mhurhangee/patent-ind-claim-en huggingface dataset:
A communications device , comprising: a processor , configured to perform interference measurement to obtain one or more measurement results, wherein the interference measurement comprises interference measurement in a first mode and/or interference measurement in a second mode, the interference measurement in the first mode comprises that the communications device receives a reference signal sent by a first node and a signal sent by a third node, to perform interference measurement, the interference measurement in the second mode comprises that the communications device receives the reference signal sent by the first node, to perform the interference measurement, the first node is a parent node of the communications device , and the third node is a child node of the communications device; and a transceiver , configured to send an uplink signal to the first node, wherein the uplink signal comprises the one or more measurement results, the uplink signal further comprises an indication field, and the indication field is used to indicate a mode of interference measurement corresponding to each of the one or more measurement results; wherein the first mode refers to interference measurement performed with space division multiplexing enabled and the second mode refers to interference measurement performed with space division multiplexing disabled; and wherein the communication device , the first node and the third node are integrated access and backhaul, IAB, nodes. a processor , configured to perform interference measurement to obtain one or more measurement results, wherein the interference measurement comprises interference measurement in a first mode and/or interference measurement in a second mode, the interference measurement in the first mode comprises that the communications device receives a reference signal sent by a first node and a signal sent by a third node, to perform interference measurement, the interference measurement in the second mode comprises that the communications device receives the reference signal sent by the first node, to perform the interference measurement, the first node is a parent node of the communications device , and the third node is a child node of the communications device; and a transceiver , configured to send an uplink signal to the first node, wherein the uplink signal comprises the one or more measurement results, the uplink signal further comprises an indication field, and the indication field is used to indicate a mode of interference measurement corresponding to each of the one or more measurement results; wherein the first mode refers to interference measurement performed with space division multiplexing enabled and the second mode refers to interference measurement performed with space division multiplexing disabled; and wherein the communication device , the first node and the third node are integrated access and backhaul, IAB, nodes.
Instrument for stretching skin with an elongated, dimensionally stable track , with at least two modules arranged on the track , with anchoring means for fixating at least one of the modules onto the skin, wherein at least one of the modules and the track are moveable relative to each other in their longitudinal directions and wherein a directional ratchet allows this movement in one direction of movement and blocks the movement in the opposite direction, characterized in that the directional ratchet is reversible with regard to the direction of movement and the direction of locking.
An agricultural harvesting head comprising: a frame that extends laterally; a reciprocating knife that is supported on the frame ; a belt conveyor that is supported on the frame and driven in a lateral direction; and a crop ramp and belt support component comprising: a forward portion that is generally planar; a rear portion that is generally planar and that extends from the forward portion , the forward portion inclined relative to the rear portion ; and a belt support portion that is generally planar and substantially parallel to the rear portion , the belt support portion extending at least partially under an interior surface of the belt conveyor ; wherein the forward portion , the rear portion , and the third portion are fabricated as a unitary component. a frame that extends laterally; a reciprocating knife that is supported on the frame ; a belt conveyor that is supported on the frame and driven in a lateral direction; and a crop ramp and belt support component comprising: a forward portion that is generally planar; a rear portion that is generally planar and that extends from the forward portion , the forward portion inclined relative to the rear portion ; and a belt support portion that is generally planar and substantially parallel to the rear portion , the belt support portion extending at least partially under an interior surface of the belt conveyor ; wherein the forward portion , the rear portion , and the third portion are fabricated as a unitary component. a forward portion that is generally planar; a rear portion that is generally planar and that extends from the forward portion , the forward portion inclined relative to the rear portion ; and a belt support portion that is generally planar and substantially parallel to the rear portion , the belt support portion extending at least partially under an interior surface of the belt conveyor ; wherein the forward portion , the rear portion , and the third portion are fabricated as a unitary component.
Modified sugar beet pectin comprising a water-insoluble component, the water-insoluble component absorbing water to form a hydrogel, when the modified sugar beet pectin is dispersed in water at 25°C to a final concentration of 0.1 mass%, wherein the modified sugar beet pectin has a weight average molecular weight of at least 6.5 x 10 5 g/mol, and the modified sugar beet pectin has a root mean square radius of gyration of at least 50 nm, wherein the weight average molecular weight and the root mean square radius of gyration are determined by homogenizing a 1.5 mass% aqueous dispersion of the modified sugar beet pectin at a pressure of 50 MPa and subjecting the homogenized dispersion to size-exclusion chromatography coupled with a multi-angle light-scattering detector and a refractive index detector.
