mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a wireless device for configuring a radio link monitoring evaluation period, comprising: determining an evaluation period covering at least some reference signal resources of a set of reference signal resources that are transmitted by a network node, with at least one of the reference signal resources in the set being of a different type than another of the reference signal resources in the set, wherein a first type is synchronization signal block, SSB, and a second type is channel state information reference signal, CSI-RS, the covered reference signal resources defining a portion of reference signal resources of the set, and the evaluation period being common to the covered reference signal resources; and monitoring channel quality of the portion of reference signal resources of the set that are received during the determined evaluation period. determining an evaluation period covering at least some reference signal resources of a set of reference signal resources that are transmitted by a network node, with at least one of the reference signal resources in the set being of a different type than another of the reference signal resources in the set, wherein a first type is synchronization signal block, SSB, and a second type is channel state information reference signal, CSI-RS, the covered reference signal resources defining a portion of reference signal resources of the set, and the evaluation period being common to the covered reference signal resources; and monitoring channel quality of the portion of reference signal resources of the set that are received during the determined evaluation period.
Method for aligning an x-ray apparatus, wherein the apparatus comprises - an electron beam source, emitting an electron beam, - a target, onto which the electron beam is directed, thus forming a focal spot (5; 5a, 5b) on the target, - x-ray optics, collecting x-rays from a focus of the x-ray optics, wherein the focal spot (5; 5a, 5b) is moved on the target by deflecting the electron beam by means of an electric and/or magnetic field, and/or the spot area (Aa, Ab) of the focal spot (5; 5a, 5b) is changed by changing the focusing of the electron beam by means of an electric and/or magnetic field, until the photon flux or the photon flux density of an x-ray beam formed by the x-ray optics is maximized, characterized in that the target of the apparatus is chosen as a target with a curved surface having a radius of curvature R, with 0 < R ≤ 1mm, and that the apparatus is switched between two operation modes by moving the focal spot (5; 5a, 5b) on the curved surface of the target to a different position, with at least a movement component in a plane (yz) in which the target surface is curved, wherein in a first of the operation modes the photon flux is maximized, and wherein in a second of the operation modes the photon flux density is maximized. - an electron beam source, emitting an electron beam, - a target, onto which the electron beam is directed, thus forming a focal spot (5; 5a, 5b) on the target, - x-ray optics, collecting x-rays from a focus of the x-ray optics,
A positive electrode plate, comprising: a positive electrode current collector and a positive electrode active material layer disposed on at least one surface of the positive electrode current collector, characterized in that, the positive electrode active material layer comprises a first positive electrode active material represented by chemical formula and a second positive electrode active material represented by chemical formula: Li 1+x A a Fe y Mn z Ti v PO 4-w S w, wherein in chemical formula, -0.1<x<0.1, 0<a<0.01, 0≤y≤1, 0≤z≤1, 0.001<v<0.005, 0≤w<0.05, and A comprises at least one of Na or K; and Li 2+r Na s M 1+q O 2+t, wherein in chemical formula, -0.2<r<0.2, 0<s<0.05, -0.1<q<0.1, 0≤t<0.05, and M comprises at least one of Ni, Cu, Mn, Fe, or Co; and a compacted density of the positive electrode plate is R g/cm 3, and single surface density of the positive electrode plate is Q g/1540.25 mm 2, wherein 5.2≤R/Q≤13.5, wherein the compacted density R of the positive electrode plate is calculated using the formula: R=m/v, wherein m is the mass of the positive electrode active material layer in a unit of g and v is the volume of the positive electrode active material layer in a unit of cm 3, said volume v being a product of an area Ar of the positive electrode active material layer and a thickness of the positive electrode active material layer, wherein the single surface density Q of the positive electrode plate is calculated using the formula: Q=1540.25m/Ar, wherein m is the mass of the positive electrode active material layer in a unit of g and Ar is an area of the positive electrode active material layer in a unit of mm 2. wherein in chemical formula, -0.2<r<0.2, 0<s<0.05, -0.1<q<0.1, 0≤t<0.05, and M comprises at least one of Ni, Cu, Mn, Fe, or Co; and a compacted density of the positive electrode plate is R g/cm 3, and single surface density of the positive electrode plate is Q g/1540.25 mm 2, wherein 5.2≤R/Q≤13.5, wherein the compacted density R of the positive electrode plate is calculated using the formula: R=m/v, wherein m is the mass of the positive electrode active material layer in a unit of g and v is the volume of the positive electrode active material layer in a unit of cm 3, said volume v being a product of an area Ar of the positive electrode active material layer and a thickness of the positive electrode active material layer, wherein the single surface density Q of the positive electrode plate is calculated using the formula: Q=1540.25m/Ar, wherein m is the mass of the positive electrode active material layer in a unit of g and Ar is an area of the positive electrode active material layer in a unit of mm 2.
