mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a processor in a test entity for layer 2 sustained downlink maximum data rate decoding performance of a user equipment device, comprising: sending a non-access stratum, NAS, signaling message that requests activation of a downlink-only test mode to the user equipment device; sending a first Packet Data Convergence Protocol, PDCP, status request to the user equipment device; sending downlink PDCP packets to the user equipment device during a measurement interval after sending the first PDCP status request to the user equipment device; receiving a physical layer, PHY, hybrid acknowledge request, HARQ, acknowledgement, ACK, or non-acknowledgement, NACK, from the user equipment device and determining expected missed layer 1 packets based on information included in the received PHY HARQ ACK/NACK; sending a second PDCP status request to the user equipment device after the measurement interval; receiving a PDCP status report from the user equipment device in response to the second PDCP status request; and determining missed layer 2 packets from a First Missing Count, FMC, value identifying the earliest sequence number of the missed layer 2 packets or a bitmap containing sequence numbers of the missed layer 2 packets included in the received PDCP status report. sending a non-access stratum, NAS, signaling message that requests activation of a downlink-only test mode to the user equipment device; sending a first Packet Data Convergence Protocol, PDCP, status request to the user equipment device; sending downlink PDCP packets to the user equipment device during a measurement interval after sending the first PDCP status request to the user equipment device; receiving a physical layer, PHY, hybrid acknowledge request, HARQ, acknowledgement, ACK, or non-acknowledgement, NACK, from the user equipment device and determining expected missed layer 1 packets based on information included in the received PHY HARQ ACK/NACK; sending a second PDCP status request to the user equipment device after the measurement interval; receiving a PDCP status report from the user equipment device in response to the second PDCP status request; and determining missed layer 2 packets from a First Missing Count, FMC, value identifying the earliest sequence number of the missed layer 2 packets or a bitmap containing sequence numbers of the missed layer 2 packets included in the received PDCP status report.
An emulsifying device for emulsifying milk, comprising a Venturi mixing chamber , a circuit for supplying air and having an air outlet connected to the mixing chamber , and a circuit for supplying steam and having a steam outlet connected to the mixing chamber, characterized in that said circuit for supplying air comprises a first air inlet line equipped with a first shut-off solenoid valve and at least a second air inlet line equipped with a second shut-off solenoid valve , said first and second air inlet lines having a different minimum cross-sectional area , and in that said first shut-off solenoid valve and said second shut-off solenoid valve are controlled for adjusting the degree of milk froth.
A breather for a reservoir, the breather comprising: a housing , the housing including: a dehumidifying element positioned within the housing such that air passing through the breather from the outside to the inside or from the inside to the outside of the reservoir must pass through the dehumidifying element; and an operational sensor positioned within the housing, wherein the operational sensor is configured to output a sensor signal indicative of a measured operational parameter of the breather, characterised by an expansion pack that comprises at least one sensor (1612-1612n) and an intake section configured to couple to a head space coupler wherein the at least one sensor (1612-1612n) is configured to measure at least one parameter associated with a medium received at the intake section, wherein said said expansion pack (400; 1600) is coupleable to the housing and is configured to receive the sensor signal indicative of the measured operational parameter and to transmit at least one of the measured operational parameter or a representation thereof. a housing , the housing including: a dehumidifying element positioned within the housing such that air passing through the breather from the outside to the inside or from the inside to the outside of the reservoir must pass through the dehumidifying element; and an operational sensor positioned within the housing, wherein the operational sensor is configured to output a sensor signal indicative of a measured operational parameter of the breather, a dehumidifying element positioned within the housing such that air passing through the breather from the outside to the inside or from the inside to the outside of the reservoir must pass through the dehumidifying element; and an operational sensor positioned within the housing, wherein the operational sensor is configured to output a sensor signal indicative of a measured operational parameter of the breather, characterised by an expansion pack that comprises at least one sensor (1612-1612n) and an intake section configured to couple to a head space coupler wherein the at least one sensor (1612-1612n) is configured to measure at least one parameter associated with a medium received at the intake section, wherein said said expansion pack (400; 1600) is coupleable to the housing and is configured to receive the sensor signal indicative of the measured operational parameter and to transmit at least one of the measured operational parameter or a representation thereof.
