mhurhangee/patent-ind-claim-en huggingface dataset:
A method for wireless communication, comprising: identifying a first transmission configuration for a first set of one or more reference signals and data ; determining a first adjustable pilot ratio for the first set of one or more reference signals and data based at least in part on the identified first transmission configuration; transmitting, within a first slot, the first set of one or more reference signals and data using the determined first adjustable pilot ratio; identifying a second transmission configuration for a second set of one or more reference signals and data ; adjusting the first adjustable pilot ratio for the second set of one or more reference signals and data based at least in part on the identified second transmission configuration; and transmitting, within a second slot, the second set of one or more reference signals and data using the adjusted first adjustable pilot ratio. identifying a first transmission configuration for a first set of one or more reference signals and data ; determining a first adjustable pilot ratio for the first set of one or more reference signals and data based at least in part on the identified first transmission configuration; transmitting, within a first slot, the first set of one or more reference signals and data using the determined first adjustable pilot ratio; identifying a second transmission configuration for a second set of one or more reference signals and data ; adjusting the first adjustable pilot ratio for the second set of one or more reference signals and data based at least in part on the identified second transmission configuration; and transmitting, within a second slot, the second set of one or more reference signals and data using the adjusted first adjustable pilot ratio.
A method performed by a user equipment, UE, in a wireless communication system, the method comprising: receiving , from a base station , a radio resource control, RRC, signaling for configuring a second cell including information related to a slot offset between a first cell and a second cell with unaligned frame boundaries for carrier aggregation; and determining a time offset between the first cell and the second cell, based on the information related to the slot offset, wherein the information related to the slot offset is based on a reference subcarrier spacing, SCS, wherein the reference SCS is a maximum of a lowest SCS among at least one SCS configured for the first cell and a lowest SCS among at least one SCS configured for the second cell, and wherein the first cell is a primary cell, PCell, or a primary secondary cell, PSCell, and the second cell is a secondary cell, SCell. receiving , from a base station , a radio resource control, RRC, signaling for configuring a second cell including information related to a slot offset between a first cell and a second cell with unaligned frame boundaries for carrier aggregation; and determining a time offset between the first cell and the second cell, based on the information related to the slot offset, wherein the information related to the slot offset is based on a reference subcarrier spacing, SCS, wherein the reference SCS is a maximum of a lowest SCS among at least one SCS configured for the first cell and a lowest SCS among at least one SCS configured for the second cell, and wherein the first cell is a primary cell, PCell, or a primary secondary cell, PSCell, and the second cell is a secondary cell, SCell.
A carboxylate compound represented by Formula : where, R is an alkyl group having from 2 to 6 carbons.
A beamforming audio capture apparatus comprising: a microphone array ; a first beamformer coupled to the microphone array and arranged to generate a first beamformed audio output; a second beamformer coupled to the microphone array and arranged to generate a second beamformed audio output; and a difference processor for determining a difference measure between beams of the first beamformer and the second beamformer , characterized in that : the first beamformer is a filter-and-combine beamformer comprising a first plurality of beamform filters each having a first adaptive impulse response; the second beamformer is a filter-and-combine beamformer comprising a second plurality of beamform filters each having a second adaptive impulse response; and the difference processor is arranged to determine the difference measure between beams of the first beamformer and the second beamformer in response to a comparison of the first adaptive impulse responses to the second adaptive impulse responses. a microphone array ; a first beamformer coupled to the microphone array and arranged to generate a first beamformed audio output; a second beamformer coupled to the microphone array and arranged to generate a second beamformed audio output; and a difference processor for determining a difference measure between beams of the first beamformer and the second beamformer , the first beamformer is a filter-and-combine beamformer comprising a first plurality of beamform filters each having a first adaptive impulse response; the second beamformer is a filter-and-combine beamformer comprising a second plurality of beamform filters each having a second adaptive impulse response; and the difference processor is arranged to determine the difference measure between beams of the first beamformer and the second beamformer in response to a comparison of the first adaptive impulse responses to the second adaptive impulse responses.
