mhurhangee/patent-ind-claim-en huggingface dataset:
A breath sensing system comprising: a breath sampling mask comprising a mask housing configured to cover a portion of the face of a patient , the mask housing defining a breath receiving chamber; and a chemical sensor element in fluid communication with the breath sampling mask , the chemical sensor element comprising a plurality of discrete binding detectors comprising graphene varactors, wherein the chemical sensor element interfaces with a breath sample collected through the breath sampling mask ; wherein the breath sampling mask comprises a nose clip for helping to secure the breath sampling mask to the face of a patient and an additional sensor connected to the nose clip . a breath sampling mask comprising a mask housing configured to cover a portion of the face of a patient , the mask housing defining a breath receiving chamber; and a chemical sensor element in fluid communication with the breath sampling mask , the chemical sensor element comprising a plurality of discrete binding detectors comprising graphene varactors, wherein the chemical sensor element interfaces with a breath sample collected through the breath sampling mask ; wherein the breath sampling mask comprises a nose clip for helping to secure the breath sampling mask to the face of a patient and an additional sensor connected to the nose clip .
A method 2. performed by a wireless device , comprising: determining one or more time resources in a particular carrier selected from one or more pools of time resources for a sidelink operation by the wireless device , wherein the one or more pools of time resources comprise one or more pools of device-to-device, D2D, resources indicated by a serving network node associated with the wireless device; and sending a gap request message to the network node , the gap request message indicating one or more gaps requested by the wireless device , the one or more gaps comprising the determined one or more time resources for the sidelink operation. determining one or more time resources in a particular carrier selected from one or more pools of time resources for a sidelink operation by the wireless device , wherein the one or more pools of time resources comprise one or more pools of device-to-device, D2D, resources indicated by a serving network node associated with the wireless device; and sending a gap request message to the network node , the gap request message indicating one or more gaps requested by the wireless device , the one or more gaps comprising the determined one or more time resources for the sidelink operation.
An X-ray source comprising a laser source and a solid material target, the laser source being adapted to generate an ultra-short pulse beam, and means adapted to direct the ultra-short pulse beam to an area of interaction with the target, the X-ray source including an axicon placed on the optical path between the laser source and the target, characterized in that : the target is a scrolling tape target .
Method for producing an ohmic contact for an electronic component, wherein a layer consisting of a semiconductor is applied directly or indirectly to a substrate , wherein a surface of the applied semiconductor to be contacted is wet-chemically etched, the wet-chemically etched surface is rinsed with radicals, the surface rinsed with radicals is processed with a metal vapor, wherein the metal vapor includes a metal which is also present in the semiconductor, and an electrical conductor or a semiconductor is applied to the surface rinsed with radicals.
A connector comprising a socket and an output configured to be connected to a cable, the output comprising conductive terminals electrically connected to the socket and a removable grommet device , the grommet device being provided with an opening configured to receive an unsheathed end of said cable along an insertion direction , the grommet device also being provided with a wire guide cage with passage notches for wires, the wire guide cage being configured to connect transmission wires of the cable to the conductive terminals , the connector further comprising a continuity recovery system configured to connect an electrical continuity wire of the cable to an outer shield of the connector , the continuity recovery system having a slot configured to receive the electrical continuity wire, the electrical continuity wire extending transversely to the insertion direction into the slot the grommet device and the continuity recovery system having an insertion end for the unsheathed end of the cable and a connection end opposite the insertion end along the insertion direction of the cable into the opening , the passage notches and the slot being provided in the connection end , characterized in that the continuity recovery system is attached to the grommet device , the continuity recovery system having an additional slot formed in the insertion end , the additional slot being configured to receive the electrical continuity wire, the electrical continuity wire extending transversely to the insertion direction into the additional slot . the grommet device being provided with an opening configured to receive an unsheathed end of said cable along an insertion direction , the grommet device also being provided with a wire guide cage with passage notches for wires, the wire guide cage being configured to connect transmission wires of the cable to the conductive terminals , the connector further comprising a continuity recovery system configured to connect an electrical continuity wire of the cable to an outer shield of the connector , the continuity recovery system having a slot configured to receive the electrical continuity wire, the electrical continuity wire extending transversely to the insertion direction into the slot the grommet device and the continuity recovery system having an insertion end for the unsheathed end of the cable and a connection end opposite the insertion end along the insertion direction of the cable into the opening , the passage notches and the slot being provided in the connection end , characterized in that the continuity recovery system is attached to the grommet device , the continuity recovery system having an additional slot formed in the insertion end , the additional slot being configured to receive the electrical continuity wire, the electrical continuity wire extending transversely to the insertion direction into the additional slot .