An accelerator device , comprising: a request agent, RA, comprising a compute engine configured to perform at least one accelerator function; a slave agent, SA, comprising a memory controller; and local memory , wherein the RA is configured to transfer ownership of a data set received from a home agent, HA, in a host coupled to the accelerator device to the SA , wherein the memory controller is configured to service a request, transmitted by the compute engine, to access the data set stored in the local memory once ownership has been transferred to the SA , and wherein the RA is configured to transfer ownership from the SA back to the HA . a request agent, RA, comprising a compute engine configured to perform at least one accelerator function; a slave agent, SA, comprising a memory controller; and local memory , wherein the RA is configured to transfer ownership of a data set received from a home agent, HA, in a host coupled to the accelerator device to the SA , wherein the memory controller is configured to service a request, transmitted by the compute engine, to access the data set stored in the local memory once ownership has been transferred to the SA , and wherein the RA is configured to transfer ownership from the SA back to the HA .
A system for controlling a shock output of an electronic animal trap, comprising: a battery ; a transformer having a primary coil connected to the battery ; and a controller connected to the battery and the primary coil , characterised in that the controller has a shock cycle module , the shock cycle module being configured to determine a battery capacity of the battery , to calculate a wait time from the battery capacity , to determine a shock enable time based on the wait time calculated from the battery capacity , and to control a primary current (I 52 ) from the battery to run through the primary coil for the shock enable time . a battery ; a transformer having a primary coil connected to the battery ; and a controller connected to the battery and the primary coil , characterised in that the controller has a shock cycle module , the shock cycle module being configured to determine a battery capacity of the battery , to calculate a wait time from the battery capacity , to determine a shock enable time based on the wait time calculated from the battery capacity , and to control a primary current (I 52 ) from the battery to run through the primary coil for the shock enable time .
Connector assembly configured to provide a lever gear ratio allowing a user to couple the connector to a mating connector with a limited manual force applicable by the user comprising a connector , a mating connector adapted to be coupled to the connector , in a mating direction , and a lever assembly , the lever assembly comprising at least one lever , the lever being arranged on the connector pivotably about a pivot axis , the pivot axis , being oriented essentially perpendicular to the mating direction , the lever at least partly covering the mating connector in a coupled state of the connector assembly , the lever comprising an inner lever member and an outer lever member , the inner lever member being connected to the outer lever member at a position distal from the pivot axis , the inner lever member being arranged between the outer lever member and the mating connector in the coupled state of the connector assembly , and the inner lever member engaging the mating connector at least in the mating direction .
A transmission device for performing multiple-input multiple-output (MIMO) transmission of transmit data using a plurality of fundamental bands, wherein the fundamental bands are frequency channels on which radio frequency transmission signals are transmitted, said transmission device comprising: an error correction coding unit configured to, for each data block of predefined length, perform error correction coding and to thereby generate an error correction coded frame; a mapping unit configured to map each predefined number of bits in the error correction coded frame to a corresponding symbol and to thereby generate an error correction coded block; and a MIMO coding unit configured to perform MIMO coding with respect to the error correction coded block, wherein components of data included in the error correction coded block are allocated to at least two of the fundamental bands and transmitted, wherein basic information of the transmit data is transmitted by MIMO, using a single fundamental band, extended information of the transmit data is transmitted using a plurality of fundamental bands, the basic information is independently decodable, and the extended information is decodable when combined with the basic information. an error correction coding unit configured to, for each data block of predefined length, perform error correction coding and to thereby generate an error correction coded frame; a mapping unit configured to map each predefined number of bits in the error correction coded frame to a corresponding symbol and to thereby generate an error correction coded block; and a MIMO coding unit configured to perform MIMO coding with respect to the error correction coded block, wherein components of data included in the error correction coded block are allocated to at least two of the fundamental bands and transmitted, wherein basic information of the transmit data is transmitted by MIMO, using a single fundamental band, extended information of the transmit data is transmitted using a plurality of fundamental bands, the basic information is independently decodable, and the extended information is decodable when combined with the basic information.
