mhurhangee/patent-ind-claim-en huggingface dataset:
A high-efficiency, HE, wireless local-area network device, the HE wireless device being an access point, AP, and comprising circuitry configured to: operate in accordance with orthogonal frequency division multiple access, OFDMA, on a plurality of subchannels and a primary channel ; transmit a schedule that assigns each of one or more HE wireless devices to one or more of the plurality of subchannels or the primary channel , wherein at least one of the one or more HE wireless devices is assigned to one of the plurality of subchannels ; transmit a legacy beacon on the primary channel with a first periodicity to one or more legacy devices and to refrain from transmitting the legacy beacon on the plurality of subchannels ; and transmit an HE beacon on the plurality of subchannels to the one or more HE devices with a second periodicity, wherein the primary channel is a different 20 MHz subchannel from each of the plurality of subchannels . operate in accordance with orthogonal frequency division multiple access, OFDMA, on a plurality of subchannels and a primary channel ; transmit a schedule that assigns each of one or more HE wireless devices to one or more of the plurality of subchannels or the primary channel , wherein at least one of the one or more HE wireless devices is assigned to one of the plurality of subchannels ; transmit a legacy beacon on the primary channel with a first periodicity to one or more legacy devices and to refrain from transmitting the legacy beacon on the plurality of subchannels ; and transmit an HE beacon on the plurality of subchannels to the one or more HE devices with a second periodicity, wherein the primary channel is a different 20 MHz subchannel from each of the plurality of subchannels .
A method performed by a wireless device, comprising: receiving, from a base station, access network information; determining, based on the access network information, an access network type, which is one of: a terrestrial network, TN, access network type and a geostationary earth orbit, GEO, access network type; selecting, based on the access network type, a non-access stratum, NAS, period value from between: a first NAS period value associated with the TN access network type; and a second NAS period value associated with the GEO access network type; sending, to an access and mobility management function, AMF, a first NAS request message; and starting, based on the sending the first NAS request message, a NAS period using the NAS period value. receiving, from a base station, access network information; determining, based on the access network information, an access network type, which is one of: a terrestrial network, TN, access network type and a geostationary earth orbit, GEO, access network type; selecting, based on the access network type, a non-access stratum, NAS, period value from between: a first NAS period value associated with the TN access network type; and a second NAS period value associated with the GEO access network type; a first NAS period value associated with the TN access network type; and a second NAS period value associated with the GEO access network type; sending, to an access and mobility management function, AMF, a first NAS request message; and starting, based on the sending the first NAS request message, a NAS period using the NAS period value.
A laminate membrane for sealing an inner compartment in a packaging container , said laminate membrane comprising a top member and a bottom member , said top and bottom members being laminated sheet materials, said top member having a thickness (T tm ), said top member having a top member first surface and a top member second surface facing said bottom member , said bottom member having a bottom member first surface and a bottom member second surface , said bottom member first surface facing said top member second surface , said laminate membrane is provided with a valve for allowing gas in said inner compartment of said packaging container to exit therefrom, said valve having a valve outer edge and is arranged on said bottom member first surface , said top member being provided with an opening having an opening edge , said valve being arranged within said opening such that said opening edge encircles said valve , characterized in that a surface area of the opening is greater than a surface area of the valve , and wherein said valve has a thickness (T v ) and wherein T v ≤ T tm .