A parallel-plate non-uniform electric field ion mobility spectrometer including a pair of parallel plate electrodes and a main voltage generator configured for applying an asymmetric pulse voltage to the plate electrodes so as to create a non-uniform electric field within an ion separation space between the plate electrodes , for separating ions according to mobility by introducing ions derived from a sample component into the ion separation space while a flow of buffer gas is passed through the ion separation space at a constant flow velocity in a same direction as a direction in which the ions are introduced, and by controlling a movement of the ions by an effect of the non-uniform electric field while the ions are carried by the flow of buffer gas, the ion mobility spectrometer comprising: a) at least two electric-field correction electrodes located within the ion separation space sandwiched between the plate electrodes , the electric-field correction electrodes shaped like rods extending in a same direction as a passing direction of the ions and facing each other across an area where the ions pass through; and b) an electric-field correction voltage generator configured for applying, to the electric-field correction electrodes , a voltage obtained by adding a predetermined DC voltage and a pulse voltage synchronized with the asymmetric pulse voltage. a) at least two electric-field correction electrodes located within the ion separation space sandwiched between the plate electrodes , the electric-field correction electrodes shaped like rods extending in a same direction as a passing direction of the ions and facing each other across an area where the ions pass through; and b) an electric-field correction voltage generator configured for applying, to the electric-field correction electrodes , a voltage obtained by adding a predetermined DC voltage and a pulse voltage synchronized with the asymmetric pulse voltage.
A bovine intestinal alkaline phosphatase (bIAP) for use in a method of treating or preventing a neurodevelopmental disorder in a subject in need thereof comprising, administering to the subject the bIAP, wherein the neurodevelopmental disorder is selected from autism spectrum disorder (ASD), schizophrenia, attention deficit hyperactivity disorder (ADHD), schizoaffective disorder, and bipolar affective disorder.
A non-naturally occurring microbial organism, said microbial organism having a 4-hydroxybutyrate pathway and being capable of producing 4-hydroxybutyrate, wherein said microbial organism comprises the genetic modifications (A) a genetic modification that increases expression of phosphoenolpyruvate carboxylase; and (B) a genetic modification that decreases expression of an acyl coenzyme A thioesterase. (A) a genetic modification that increases expression of phosphoenolpyruvate carboxylase; and (B) a genetic modification that decreases expression of an acyl coenzyme A thioesterase.
Multi-walled pipe component for pipelines which convey fluids, wherein the pipe component is a curved, angled, or forked pipe component , manufactured by means of generative manufacturing methods, and is constructed from single-piece wall elements which are arranged inside one another and are not connected, wherein an outer wall element encloses in the circumferential direction at least one inner wall element , such that a cavity space is formed between the outer wall element and the at least one inner wall element, which is filled with a filling material, characterised in that at predetermined intervals along its circumference the cavity space comprises circular depressions which widen the cavity space , wherein the depressions extend in the longitudinal direction of the component along its entire length.
Ball joint, in particular chassis joint, having a housing and a ball shell which has a ball-bearing portion for receiving a joint ball , and having a rotation-prevention means which blocks a movement of the ball shell within the housing , wherein, for the formation of the rotation-prevention means , the housing and the ball shell each have at least one connecting element , which have corresponding holding profiles , so that, in the assembled state, the connecting elements form a form-fitting plug connection, characterized in that , in the outer side of the ball shell , there is formed a recess which completely surrounds the connecting element of the ball shell and into which the housing engages with a correspondingly formed annular elevation in the assembled state, wherein, in cross section, the recess is of substantially U-shaped form, and the annular elevation of the housing is formed as an abutment surface on the side facing towards the ball-bearing portion , wherein the ball-bearing portion is supported against the abutment surface of the housing under the action of forces acting in the direction of the rotation-prevention means .