A communication system configured to transmit a signal from a plurality of transmission devices (TX) to one reception device (RX) via a transmission path (P), the transmission path (P) including a branch point (H p , H n ) at a midpoint, including a plurality of first signal lines that couples the transmission devices (TX) and the branch point (H p , H n ) to each other, and further including a second signal line that couples the branch point (H p , H n ) and the reception device (RX) to each other, characterised by each of the plurality of first signal lines and the second signal line includes a resistor element (R) in proximity to the branch point (H p , H n ), and the resistor element (R) has a resistance value represented by the following expression: R = number of branches − 1 × Z 0 − R T / 2 / number of branches , Zo: a characteristic impedance of each of the first signal lines and the second signal line, R T /2: a terminator resistor of each of the transmission devices and the reception device. the transmission path (P) including a branch point (H p , H n ) at a midpoint, including a plurality of first signal lines that couples the transmission devices (TX) and the branch point (H p , H n ) to each other, and further including a second signal line that couples the branch point (H p , H n ) and the reception device (RX) to each other, characterised by each of the plurality of first signal lines and the second signal line includes a resistor element (R) in proximity to the branch point (H p , H n ), and the resistor element (R) has a resistance value represented by the following expression: R = number of branches − 1 × Z 0 − R T / 2 / number of branches , Zo: a characteristic impedance of each of the first signal lines and the second signal line, R T /2: a terminator resistor of each of the transmission devices and the reception device.
System for actuating a vacuum bottle of an electrical device, the vacuum bottle comprising a fixed electrode and an electrode that is mobile along a longitudinal axis (X) between a closed position in which the two electrodes are in contact with each other and an open position in which the two electrodes are separated, the actuating system comprising an adjusting nut that is rotatably mobile about the longitudinal axis (X) and is driven by a drive device to perform an opening movement of the moving electrode , characterized in that : - the actuating system comprises an adjusting screw engaging with the adjusting nut in order to vary the moment when the drive device drives the moving electrode , - the adjusting screw comprises a fastening device for the moving electrode , allowing the moving electrode to be constrained to translate along the longitudinal axis (X) with the adjusting screw , but to be free to rotate relative to the adjusting screw , - the rotation of the adjusting screw is limited by blocking means . - the actuating system comprises an adjusting screw engaging with the adjusting nut in order to vary the moment when the drive device drives the moving electrode , - the adjusting screw comprises a fastening device for the moving electrode , allowing the moving electrode to be constrained to translate along the longitudinal axis (X) with the adjusting screw , but to be free to rotate relative to the adjusting screw , - the rotation of the adjusting screw is limited by blocking means .
A method for determining a genomic sequence, the method comprising: receiving, at a computer system, identities of a plurality of nucleotides at known locations on a genome of a subject, wherein the identities of a plurality of nucleotides comprise a plurality of SNPs in the subject's genome; selecting one or more genomic sequences from a plurality of genomic sequences stored in the computer system as a genome-scale directed acyclic graph (DAG) comprising a plurality of nodes representing nucleotide sequences and edges connecting pairs of the nodes, wherein the DAG represents at least two alternative sequences per position at multiple positions and the DAG is annotated to list non-compossible node-pairs, wherein the selected sequences include the nucleotides at the known locations, each of the selected genomic sequences defines a selected path through the DAG and selecting one or more genomic sequences comprises identifying candidate paths through the DAG that include the plurality of SNPs, identifying a node in the list of non-compossible node pairs from one of the plurality of SNPs, identifying a second node paired to the identified node in the list of non-compossible node pairs and excluding paths containing the second node; receiving sequence reads from a sample from the subject; and mapping the sequence reads to the selected genomic sequences, thereby determining a sequence of at least a portion of the genome. receiving, at a computer system, identities of a plurality of nucleotides at known locations on a genome of a subject, wherein the identities of a plurality of nucleotides comprise a plurality of SNPs in the subject's genome; selecting one or more genomic sequences from a plurality of genomic sequences stored in the computer system as a genome-scale directed acyclic graph (DAG) comprising a plurality of nodes representing nucleotide sequences and edges connecting pairs of the nodes, wherein the DAG represents at least two alternative sequences per position at multiple positions and the DAG is annotated to list non-compossible node-pairs, wherein the selected sequences include the nucleotides at the known locations, each of the selected genomic sequences defines a selected path through the DAG and selecting one or more genomic sequences comprises identifying candidate paths through the DAG that include the plurality of SNPs, identifying a node in the list of non-compossible node pairs from one of the plurality of SNPs, identifying a second node paired to the identified node in the list of non-compossible node pairs and excluding paths containing the second node; receiving sequence reads from a sample from the subject; and mapping the sequence reads to the selected genomic sequences, thereby determining a sequence of at least a portion of the genome.