An encapsulated sensor unit for embedding in a tire , the encapsulated sensor unit (100 comprising: a sensor portion ; an antenna portion ; a first encapsulating layer disposed about the sensor portion ; a second encapsulating layer disposed about the first encapsulating layer and the antenna portion ; and a third encapsulating layer disposed about the second encapsulating layer ; characterized in that the first encapsulation layer surrounds the sensor portion and terminates at a joint between the sensor portion and the antenna portion and thus does not encapsulate the antenna portion . a sensor portion ; an antenna portion ; a first encapsulating layer disposed about the sensor portion ; a second encapsulating layer disposed about the first encapsulating layer and the antenna portion ; and a third encapsulating layer disposed about the second encapsulating layer ; characterized in that the first encapsulation layer surrounds the sensor portion and terminates at a joint between the sensor portion and the antenna portion and thus does not encapsulate the antenna portion .
A fluorophor labelled uPAR-targeting peptide conjugate of the formula: and pharmaceutically acceptable salts thereof.
A computer-implemented method for identifying a source tissue by detecting differential mutations in cell-free or surface-bound nucleic acid molecules in a blood sample of a subject, comprising: (a) separating said blood sample into at least a first component that includes cell-free or surface-bound nucleic acid molecules and a second component that includes leukocytes; (b) extracting nucleic acid molecules from said first and second components; (c) independently sequencing said extracted nucleic acid molecules from said first and second components; and (d) detecting said differential mutations by using a programmed computer processor to compare nucleic acid sequences from said extracted nucleic acid molecules of said first and second components; and (e) using a mutation map to identify said source tissue of said cell-free or surface-bound nucleic acid molecules, wherein said mutation map relates said differential mutations to said source tissue of said subject, wherein said mutation map comprises: (i) a plurality of differential mutations identified in nucleic acid sequences of nucleic acid samples from different tissues, and (ii) one or more relationship(s) generated between said plurality of differential mutations and said different tissues (a) separating said blood sample into at least a first component that includes cell-free or surface-bound nucleic acid molecules and a second component that includes leukocytes; (b) extracting nucleic acid molecules from said first and second components; (c) independently sequencing said extracted nucleic acid molecules from said first and second components; and (d) detecting said differential mutations by using a programmed computer processor to compare nucleic acid sequences from said extracted nucleic acid molecules of said first and second components; and (e) using a mutation map to identify said source tissue of said cell-free or surface-bound nucleic acid molecules, wherein said mutation map relates said differential mutations to said source tissue of said subject, wherein said mutation map comprises: (i) a plurality of differential mutations identified in nucleic acid sequences of nucleic acid samples from different tissues, and (ii) one or more relationship(s) generated between said plurality of differential mutations and said different tissues (i) a plurality of differential mutations identified in nucleic acid sequences of nucleic acid samples from different tissues, and (ii) one or more relationship(s) generated between said plurality of differential mutations and said different tissues
A dialyzer header cap, comprising an curved surface forming a hollow, wherein said hollow includes an opening which comprises an outlet port, and further comprising an inlet port attached to the curved surface, wherein the inlet port is orthogonal to the outlet port, wherein said outlet port is in a plane of revolution and the full width of the hollow, and wherein said hollow forms a hollow halved solid of revolution created by rotating a plane curve 180° around an axis of revolution that lies on the same plane of revolution and where said plane curve is asymmetrical, wherein the said dialyzer header being characterized in that it is a hollow half a solid of revolution having a lachrymiform, tear drop shape.