A slurry composition comprising: a powder comprising particles of at least one precursor, the precursor comprising SiC, carbon and/or one or more other carbon-containing particulate materials; at least one binder capable of adhering the particles of the precursor together to form a pliable tape comprising a fiber reinforcement material and a matrix material that will form a Si-SiC ceramic matrix ; at least one liquid plasticizer; and a solvent in which the binder is dissolved, the solvent being sufficiently volatile to evaporate from the slurry composition during forming of the tape so that the tape contains less than 10 weight percent of the solvent, yet the tape is also pliable as a result of the slurry composition containing a sufficient amount of the liquid plasticizer, wherein the slurry composition contains: 30 to 60 weight percent of the powder; 5 to 10 weight percent of the binder; 5 to 10 weight percent of the liquid plasticizer; and the balance being the solvent. a powder comprising particles of at least one precursor, the precursor comprising SiC, carbon and/or one or more other carbon-containing particulate materials; at least one binder capable of adhering the particles of the precursor together to form a pliable tape comprising a fiber reinforcement material and a matrix material that will form a Si-SiC ceramic matrix ; at least one liquid plasticizer; and a solvent in which the binder is dissolved, the solvent being sufficiently volatile to evaporate from the slurry composition during forming of the tape so that the tape contains less than 10 weight percent of the solvent, yet the tape is also pliable as a result of the slurry composition containing a sufficient amount of the liquid plasticizer, wherein the slurry composition contains: 30 to 60 weight percent of the powder; 5 to 10 weight percent of the binder; 5 to 10 weight percent of the liquid plasticizer; and the balance being the solvent. 30 to 60 weight percent of the powder; 5 to 10 weight percent of the binder; 5 to 10 weight percent of the liquid plasticizer; and the balance being the solvent.
A photovoltaic device comprising an assembly of several strings of photovoltaic cells (10 1 ,...,10 12 ), each of said strings being formed by a plurality of photovoltaic cells aligned in a first direction (y), said strings being aligned in a second direction (x) forming a non-zero angle with the first direction and typically orthogonal or substantially orthogonal to the first direction, said assembly including at least one first string laterally overlapped by a second string of said plurality of strings, so that a peripheral portion of said second string covers a peripheral portion of said first string, said first string and said second string being electrically insulated via an insulating region interposed between said respective peripheral portions of the first string and of the second string.
An adaptive belt attached to a vehicle seat, the adaptive belt comprising: a first section , a second section , and a third section , wherein: the adaptive belt comprises a retracted configuration and a fully extended configuration; in the retracted configuration, the adaptive belt is folded between the first section and the second section such that a first attachment attaches the first section to a first portion (201.1) of the second section ; in the retracted configuration, the adaptive belt is folded between the second section and the third section such that a second attachment attaches a second portion (201.2) of the second section to a first portion (301.1) of the third section ; in the fully extended configuration, all of the attachments fail thereby increasing a length of the adaptive belt ; and in response to a threshold loading condition, the adaptive belt changes from the retracted configuration to the fully extended configuration characterized in that the first portion (201.1) of the second section and the second portion (201.2) of the second section are immediately adjacent one another on opposite surfaces of the second section , the first portion (201.1) of the second section and the second portion (201.2) of the second section being isolated from one another. the adaptive belt comprises a retracted configuration and a fully extended configuration; in the retracted configuration, the adaptive belt is folded between the first section and the second section such that a first attachment attaches the first section to a first portion (201.1) of the second section ; in the retracted configuration, the adaptive belt is folded between the second section and the third section such that a second attachment attaches a second portion (201.2) of the second section to a first portion (301.1) of the third section ; in the fully extended configuration, all of the attachments fail thereby increasing a length of the adaptive belt ; and
A genetically modified yeast, comprising: at least one genetic modification that substantially blocks beta oxidation activity; at least one genetic modification that increases at least one activity, wherein the activity is selected from the group consisting of: monooxygenase activity, monooxygenase reductase activity, thioesterase activity, acyltransferase activity, isocitrate dehydrogenase activity, glyceraldehyde-3-phosphate dehydrogenase activity, glucose-6-phosphate dehydrogenase activity, acyl-coA oxidase activity, fatty alcohol oxidase activity, acyl-CoA hydrolase activity, alcohol dehydrogenase activity, peroxisomal biogenesis factor activity, fatty aldehyde dehydrogenase activity, CTF, UTR, and FAT1; and at least one genetic modification that disrupts a nucleic acid that encodes a polypeptide having the MIG1 activity, wherein the genetically modified yeast produces a higher yield of a diacid as compared to corresponding yeast not comprising said genetic modifications when cultured with a feedstock comprising at least one fatty acid or an ester thereof. at least one genetic modification that substantially blocks beta oxidation activity; at least one genetic modification that increases at least one activity, wherein the activity is selected from the group consisting of: monooxygenase activity, monooxygenase reductase activity, thioesterase activity, acyltransferase activity, isocitrate dehydrogenase activity, glyceraldehyde-3-phosphate dehydrogenase activity, glucose-6-phosphate dehydrogenase activity, acyl-coA oxidase activity, fatty alcohol oxidase activity, acyl-CoA hydrolase activity, alcohol dehydrogenase activity, peroxisomal biogenesis factor activity, fatty aldehyde dehydrogenase activity, CTF, UTR, and FAT1; and at least one genetic modification that disrupts a nucleic acid that encodes a polypeptide having the MIG1 activity, wherein the genetically modified yeast produces a higher yield of a diacid as compared to corresponding yeast not comprising said genetic modifications when cultured with a feedstock comprising at least one fatty acid or an ester thereof.