A static mixer , comprising: a housing defining an internal mixing cavity that longitudinally extends along a central axis between an inlet and an outlet and is adapted for axial flow of a fluid therethrough; and a mixing element disposed within the mixing cavity , the mixing element configured to be free from an impingement surface oriented substantially perpendicular to a main direction of fluid flow through the internal mixing cavity and comprising an elongated mixing blade oriented longitudinally within the mixing cavity and having a nose axially oriented toward the inlet , characterized in that the nose of the mixing blade comprises a pair of leading edges extending obliquely inward and toward the inlet from a lateral side of the mixing blade and convergent at an apex . a housing defining an internal mixing cavity that longitudinally extends along a central axis between an inlet and an outlet and is adapted for axial flow of a fluid therethrough; and a mixing element disposed within the mixing cavity , the mixing element configured to be free from an impingement surface oriented substantially perpendicular to a main direction of fluid flow through the internal mixing cavity and comprising an elongated mixing blade oriented longitudinally within the mixing cavity and having a nose axially oriented toward the inlet , characterized in that the nose of the mixing blade comprises a pair of leading edges extending obliquely inward and toward the inlet from a lateral side of the mixing blade and convergent at an apex .
A method comprising: transmitting within a first sub-band using a plurality of sub-carriers with a first sub-carrier spacing ; transmitting within a second sub-band using a plurality of sub-carriers with a second sub-carrier spacing , the first sub-band being lower in frequency than the second sub-band ; wherein a highest frequency sub-carrier used in the first sub-band is spaced from a lowest frequency sub-carrier used in the second sub-band by a spacing equal to an integer multiple of the smaller of the first and second sub-carrier spacings , and equal to a non-integer multiple of the larger of the first and second sub-carrier spacings ; wherein sub-bands with different sub-carrier spacings have their sub-carriers in a common grid with a grid spacing based on the smallest sub-carrier spacing used by one of the first sub-band and the second sub-band ; characterised by shifting the plurality of sub-carriers of the first or second sub-band with the larger sub-carrier spacing by an integer multiple of the grid spacing, wherein a remaining bandwidth of said sub-band corresponding to a fraction of the larger of the first and second sub-carrier spacing is allocated to one end of said sub-band and the shifting the plurality of sub-carriers of said sub-band is applied from the other end of said sub-band . transmitting within a first sub-band using a plurality of sub-carriers with a first sub-carrier spacing ; transmitting within a second sub-band using a plurality of sub-carriers with a second sub-carrier spacing , the first sub-band being lower in frequency than the second sub-band ; wherein a highest frequency sub-carrier used in the first sub-band is spaced from a lowest frequency sub-carrier used in the second sub-band by a spacing equal to an integer multiple of the smaller of the first and second sub-carrier spacings , and equal to a non-integer multiple of the larger of the first and second sub-carrier spacings ; wherein sub-bands with different sub-carrier spacings have their sub-carriers in a common grid with a grid spacing based on the smallest sub-carrier spacing used by one of the first sub-band and the second sub-band ; characterised by shifting the plurality of sub-carriers of the first or second sub-band with the larger sub-carrier spacing by an integer multiple of the grid spacing, wherein a remaining bandwidth of said sub-band corresponding to a fraction of the larger of the first and second sub-carrier spacing is allocated to one end of said sub-band and the shifting the plurality of sub-carriers of said sub-band is applied from the other end of said sub-band .
Method for manufacturing a hollowcore concrete slab, comprising: - fixing an active reinforcement to a table , the table extending along a longitudinal direction , the table comprising a table surface , the active reinforcement extending at a distance from the table surface and parallel to the table surface along the longitudinal direction of the table; - prestressing the active reinforcement; - pouring concrete into a mold formed by the table and at least two side walls; - curing the concrete into a hollowcore concrete slab; - removing the hollowcore concrete slab from the table; wherein after the concrete has been poured and before the concrete has cured, a passive reinforcement is placed in the concrete, characterized in that after the concrete has been poured and before the concrete has cured, the method comprises the additional step of pressing the concrete with the aid of a stamp. - fixing an active reinforcement to a table , the table extending along a longitudinal direction , the table comprising a table surface , the active reinforcement extending at a distance from the table surface and parallel to the table surface along the longitudinal direction of the table; - prestressing the active reinforcement; - pouring concrete into a mold formed by the table and at least two side walls; - curing the concrete into a hollowcore concrete slab; - removing the hollowcore concrete slab from the table;
A filtering element comprising: a. a cylindrical body, having an outer surface exposed to unfiltered material and an inner surface; b. a closed end ; c. an open end through which filtered material passes; and d. a wireless electronic device affixed to said filtering element , said electronic device comprising an antenna adapted to receive an electromagnetic field generated by a powered loop antenna and convert it to alternating current; characterized by an unpowered electromagnetically resonant antenna affixed to said filtering element in proximity to said electronic device and positioned so as to enhance said electromagnetic field received by said electronic device , wherein the wireless electronic device is disposed between the powered loop antenna and the unpowered electromagnetically resonant antenna . a. a cylindrical body, having an outer surface exposed to unfiltered material and an inner surface; b. a closed end ; c. an open end through which filtered material passes; and d. a wireless electronic device affixed to said filtering element , said electronic device comprising an antenna adapted to receive an electromagnetic field generated by a powered loop antenna and convert it to alternating current; characterized by an unpowered electromagnetically resonant antenna affixed to said filtering element in proximity to said electronic device and positioned so as to enhance said electromagnetic field received by said electronic device , wherein the wireless electronic device is disposed between the powered loop antenna and the unpowered electromagnetically resonant antenna .