An image forming apparatus configured to discharge droplets, while moving a recording head relative to a recording medium in a main scanning direction (D1) and a sub-scanning direction (D2), to form an image, the image forming apparatus comprising: a carriage ; a first recording head that has a first discharge face having a hole, that is disposed on the carriage , that is configured to discharge a first droplet containing resin through the hole, and that is included in the recording head ; a second recording head that has a second discharge face having a hole, that is disposed on the carriage , that is configured to discharge, through the hole, a second droplet containing less resin than the resin contained in the first droplet, and that is included in the recording head ; a first cleaning device configured to wipe the first discharge face to clean the first recording head ; and a second cleaning device that is different from the first cleaning device and that is configured to wipe the second discharge face to clean the second recording head ; characterized in that the first cleaning device includes a wet roller, and the second cleaning device includes a dry blade. a carriage ; a first recording head that has a first discharge face having a hole, that is disposed on the carriage , that is configured to discharge a first droplet containing resin through the hole, and that is included in the recording head ; a second recording head that has a second discharge face having a hole, that is disposed on the carriage , that is configured to discharge, through the hole, a second droplet containing less resin than the resin contained in the first droplet, and that is included in the recording head ; a first cleaning device configured to wipe the first discharge face to clean the first recording head ; and a second cleaning device that is different from the first cleaning device and that is configured to wipe the second discharge face to clean the second recording head ; characterized in that the first cleaning device includes a wet roller, and the second cleaning device includes a dry blade.
A method for labeling a plurality of targets from a sample, wherein the plurality of targets are mRNAs, comprising: hybridizing a plurality of targets from a sample with a plurality of nucleic acids each comprising a stochastic barcode comprising a first universal label, wherein the label is a nucleic acid label; extending the plurality of nucleic acids to generate a plurality of first strand polynucleotides, wherein the first strand polynucleotides are labeled cDNA molecules; synthesizing a plurality of second strand polynucleotides using the plurality of first strand polynucleotides as templates to generate a plurality of double-stranded polynucleotides; ligating an adaptor to the plurality of double-stranded polynucleotides, wherein said adaptor comprises a second universal label, so the plurality of double-stranded polynucleotides are quasi-symmetric stochastically barcoded nucleic acids having two ends that are quasi-symmetric comprising the first universal label and the second universal label, and wherein said second universal label is at most 99% identical to said first universal label, and wherein the second universal label can hybridize to the first universal label over at least 50% of the first universal label, wherein the quasi-symmetric stochastically barcoded nucleic acids are capable of undergoing suppression PCR; and amplifying the plurality of double-stranded polynucleotides using the first universal label and the second universal label, thereby generating a plurality of amplicons comprising the plurality of targets. hybridizing a plurality of targets from a sample with a plurality of nucleic acids each comprising a stochastic barcode comprising a first universal label, wherein the label is a nucleic acid label; extending the plurality of nucleic acids to generate a plurality of first strand polynucleotides, wherein the first strand polynucleotides are labeled cDNA molecules; synthesizing a plurality of second strand polynucleotides using the plurality of first strand polynucleotides as templates to generate a plurality of double-stranded polynucleotides; ligating an adaptor to the plurality of double-stranded polynucleotides, wherein said adaptor comprises a second universal label, so the plurality of double-stranded polynucleotides are quasi-symmetric stochastically barcoded nucleic acids having two ends that are quasi-symmetric comprising the first universal label and the second universal label, and wherein said second universal label is at most 99% identical to said first universal label, and wherein the second universal label can hybridize to the first universal label over at least 50% of the first universal label, wherein the quasi-symmetric stochastically barcoded nucleic acids are capable of undergoing suppression PCR; and amplifying the plurality of double-stranded polynucleotides using the first universal label and the second universal label, thereby generating a plurality of amplicons comprising the plurality of targets.
A filter assembly comprising: a filter media comprising a first end , a second end opposing the first end , and a filter body extending between the first end and the second end , wherein the filter media is arranged about a central media opening and wherein the filter media and the central media opening extend in an axial direction (a); an endcap coupled to the filter media along the first end , wherein the endcap defines an endcap opening , and wherein the endcap opening is in fluid communication with the central media opening ; and a disposal container extendable over the second end to sealably contain the filter body, wherein the disposal container is disposed around the endcap , wherein the disposal container comprises a first end and a second end opposing the first end , and wherein the first end is fixedly coupled to the endcap and the second end is open, wherein the disposal container does not extend over the endcap opening , and wherein the disposal container has a non-extended state and an extended state, wherein the first end and the second end of the disposal container are disposed adjacent the endcap in the non-extended state, wherein the second end of the disposal container extends beyond the second end of the filter media in the extended state, wherein the second end of the disposal container , in the extended state, is configured to be closed with a constraint to encapsulate the filter media of the filter assembly and particles thereon. a filter media comprising a first end , a second end opposing the first end , and a filter body extending between the first end and the second end , wherein the filter media is arranged about a central media opening and wherein the filter media and the central media opening extend in an axial direction (a); an endcap coupled to the filter media along the first end , wherein the endcap defines an endcap opening , and wherein the endcap opening is in fluid communication with the central media opening ; and a disposal container extendable over the second end to sealably contain the filter body, wherein the disposal container is disposed around the endcap , wherein the disposal container comprises a first end and a second end opposing the first end , and wherein the first end is fixedly coupled to the endcap and the second end is open, wherein the disposal container does not extend over the endcap opening , and wherein the disposal container has a non-extended state and an extended state, wherein the first end and the second end of the disposal container are disposed adjacent the endcap in the non-extended state, wherein the second end of the disposal container extends beyond the second end of the filter media in the extended state, wherein the second end of the disposal container , in the extended state, is configured to be closed with a constraint to encapsulate the filter media of the filter assembly and particles thereon.