An annular barrier for being expanded in an annulus between a well tubular structure and a wall of a borehole downhole for isolating a first zone from a second zone in the annulus between the well tubular structure and the wall of the borehole, the annulus having an annulus pressure, comprising: - a tubular part for being mounted as part of the well tubular structure, the tubular part comprising an opening and an inside having an inside pressure, - an expandable metal sleeve surrounding the tubular part and having an inner face facing the tubular part and an outer face facing the wall of the borehole, - each end of the expandable metal sleeve being connected with the tubular part , - an annular space between the inner face of the expandable metal sleeve and the tubular part, the annular space having a space pressure, and - a valve system comprising a first valve and a second valve , the second valve allowing pressurised fluid into the annular space to expand the expandable metal sleeve and preventing fluid from flowing from the annular space to the inside of the tubular part , wherein the first valve has a first position allowing fluid communication between the inside of the tubular part and the second valve in order to expand the expandable metal sleeve when increasing the inside pressure, and a second position providing fluid communication between the annular space and the annulus, wherein the first valve is configured to shift from the first position to the second position when the space pressure is higher than the inside pressure. - a tubular part for being mounted as part of the well tubular structure, the tubular part comprising an opening and an inside having an inside pressure, - an expandable metal sleeve surrounding the tubular part and having an inner face facing the tubular part and an outer face facing the wall of the borehole, - each end of the expandable metal sleeve being connected with the tubular part , - an annular space between the inner face of the expandable metal sleeve and the tubular part, the annular space having a space pressure, and - a valve system comprising a first valve and a second valve , the second valve allowing pressurised fluid into the annular space to expand the expandable metal sleeve and preventing fluid from flowing from the annular space to the inside of the tubular part ,
A surgical instrument retainer receivable in an end effector coupler of a surgical arm , the instrument retainer comprising: a proximal component comprising: a head engageable with the end effector coupler to position the instrument retainer within the end effector coupler ; a first body extending distally from the head along a longitudinal axis, the head together with the first body defining a first instrument bore extending through the head and the first body ; and a proximal plurality of projections extending radially inward from the head into the first instrument bore to engage an instrument when the instrument is positioned within the first instrument bore ; and a distal component defining a second instrument bore extending therethrough, and defining a body bore configured to receive the first body therein to secure the proximal component to the distal component and to align the first instrument bore with the second instrument bore , the distal component comprising: a distal plurality of projections extending radially inward from the distal component into the second instrument bore to engage the instrument when the instrument is positioned within the second instrument bore and to, together with the proximal plurality of projections , center the instrument within the first instrument bore and the second instrument bore . a proximal component comprising: a head engageable with the end effector coupler to position the instrument retainer within the end effector coupler ; a first body extending distally from the head along a longitudinal axis, the head together with the first body defining a first instrument bore extending through the head and the first body ; and a proximal plurality of projections extending radially inward from the head into the first instrument bore to engage an instrument when the instrument is positioned within the first instrument bore ; and a head engageable with the end effector coupler to position the instrument retainer within the end effector coupler ; a first body extending distally from the head along a longitudinal axis, the head together with the first body defining a first instrument bore extending through the head and the first body ; and a proximal plurality of projections extending radially inward from the head into the first instrument bore to engage an instrument when the instrument is positioned within the first instrument bore ; and a distal component defining a second instrument bore extending therethrough, and defining a body bore configured to receive the first body therein to secure the proximal component to the distal component and to align the first instrument bore with the second instrument bore , the distal component comprising: a distal plurality of projections extending radially inward from the distal component into the second instrument bore to engage the instrument when the instrument is positioned within the second instrument bore and to, together with the proximal plurality of projections , center the instrument within the first instrument bore and the second instrument bore .
Use of a compound of general formula (I) where B is (i) a divalent aromatic C 6 -C 20 hydrocarbon group which comprises an optionally substituted benzene ring, (ii) a divalent aromatic-aliphatic hydrocarbon group of formula (Z) where R 2 is a divalent branched or linear aliphatic C 1 -C 6 alkylene group, or (iii) a divalent linear or branched aliphatic C 5 -C 8 hydrocarbon group, and each R 1 is, independently of one another, a branched or linear aliphatic C 1 -C 15 alkylene group, in a reactive resin component for chemical fastening to improve the thixotropic properties of the reactive resin component and/or the afterflow behavior of a reactive resin system comprising the reactive resin component. (i) a divalent aromatic C 6 -C 20 hydrocarbon group which comprises an optionally substituted benzene ring, (ii) a divalent aromatic-aliphatic hydrocarbon group of formula (Z) where R 2 is a divalent branched or linear aliphatic C 1 -C 6 alkylene group, or (iii) a divalent linear or branched aliphatic C 5 -C 8 hydrocarbon group, and each R 1 is, independently of one another, a branched or linear aliphatic C 1 -C 15 alkylene group, in a reactive resin component for chemical fastening to improve the thixotropic properties of the reactive resin component and/or the afterflow behavior of a reactive resin system comprising the reactive resin component. each R 1 is, independently of one another, a branched or linear aliphatic C 1 -C 15 alkylene group, in a reactive resin component for chemical fastening to improve the thixotropic properties of the reactive resin component and/or the afterflow behavior of a reactive resin system comprising the reactive resin component.
A multi-junction photovoltaic device comprising: a first photovoltaic sub-cell comprising a photoactive region comprising a layer of perovskite material; a second photovoltaic sub-cell comprising a photoactive silicon absorber; and an intermediate region disposed between and connecting the first photovoltaic sub-cell and the second photovoltaic sub-cell ; wherein the intermediate region comprises an interconnect layer , characterised in that the interconnect layer comprises a two-phase material comprising elongate silicon nanocrystals embedded in a silicon oxide matrix ; wherein the elongate silicon nanocrystals are doped, with either n-type or p-type doping; and wherein a longitudinal axis of the elongate silicon nanocrystals is substantially perpendicular to opposing surfaces of the first photovoltaic sub-cell and the second photovoltaic sub-cell . a first photovoltaic sub-cell comprising a photoactive region comprising a layer of perovskite material; a second photovoltaic sub-cell comprising a photoactive silicon absorber; and an intermediate region disposed between and connecting the first photovoltaic sub-cell and the second photovoltaic sub-cell ; wherein the intermediate region comprises an interconnect layer , characterised in that the interconnect layer comprises a two-phase material comprising elongate silicon nanocrystals embedded in a silicon oxide matrix ; wherein the elongate silicon nanocrystals are doped, with either n-type or p-type doping; and wherein a longitudinal axis of the elongate silicon nanocrystals is substantially perpendicular to opposing surfaces of the first photovoltaic sub-cell and the second photovoltaic sub-cell .
