axis , a coronal end , and an apical end , wherein the abutment body includes a first externally facing surface , extending from a location between the coronal end and the apical end and towards the apical end , at least a portion of which tapers conically inwardly towards the apical end ; an internal bore provided within the abutment body , at least a portion of the internal bore having internal threads ; an external shoulder positioned between a coronal end of the first externally facing surface and the coronal end of the abutment body and a step portion located between the abutment coronal end and the abutment internal threads , wherein the conically tapered portion of the first externally facing surface of the abutment is able to form an interference fit when in use with a mating conically tapered recess in the dental implant. an abutment body having a longitudinal axis , a coronal end , and an apical end , wherein the abutment body includes a first externally facing surface , extending from a location between the coronal end and the apical end and towards the apical end , at least a portion of which tapers conically inwardly towards the apical end ; an internal bore provided within the abutment body , at least a portion of the internal bore having internal threads ; an external shoulder positioned between a coronal end of the first externally facing surface and the coronal end of the abutment body and a step portion located between the abutment coronal end and the abutment internal threads , wherein the conically tapered portion of the first externally facing surface of the abutment is able to form an interference fit when in use with a mating conically tapered recess in the dental implant.
A method of characterizing a protein in a nanopore system comprising a nanopore disposed in a membrane that separates a first conductive liquid medium from a second conductive liquid medium, wherein the nanopore comprises a tunnel that provides liquid communication between the first conductive liquid medium and the second conductive liquid medium, and wherein the protein is physically associated with a polymer in the first conductive liquid medium, the method comprising: (a) applying an electrical potential between the first conductive liquid medium and the second conductive liquid medium to cause the polymer to interact with the nanopore tunnel, wherein the protein is unable to pass through the nanopore; (b) measuring an ion current through the nanopore during the interaction of the polymer with the nanopore tunnel to provide a current pattern; (c) determining a position and/or movement of at least one polymer subunit in the nanopore tunnel from the current pattern; and (d) associating the position and/or movement of the at least one polymer subunit with a characteristic of the protein; wherein the method comprises comparing the current pattern to a reference current pattern; determining a change in position and/or movement of at least one polymer subunit in the nanopore tunnel from the position and/or movement of at least one polymer subunit in the nanopore tunnel determined from the reference current pattern; and associating the change in position and/or movement of the at least one polymer subunit in the nanopore tunnel with a characteristic of the protein. (a) applying an electrical potential between the first conductive liquid medium and the second conductive liquid medium to cause the polymer to interact with the nanopore tunnel, wherein the protein is unable to pass through the nanopore; (b) measuring an ion current through the nanopore during the interaction of the polymer with the nanopore tunnel to provide a current pattern; (c) determining a position and/or movement of at least one polymer subunit in the nanopore tunnel from the current pattern; and (d) associating the position and/or movement of the at least one polymer subunit with a characteristic of the protein;
A compound of Chemical Formula 1: or a pharmaceutically acceptable salt thereof, in the Chemical Formula 1 W is substituted or unsubstituted, phenyl, pyridyl, thiophene, thiazole, pyrrole, benzothiophene, or indole, R 1 is H or F, R 2 is 1H-indole, 1H-indazole, 1,3-dihydro-2H-benzo[d]imidazol-2-one, 3,4-dihydroquinolin-2 -one, indolin-2-one, benzo[b] oxazin-3 -one, benzo[d]oxazol-2 -one, 2-methyl-1H-benzo[d]imidazole, 4-methylquinolin-2 -one, 1,3-dihydro-2H-benzo[d]imidazole-2-thione, benzo[d]thiazol-2 -one, 4-methyl-1H-indazol, 6-methyl-1H-indazol, 4-methyl-1H-benzo[d]imidazole, or 6-methyl-1H-benzo[d]imidazole, or 1H-benzo [d] imidazole. or a pharmaceutically acceptable salt thereof, in the Chemical Formula 1 W is substituted or unsubstituted, phenyl, pyridyl, thiophene, thiazole, pyrrole, benzothiophene, or indole, R 1 is H or F, R 2 is 1H-indole, 1H-indazole, 1,3-dihydro-2H-benzo[d]imidazol-2-one, 3,4-dihydroquinolin-2 -one, indolin-2-one, benzo[b] oxazin-3 -one, benzo[d]oxazol-2 -one, 2-methyl-1H-benzo[d]imidazole, 4-methylquinolin-2 -one, 1,3-dihydro-2H-benzo[d]imidazole-2-thione, benzo[d]thiazol-2 -one, 4-methyl-1H-indazol, 6-methyl-1H-indazol, 4-methyl-1H-benzo[d]imidazole, or 6-methyl-1H-benzo[d]imidazole, or 1H-benzo [d] imidazole.