A long-acting injectable composition for the treatment or prevention of a parasitic infection or infestation in an animal, said composition comprising: a) an effective amount of at least one parasiticidal isoxazoline active agent, which is a compound of formula (Ic): or a pharmaceutically acceptable salt thereof; wherein X 1 , X 2 and X 3 are each independently halogen, C 1 -C 3 alkyl or C 1 -C 3 haloalkyl; b) at least one pharmaceutically acceptable polymer which is a liquid PEG; c) optionally, at least one co-solvent wherein said co-solvent is a polar solvent miscible in water; d) optionally, an antioxidant; and e) optionally at least one pharmaceutically acceptable additive, excipient or mixtures thereof; wherein no other pharmaceutically acceptable polymers are present. a) an effective amount of at least one parasiticidal isoxazoline active agent, which is a compound of formula (Ic): or a pharmaceutically acceptable salt thereof; wherein X 1 , X 2 and X 3 are each independently halogen, C 1 -C 3 alkyl or C 1 -C 3 haloalkyl; b) at least one pharmaceutically acceptable polymer which is a liquid PEG; c) optionally, at least one co-solvent wherein said co-solvent is a polar solvent miscible in water; d) optionally, an antioxidant; and e) optionally at least one pharmaceutically acceptable additive, excipient or mixtures thereof;
A system for tong assembly operation, comprising: a mode switch for shifting the tong assembly between a first mode of operation and a second mode of operation, the mode switch having a first portion associated with the first mode and a second portion associated with the second mode; a first target coupled to the first portion , the first target movable to a first position corresponding to the first mode of operation; a second target coupled to the second portion , the second target movable to a second position corresponding to the second mode of operation; a first sensor configured to identify the first position of the first target ; and a second sensor configured to identify the second position of the second target . a mode switch for shifting the tong assembly between a first mode of operation and a second mode of operation, the mode switch having a first portion associated with the first mode and a second portion associated with the second mode; a first target coupled to the first portion , the first target movable to a first position corresponding to the first mode of operation; a second target coupled to the second portion , the second target movable to a second position corresponding to the second mode of operation; a first sensor configured to identify the first position of the first target ; and a second sensor configured to identify the second position of the second target .
An ion reflector for use with a mass spectrometer, the reflector being configured for modifying a path of travel of a flow of ions from a first axis of travel to a second axis of travel, said second axis of travel being distinct from the first axis of travel, the reflector including an electrical field arrangement comprising an assembly which includes a first chargeable element and a second chargeable element , which each can be arranged with a voltage source so as to exhibit either a positive or negative bias potential, wherein an intended pathway of the flow of ions from the first to the second spatial region flows intermediate of the first and second chargeable element, and wherein the first and second axes of travel define a relative angle therebetween, wherein the first chargeable element is disposed entirely within the relative angle between the first and second axes, and wherein the flow of ions from the first spatial region to the second spatial region circumvents the first chargeable element, wherein an intended pathway of the flow of ions from the first to the second spatial region flows intermediate of the first and second chargeable element, characterized in that the electrical field arrangement is configured so as to provide an ellipsoidal electric field causing the flow of ions, which is focused towards a first spatial region, to be reflected and focused towards a second spatial region such that the ionic flux at the second spatial region is substantially the same as the ionic flux at the first spatial region, whereby the first spatial region is aligned with the first axis of travel and the second spatial region is aligned with the second axis of travel of said flow of ions.