An intelligent hub device, comprising a plurality of detector connectors configured to receive measurement signals from detectors intended to be connected thereto, and to output control signals to the detectors, at least one of the intended detectors comprising an array of individually addressable and readable sensors, controlling means configured to output for each of the plurality of detectors a corresponding control signal to induce each of the detectors to measure and output resulting measurement signals, including an array control signal to the array of individually addressable and readable sensors intended to address only a subset of these sensors such that these become the only sensors of the array to output array measurement signal to the hub, reading means configured to receive the output measurement signal and the array measurement signal, processing means configured to at least operate the controlling means, and com munication means configured to handle data communication of the processing means to an outside of the hub.
A method of preparing a positive electrode active material, the method comprising: mixing a nickel cobalt manganese hydroxide precursor containing nickel in an amount of 60 mol% or more based on a total number of moles of transition metals, a lithium-containing raw material, and a compound represented by Formula 2 as a doping raw material; and sintering the mixture to prepare a positive electrode active material represented by Formula 1: [Formula 1] Li 1+x [Ni a Me 1-(a+b) M 1 b ] 1-x O 2 [Formula 2] Li 1+x1 M 2 O 2+y wherein, in Formula 1, 0≤x≤0.1, 0.6≤a≤0.9995, 0.0005≤b≤0.01, 0.6005≤a+b<1, Me comprises at least two selected from the group consisting of cobalt (Co), manganese (Mn), and aluminum (Al), and M 1 comprises at least one selected from the group consisting of lithium (Li), zirconium (Zr), titanium (Ti), tantalum (Ta), silicon (Si), and niobium (Nb), and wherein, in Formula 2, 0≤x1≤7, 1≤y<6, and M 2 comprises at least one selected from the group consisting of Li, Zr, Ti, Ta, Si, and Nb. mixing a nickel cobalt manganese hydroxide precursor containing nickel in an amount of 60 mol% or more based on a total number of moles of transition metals, a lithium-containing raw material, and a compound represented by Formula 2 as a doping raw material; and sintering the mixture to prepare a positive electrode active material represented by Formula 1: [Formula 1] Li 1+x [Ni a Me 1-(a+b) M 1 b ] 1-x O 2 [Formula 2] Li 1+x1 M 2 O 2+y wherein, in Formula 1, 0≤x≤0.1, 0.6≤a≤0.9995, 0.0005≤b≤0.01, 0.6005≤a+b<1, Me comprises at least two selected from the group consisting of cobalt (Co), manganese (Mn), and aluminum (Al), and M 1 comprises at least one selected from the group consisting of lithium (Li), zirconium (Zr), titanium (Ti), tantalum (Ta), silicon (Si), and niobium (Nb), and wherein, in Formula 2, 0≤x1≤7, 1≤y<6, and M 2 comprises at least one selected from the group consisting of Li, Zr, Ti, Ta, Si, and Nb.
An SCR mixer comprising: a first space into which at least a portion of exhaust gas is introduced; a second space into which at least another portion of the exhaust gas is introduced, the second space surrounding the first space ; and an injection portion configured to inject a reducing agent into the first space , characterized in that: the SCR mixer further comprises a first changing unit configured to change a flow of the exhaust gas that is introduced into the first space , wherein the first changing unit includes a swirl generator configured to swirl the exhaust gas and the second space communicates with the first space in order to cause the exhaust gas introduced into the second space to flow into the first space . a first space into which at least a portion of exhaust gas is introduced; a second space into which at least another portion of the exhaust gas is introduced, the second space surrounding the first space ; and an injection portion configured to inject a reducing agent into the first space , characterized in that: the SCR mixer further comprises a first changing unit configured to change a flow of the exhaust gas that is introduced into the first space , wherein the first changing unit includes a swirl generator configured to swirl the exhaust gas and the second space communicates with the first space in order to cause the exhaust gas introduced into the second space to flow into the first space . the SCR mixer further comprises a first changing unit configured to change a flow of the exhaust gas that is introduced into the first space , wherein the first changing unit includes a swirl generator configured to swirl the exhaust gas and the second space communicates with the first space in order to cause the exhaust gas introduced into the second space to flow into the first space .