A method of forming a panel characterised in that the method includes the steps of: using a kit including a panel component, the panel component including a surface sheet formed from a first material, and a body layer to which the surface sheet is adhered, wherein the body layer has a thickness greater than a thickness of the surface sheet, the body layer has a density less than a density of the surface sheet, the kit including a separate side edge portion adapted to be adhered along at least one edge of the panel component; cutting the panel component to a dimension to suit to expose an edge of the panel component; and adhering the side edge portion to said exposed edge of the panel component. using a kit including a panel component, the panel component including a surface sheet formed from a first material, and a body layer to which the surface sheet is adhered, wherein the body layer has a thickness greater than a thickness of the surface sheet, the body layer has a density less than a density of the surface sheet, the kit including a separate side edge portion adapted to be adhered along at least one edge of the panel component; cutting the panel component to a dimension to suit to expose an edge of the panel component; and adhering the side edge portion to said exposed edge of the panel component.
A method for illustrating depth in an image , the method comprising: receiving (S101) a depthmap generated from an optical distancing system , wherein depth data of the depthmap is correlated with a plurality of pixels of the image ; receiving (S103), at a controller, data indicative of a location point on the image and indicative of a first depth datum of the depthmap; comparing (S107), with the controller, the first depth datum to depth data correlated with a plurality of pixels of a plurality of surrounding points surrounding the location point on the image ; for each of the plurality of surrounding points, if the first depth datum indicates a lesser or substantially equal distance from a viewer perspective of the image than the correlated depth datum, changing (S109) the pixel of the surrounding point to a predetermined value corresponding to a depth cursor (701a-h; 801) in order to indicate the location point on the image and to give visual feedback about the depth of the location point on the image relative to the plurality of surrounding points. receiving (S101) a depthmap generated from an optical distancing system , wherein depth data of the depthmap is correlated with a plurality of pixels of the image ; receiving (S103), at a controller, data indicative of a location point on the image and indicative of a first depth datum of the depthmap; comparing (S107), with the controller, the first depth datum to depth data correlated with a plurality of pixels of a plurality of surrounding points surrounding the location point on the image ; for each of the plurality of surrounding points, if the first depth datum indicates a lesser or substantially equal distance from a viewer perspective of the image than the correlated depth datum, changing (S109) the pixel of the surrounding point to a predetermined value corresponding to a depth cursor (701a-h; 801) in order to indicate the location point on the image and to give visual feedback about the depth of the location point on the image relative to the plurality of surrounding points.
A battery pack , comprising: a plurality of battery modules , each including battery cells , a module housing accommodating the battery cells and a gas venting channel in communication with an inside of the module housing ; and a pack case accommodating the plurality of battery modules , the pack case including a top plate to cover upper parts of the plurality of battery modules , the top plate having a venting port , wherein the gas venting channel of each battery module is in communication with the venting port , wherein the gas venting channel is disposed on the module housing , and wherein the gas venting channel includes a duct of a hollow structure; a gas inlet provided on one side of the duct ; and a gas outlet provided on the other side of the duct at a predetermined distance from the gas inlet in an extension direction of the duct , characterized in that the gas inlet matches an opening of the module housing , and the gas outlet matches the venting port of the top plate , and the venting port includes a rupturable membrane which ruptures under a predetermined pressure or above. a plurality of battery modules , each including battery cells , a module housing accommodating the battery cells and a gas venting channel in communication with an inside of the module housing ; and a pack case accommodating the plurality of battery modules , the pack case including a top plate to cover upper parts of the plurality of battery modules , the top plate having a venting port , wherein the gas venting channel of each battery module is in communication with the venting port , wherein the gas venting channel is disposed on the module housing , and wherein the gas venting channel includes a duct of a hollow structure; a gas inlet provided on one side of the duct ; and a gas outlet provided on the other side of the duct at a predetermined distance from the gas inlet in an extension direction of the duct , characterized in that the gas inlet matches an opening of the module housing , and the gas outlet matches the venting port of the top plate , and the venting port includes a rupturable membrane which ruptures under a predetermined pressure or above.