A tensioning device for a horizontal lifeline comprising: a pulley including a drive spindle and a pulley wheel connected to the drive spindle , said lifeline passing, in use, around the pulley wheel ; a locking member configured to engage, in use, with a part of said lifeline to prevent relative movement of the lifeline with respect to the locking member in a first direction; and a handle assembly connected to the drive spindle , the handle assembly being moveable between a first, disengaged position in which rotation of the handle assembly does not cause rotation of the drive spindle and a second, engaged position in which rotation of the handle assembly rotates the drive spindle , characterised in that : movement of the handle assembly between the first and second positions is along an axis of the drive spindle , wherein the drive spindle includes a drive shaft section and in the first position the handle assembly is engaged with the drive shaft section and in the second position the handle assembly is not engaged with the drive shaft section , and wherein rotation of the drive spindle rotates the pulley to move the lifeline in a second direction relative to the locking member , thereby tensioning the lifeline. a pulley including a drive spindle and a pulley wheel connected to the drive spindle , said lifeline passing, in use, around the pulley wheel ; a locking member configured to engage, in use, with a part of said lifeline to prevent relative movement of the lifeline with respect to the locking member in a first direction; and a handle assembly connected to the drive spindle , the handle assembly being moveable between a first, disengaged position in which rotation of the handle assembly does not cause rotation of the drive spindle and a second, engaged position in which rotation of the handle assembly rotates the drive spindle ,
A method for wireless communications for a system in which a subset of resource block, RB, groups are configured for a legacy wireless communication technology having a first transmission time interval, TTI, the first TTI being based on one subframe in duration, wherein each RB group in the subset of RB groups includes one or more RBs, for communication between legacy devices in the first TTI; the method comprising: determining a resource allocation for a low latency communication technology having a second TTI, the second TTI being less than one subframe in duration, the resource allocation including a plurality of low latency RBs in the subset of RB groups, wherein determining comprises identifying a number of subsets of RB groups based at least in part on a system bandwidth, where at least some RBs within said RB groups being consecutive across system bandwidth; and communicating data over resources in the plurality of low latency RBs, the low latency RBs being based on the second TTI, and the resources being associated with the resource allocation . determining a resource allocation for a low latency communication technology having a second TTI, the second TTI being less than one subframe in duration, the resource allocation including a plurality of low latency RBs in the subset of RB groups, wherein determining comprises identifying a number of subsets of RB groups based at least in part on a system bandwidth, where at least some RBs within said RB groups being consecutive across system bandwidth; and communicating data over resources in the plurality of low latency RBs, the low latency RBs being based on the second TTI, and the resources being associated with the resource allocation .
A completion system for connecting several screens into a well tubular structure mounted from base pipe sections , comprising: - a first screen assembly and a second screen assembly , each screen assembly comprising: - a base pipe section mounted as part of the well tubular structure having a longitudinal extension , the base pipe section having an outer face , and - a tubular screen element surrounding and being connected to the outer face of the base pipe section , the tubular screen element having an outer diameter (OD E ), and - an assembly connection part for connecting an end of the first screen assembly with an end of the second screen assembly , wherein the completion system is characterised by a first tubular member having an inner diameter (ID M ) which is equal to or larger than the outer diameter of the tubular screen element , the first tubular member being arranged opposite the assembly connection part so that fluid flowing in through the tubular screen element of one of the screen assemblies flows on the outside of the assembly connection part . - a first screen assembly and a second screen assembly , each screen assembly comprising: - a base pipe section mounted as part of the well tubular structure having a longitudinal extension , the base pipe section having an outer face , and - a tubular screen element surrounding and being connected to the outer face of the base pipe section , the tubular screen element having an outer diameter (OD E ), and - a base pipe section mounted as part of the well tubular structure having a longitudinal extension , the base pipe section having an outer face , and - a tubular screen element surrounding and being connected to the outer face of the base pipe section , the tubular screen element having an outer diameter (OD E ), and - an assembly connection part for connecting an end of the first screen assembly with an end of the second screen assembly , wherein the completion system is characterised by a first tubular member having an inner diameter (ID M ) which is equal to or larger than the outer diameter of the tubular screen element , the first tubular member being arranged opposite the assembly connection part so that fluid flowing in through the tubular screen element of one of the screen assemblies flows on the outside of the assembly connection part .
Data transfer method, in which a transfer of signals (S) representing the data takes place in both directions between a first transceiver (TC1) and a second transceiver (TC2), wherein an OFDM method is used for modulation of useful signals (NTS) to a plurality of carrier frequencies, wherein • time slots for transmitting (ZSS) and time slots for receiving (ZSE) are in each case allocated to the first transceiver (TC1) and the second transceiver (TC2) for transferring the signals (S) in both directions, • each time slot is assigned a modulation rule for each carrier frequency used, • control signals (STS), which specify at least one modulation rule to be used, are at least transferred with the transferred signals (S) when the modulation rule for at least one carrier frequency is to be changed, characterised in that the transfer quality is determined with the aid of a direct channel estimation (DCE), wherein the direct channel estimation (ICE) is performed in that , for a carrier frequency, • in a first time slot, a signal (S) is transmitted by the first transceiver (TC1) and a receipt parameter of the second transceiver (TC2) is recorded, • in a second time slot, no signal (S) is transmitted by the first transceiver (TC1) and the receipt by the second transceiver (TC2) is recorded, • a signal-to-noise ratio is ascertained, while taking into consideration the recorded receipt parameter of the first time slot and the second time slot, as a measure for the transfer quality. • time slots for transmitting (ZSS) and time slots for receiving (ZSE) are in each case allocated to the first transceiver (TC1) and the second transceiver (TC2) for transferring the signals (S) in both directions, • each time slot is assigned a modulation rule for each carrier frequency used, • control signals (STS), which specify at least one modulation rule to be used, are at least transferred with the transferred signals (S) when the modulation rule for at least one carrier frequency is to be changed, • in a first time slot, a signal (S) is transmitted by the first transceiver (TC1) and a receipt parameter of the second transceiver (TC2) is recorded, • in a second time slot, no signal (S) is transmitted by the first transceiver (TC1) and the receipt by the second transceiver (TC2) is recorded, • a signal-to-noise ratio is ascertained, while taking into consideration the recorded receipt parameter of the first time slot and the second time slot, as a measure for the transfer quality.