Computer-implemented method comprising the steps of - receiving a plurality of first representations (F̃1, F̃2) of an examination region of an examination object in frequency space, at least some of the first representations (F̃1, F̃2) representing the examination region during a first time span after administration of a contrast agent, - feeding the plurality of first representations (F̃1, F̃2) to a prediction model (PM), the prediction model (PM) having been trained on the basis of first reference representations (F1, F2) of the examination region of a multiplicity of examination objects to generate from the first reference representations (F1, F2), of which at least some represent the examination region during a first time span after administration of a contrast agent in frequency space, one or more second reference representations (F3*) which represent the examination region during a second time span in frequency space, the second time span coming after the first time span, - receiving one or more predicted representations (F̃3*) of the examination region in frequency space from the prediction model (PM), the one or more predicted representations (F̃3*) representing the examination region during a second time span, the second time span coming after the first time span, - transforming the one or more predicted representations (F̃3*) into one or more representations (Õ3*) of the examination region in real space, - outputting the one or more representations (Õ3*) of the examination region in real space. - receiving a plurality of first representations (F̃1, F̃2) of an examination region of an examination object in frequency space, at least some of the first representations (F̃1, F̃2) representing the examination region during a first time span after administration of a contrast agent, - feeding the plurality of first representations (F̃1, F̃2) to a prediction model (PM), the prediction model (PM) having been trained on the basis of first reference representations (F1, F2) of the examination region of a multiplicity of examination objects to generate from the first reference representations (F1, F2), of which at least some represent the examination region during a first time span after administration of a contrast agent in frequency space, one or more second reference representations (F3*) which represent the examination region during a second time span in frequency space, the second time span coming after the first time span, - receiving one or more predicted representations (F̃3*) of the examination region in frequency space from the prediction model (PM), the one or more predicted representations (F̃3*) representing the examination region during a second time span, the second time span coming after the first time span, - transforming the one or more predicted representations (F̃3*) into one or more representations (Õ3*) of the examination region in real space, - outputting the one or more representations (Õ3*) of the examination region in real space.
An apparatus comprising: - a data transfer capable port configured to receive a data signal and for providing a first voltage to a first connected device; - a charge only capable port for providing a second voltage to a second connected device; - a power supply configured to generate the first voltage and the second voltage and for coupling the first voltage to the data transfer capable port and the second voltage to the charge only capable port; characterized by - a first light emitting diode proximate to the data transfer capable port wherein the first light emitting diode is configured to emit a first color light and a second color light; - a second light emitting diode proximate to the charge only capable port wherein the second light emitting diode is configured to emit the first color light; - a processor configured to detect a data connection request received at the charge only capable port and further configured to generate a control signal for switching the first light emitting diode from the first color light to the second color light in response to the data connection request. - a data transfer capable port configured to receive a data signal and for providing a first voltage to a first connected device; - a charge only capable port for providing a second voltage to a second connected device; - a power supply configured to generate the first voltage and the second voltage and for coupling the first voltage to the data transfer capable port and the second voltage to the charge only capable port; characterized by - a first light emitting diode proximate to the data transfer capable port wherein the first light emitting diode is configured to emit a first color light and a second color light; - a second light emitting diode proximate to the charge only capable port wherein the second light emitting diode is configured to emit the first color light; - a processor configured to detect a data connection request received at the charge only capable port and further configured to generate a control signal for switching the first light emitting diode from the first color light to the second color light in response to the data connection request.