A method of intra predicting a block of a picture as part of a picture coding process, the method comprising: obtaining an intra prediction mode of a current block; performing a position-dependent prediction combination , PDPC, process, wherein the PDPC process produces predicted samples, predSamples[x] [y], for the current block by performing a clipping operation when the intra prediction mode is horizontal intra prediction mode or vertical intra prediction mode, and the PDPC process produces the predicted samples without performing the clipping operation when the intra prediction mode is DC mode or planar mode; wherein, when the intra prediction mode is DC mode or planar mode, the PDPC process is performed based on reference samples located above or to the left of the current block, and the top-left reference sample, p[ -1][ -1], of the current block is not used for the PDPC process. obtaining an intra prediction mode of a current block; performing a position-dependent prediction combination , PDPC, process, wherein the PDPC process produces predicted samples, predSamples[x] [y], for the current block by performing a clipping operation when the intra prediction mode is horizontal intra prediction mode or vertical intra prediction mode, and the PDPC process produces the predicted samples without performing the clipping operation when the intra prediction mode is DC mode or planar mode; wherein, when the intra prediction mode is DC mode or planar mode, the PDPC process is performed based on reference samples located above or to the left of the current block, and the top-left reference sample, p[ -1][ -1], of the current block is not used for the PDPC process.
Method for providing a secondary parameter , being a hemodynamic parameter vessel or being a volume of a liver, in a clinical decision support system, that supplies a primary parameter to a user, wherein the primary parameters is a patient information, wherein an image data set associated to a three dimensional object of a patient is part of the primary parameters, wherein the three dimensional object is the blood vessel or the liver, comprising the steps: - providing an input data set, wherein the input data set is a shape data set represented by a polygonal mesh, which is extracted from the image data set showing the three dimensional object of the patient; - approximating the secondary parameter based on the input data set by using a sub-system being trained by a deep learning mechanism, wherein the secondary parameter can be calculated as a function of a shape data set and wherein the deep learning mechanism is trained by training shape data sets, wherein the shape data set is transformed to an intermediate image data set for providing the intermediate image data set to the layer of said trained sub-system by converting the image data set to a binary mask or a level set representation; and - providing the approximated secondary parameter. - providing an input data set, wherein the input data set is a shape data set represented by a polygonal mesh, which is extracted from the image data set showing the three dimensional object of the patient; - approximating the secondary parameter based on the input data set by using a sub-system being trained by a deep learning mechanism, wherein the secondary parameter can be calculated as a function of a shape data set and wherein the deep learning mechanism is trained by training shape data sets, wherein the shape data set is transformed to an intermediate image data set for providing the intermediate image data set to the layer of said trained sub-system by converting the image data set to a binary mask or a level set representation; and - providing the approximated secondary parameter.
Method for operating a multi-beam particle beam microscope , wherein the method comprises: scanning a multiplicity of particle beams over an object ; directing electron beams emanating from impingement locations of the particle beams at the object onto an electron converter ; detecting first signals generated by impinging electrons in the electron converter by means of a plurality of detection elements of a first detection system during a first time period; and detecting second signals generated by impinging electrons in the electron converter by means of a plurality of detection elements of a second detection system during a second time period, wherein a number of the detection elements of the second detection system is more than double the magnitude of a number of the detection elements of the first detection system; characterized by assigning to the impingement locations the signals which were detected by means of the detection elements of the first detection system during the first time period, specifically on the basis of the detection signals which were detected by means of the detection elements of the second detection system during the second time period. scanning a multiplicity of particle beams over an object ; directing electron beams emanating from impingement locations of the particle beams at the object onto an electron converter ; detecting first signals generated by impinging electrons in the electron converter by means of a plurality of detection elements of a first detection system during a first time period; and detecting second signals generated by impinging electrons in the electron converter by means of a plurality of detection elements of a second detection system during a second time period, wherein a number of the detection elements of the second detection system is more than double the magnitude of a number of the detection elements of the first detection system; characterized by assigning to the impingement locations the signals which were detected by means of the detection elements of the first detection system during the first time period, specifically on the basis of the detection signals which were detected by means of the detection elements of the second detection system during the second time period.