A heating device comprising: - an induction element , - an induced element , and - a first dielectric element placed between the induction element and the induced element , wherein the dielectric element is vacuum, or gas, particularly air, where the induced element comprises a metal alloy containing a first metal or a first mixture of metals in a percentage in the range 90% - 99.99% by weight to the total weight and containing a second metal or a second mixture of metals in a percentage in the range 0.01% - 10% by weight to the total weight; characterized in that the first metal is an amagnetic metal, for example diamagnetic or paramagnetic or antiferromagnetic metal, or in that the first mixture of metals is amagnetic or exclusively comprises non-magnetic metals, and in that the second metal is a ferromagnetic or ferrimagnetic metal, or in that the second mixture of metals is magnetic or exclusively comprises ferromagnetic or ferrimagnetic metals. - an induction element , - an induced element , and - a first dielectric element placed between the induction element and the induced element ,
A coolant flow guide for use in a grinder, comprising: a base comprising a tilted bottom wall , a peripheral wall and a partition wall , said peripheral wall being disposed around said tilted bottom wall and defining with said tilted bottom wall a diversion channel having a top opening , said partition wall being located on said tilted bottom wall to divide said diversion channel into two flow passages , said two flow passages sloping downwardly to said diversion port ; wherein said peripheral wall comprises a front wall , a back wall and a connection wall , said front wall and said back wall being disposed opposite to each other and respectively defining with said partition wall one respective said flow passage , said connection wall having two opposite ends thereof respectively connected to said front wall and said back wall , said connection wall having a bottom side thereof connected to said tilted bottom wall , characterised in that a diversion port cuts through said connection wall ; said base further comprises a shoulder located on a top edge of said front wall , said shoulder comprising an oblique guide surface , said oblique guide surface having one side thereof sloping downwardly to said front wall ; the coolant flow guide further comprises a workpiece positioning unit for holding a workpiece (A), wherein said base further comprises a plurality of support members spaced from one another by a predetermined pitch, each said support member having two opposite ends thereof respectively affixed to said oblique guide surface and said back wall , each said support member being extended over and affixed to said partition wall ; said workpiece positioning unit is supported on said support members . a base comprising a tilted bottom wall , a peripheral wall and a partition wall , said peripheral wall being disposed around said tilted bottom wall and defining with said tilted bottom wall a diversion channel having a top opening , said partition wall being located on said tilted bottom wall to divide said diversion channel into two flow passages , said two flow passages sloping downwardly to said diversion port ; wherein said peripheral wall comprises a front wall , a back wall and a connection wall , said front wall and said back wall being disposed opposite to each other and respectively defining with said partition wall one respective said flow passage , said connection wall having two opposite ends thereof respectively connected to said front wall and said back wall , said connection wall having a bottom side thereof connected to said tilted bottom wall , characterised in that
A multispecific binding protein comprising: a Fab fragment that binds NKG2D, a single-chain variable fragment (scFv) that binds HER2 and an antibody Fc domain or a portion thereof sufficient to bind CD16, comprising: (a) a first polypeptide comprising the amino acid sequence of SEQ ID NO:141; (b) a second polypeptide comprising the amino acid sequence of SEQ ID NO:140; and (c) a third polypeptide comprising the amino acid sequence of SEQ ID NO:142. (a) a first polypeptide comprising the amino acid sequence of SEQ ID NO:141; (b) a second polypeptide comprising the amino acid sequence of SEQ ID NO:140; and (c) a third polypeptide comprising the amino acid sequence of SEQ ID NO:142.
Cooking hob with at least one cooking hob apparatus with at least one heat sink provided for cooling at least one structural unit , with a fan unit provided in order to provide cooling air to the heat sink in at least one operating mode, and with a duct unit which, perpendicular to a longitudinal direction of the duct unit , has an at least substantially closed shape and is provided to guide the cooling air emanating from the fan unit at least in the direction of the heat sink , wherein the duct unit has at least one first duct element and at least one second duct element that differs from the first duct element , wherein the second duct element is formed by a functional component that, in addition to a function of delimiting the duct, has and/or executes at least one further function, wherein the cooking hob apparatus has at least one circuit board that at least substantially embodies the second duct element , and wherein in at least one assembled state the second duct element embodies a full duct at least in sections together with the first duct element .