Multimeric ribonucleoproteins (RNPs) obtainable by a process, wherein said process comprises the steps of: (i) obtaining a recombinant yeast, which is recombined with a polynucleotide encoding a fusion protein and which constitutively or transitorily or inducibly expresses multimeric RNPs, or recombinant yeast lysate thereof, and (ii) recovering the multimeric RNPs from the recombinant yeast or recombinant yeast lysate; and wherein the multimeric RNPs have a quaternary structure containing at least 200 fusion proteins assembled with a cellular ribonucleic acid (RNA), wherein the fusion protein comprises a nucleoprotein (N) of a non-segmented negative-strand RNA virus of the Paramyxoviridae family fused directly or indirectly with a heterologous polypeptide carrying one or a plurality of epitopes, and wherein the cellular RNA is transcribed from the genome of the recombinant yeast cell. (i) obtaining a recombinant yeast, which is recombined with a polynucleotide encoding a fusion protein and which constitutively or transitorily or inducibly expresses multimeric RNPs, or recombinant yeast lysate thereof, and (ii) recovering the multimeric RNPs from the recombinant yeast or recombinant yeast lysate; and
A liquid heating apparatus for heating a liquid received from a liquid inlet to a liquid outlet, the apparatus comprising: - a top portion with a burner unit , wherein said burner unit is arranged to burn a fuel so as to generate a flame, where the flame is directed downwards, - a coil arranged for transporting the liquid between a coil inlet and a coil outlet , said coil comprising at least a first and a second layer of windings wherein the second layer of windings are arranged around the first layer of windings and the coil outlet are connected to the liquid outlet, - an external housing , - an internal housing arranged at least partially within the external housing, where the apparatus is arranged to be in a substantially upright position during operation, wherein the coil is arranged inside the internal housing, wherein a compartment between the internal housing and the external housing serves as a liquid reservoir , so that liquid surrounds at least a bottom portion of the internal housing, wherein the liquid reservoir comprises an inlet connected to receive liquid from the liquid inlet, and an outlet connected to the coil inlet, wherein the flame from the burner unit is peripherally contained by an inner part of the first layer of windings of the coil, wherein the flame or exhaust gases are being directed downwards within the first layer of windings towards the bottom portion of the internal housing, and wherein the flame or exhaust gases are redirected from said bottom portion towards a space between the first layer of windings and an inner wall of the internal housing so as to allow the flame or exhaust gases to contact all of: the second layer of windings, the inner wall of the internal housing, and the first layer of windings. - a top portion with a burner unit , wherein said burner unit is arranged to burn a fuel so as to generate a flame, where the flame is directed downwards, - a coil arranged for transporting the liquid between a coil inlet and a coil outlet , said coil comprising at least a first and a second layer of windings wherein the second layer of windings are arranged around the first layer of windings and the coil outlet are connected to the liquid outlet, - an external housing , - an internal housing arranged at least partially within the external housing,
Use of a device comprising: - means for producing compression pressure values capable of being exerted by said orthosis on the surface of the limb at a corresponding plurality of predetermined points, said device being characterized in that it additionally comprises: - means for numerically simulating the action of the compression on the haemodynamics of the venous return, able to deliver values of blood flow rate and/or intravenous pressure at a plurality of points of a numerical model representative of the sural venous network of a limb, and - means for presenting said values of blood flow rate and/or intravenous pressure that are determined by these numerical simulation means, and - means for applying, as input to said numerical simulation means , said compression pressure values capable of being exerted by said orthosis on the surface of the limb at a corresponding plurality of predetermined points, the numerical simulation means also being able to receive as input a posture parameter from among an orthostatic position, a dorsal decubitus position, a walking position and a seated position, and being able to select or adapt the numerical model of the venous network as a function of this posture parameter, in order to evaluate the efficacy of a given compression on the venous return, so as to define optimized pressure profiles, then, on the basis of the optimal profiles thus found, to choose an orthosis from a pre-existing range or to manufacture a made-to-measure orthosis according to the morphological characteristics of a patient. - means for producing compression pressure values capable of being exerted by said orthosis on the surface of the limb at a corresponding plurality of predetermined points, - means for numerically simulating the action of the compression on the haemodynamics of the venous return, able to deliver values of blood flow rate and/or intravenous pressure at a plurality of points of a numerical model representative of the sural venous network of a limb, and - means for presenting said values of blood flow rate and/or intravenous pressure that are determined by these numerical simulation means, and - means for applying, as input to said numerical simulation means , said compression pressure values capable of being exerted by said orthosis on the surface of the limb at a corresponding plurality of predetermined points,