A cabinet system, having a cabinet housing into which at least one component (100; 200) for the interior fittings, having a mounting section (110, 210) that has a first end (111,211) and a second end (112, 212) at a distance from the first, is installed and held on the cabinet housing with a form-fitting connection and under mechanical tension, for which purpose a supporting section (120; 220) is provided at the first end (111; 211) and a tensioning section (130; 230) is provided at the second end (112; 222), characterized in that imprints are affixed on the inner sides of walls, of a floor and/or of a ceiling of the cabinet housing, which imprints are in engagement with structures (140, 141, 142, 143, 144, 145; 240, 241, 242, 243, 244, 245) that are complementary, at least in part, on at least one of the ends (111, 211; 112, 212) of the component (100; 200) that are spaced apart, wherein the at least partially complementary structures (140, 141, 142, 143, 144, 145; 240, 241, 242, 243, 244, 245) are provided both on the supporting section (120; 220) and on the tensioning section (130; 230), wherein the tensioning section (130, 230) comprises a toggle lever (131, 231) having an attachment side and a tensioning side (131b, 231b), and the toggle lever (131, 231) is releasably screwed onto the mounting section (110, 210) on the attachment side.
A medical device (10, 100, 200, 300, 400), comprising: a hollow housing (20, 120, 220, 320, 420); a needle (65, 165, 265, 365, 465) having a sharpened tip projecting forwardly from the housing; a biasing element (60, 160, 360, 460) biasing the needle rearwardly; a needle retainer (42, 142, 342, 442) releasably retaining the needle against the rearward bias of the biasing element; a flexible shield (30, 130, 330, 430) fixedly attached to the housing, projecting forwardly from the housing; the shield having a forward edge and being configured for insertion into a patient; the shield sheathing the needle such that in a projecting position, the sharpened tip of the needle projects beyond the forward edge of the shield, and in a retracted position the sharpened tip is enclosed within the shield; wherein upon actuation of the needle retainer, the biasing element displaces the needle rearwardly so that the sharpened tip of the needle is enclosed within the shield; characterized in that after retraction, the needle provides support for the shield to prevent the shield from collapsing or buckling radially inwardly in response to external forces, wherein the shield is substantially puncture resistant such that the axial force required to buckle the shield is less than the force necessary to puncture the shield with the needle to prevent inadvertent contact with the contaminated needle after the needle is retracted. a hollow housing (20, 120, 220, 320, 420); a needle (65, 165, 265, 365, 465) having a sharpened tip projecting forwardly from the housing; a biasing element (60, 160, 360, 460) biasing the needle rearwardly; a needle retainer (42, 142, 342, 442) releasably retaining the needle against the rearward bias of the biasing element; a flexible shield (30, 130, 330, 430) fixedly attached to the housing, projecting forwardly from the housing; the shield having a forward edge and being configured for insertion into a patient; the shield sheathing the needle such that in a projecting position, the sharpened tip of the needle projects beyond the forward edge of the shield, and in a retracted position the sharpened tip is enclosed within the shield; the shield having a forward edge and being configured for insertion into a patient; the shield sheathing the needle such that in a projecting position, the sharpened tip of the needle projects beyond the forward edge of the shield, and in a retracted position the sharpened tip is enclosed within the shield; wherein upon actuation of the needle retainer, the biasing element displaces the needle rearwardly so that the sharpened tip of the needle is enclosed within the shield; characterized in that after retraction, the needle provides support for the shield to prevent the shield from collapsing or buckling radially inwardly in response to external forces, wherein the shield is substantially puncture resistant such that the axial force required to buckle the shield is less than the force necessary to puncture the shield with the needle to prevent inadvertent contact with the contaminated needle after the needle is retracted.
A tray sealer including a control unit and a sealing station, which comprises a tool upper part, a clamping frame and a tool lower part, wherein the interior of the tool upper part has arranged therein a dome-shaped die for deforming a skinnable top film, wherein the dome-shaped die comprises at least a first channel, wherein the tool upper part comprises a second channel, wherein the dome-shaped die has an inner con-tact surface, and wherein the clamping frame is configured to clamp the top film in position on the tool upper part in a gas-tight manner so as to define an upper chamber within the tool upper part, characterized in that a vacuum sensor, which is connected to the control unit, is provided between the dome-shaped die and a vacuum generator, the control unit being configured to detect a tear in the film on the basis of the pressure profile.
Method for marking a wrapping paper for smoking articles, comprising the following steps: providing a wrapping paper for smoking articles, wherein the wrapping paper comprises pulp fibers, producing register marks on the wrapping paper by means of at least the following step (B.3) treating the surface of the wrapping paper with laser radiation with an energy density y in J·m -2, for which y = k·x holds, wherein x is the enthalpy of combustion per volume of the wrapping paper in J·m -2 ·μm -1, wherein k is at least -8 μm and preferably at least -7 μm and particularly preferably at least -6.5 μm, and wherein k is at most -1 μm, preferably at most -2 μm and more particularly preferably at most -2.5 μm, wherein either in a step, regularly repeating structures are produced on the wrapping paper, so that each structure is located at a fixed distance in the machine direction relative to at least one mark, or a wrapping paper is provided in step which has repeating structures in the machine direction, and the register marks are produced on the wrapping paper in step such that each mark is located at a fixed distance in the machine direction relative to at least one structure, wherein, in at least one location, the register marks have an extension in the machine direction of at least 0.01 mm. providing a wrapping paper for smoking articles, wherein the wrapping paper comprises pulp fibers, producing register marks on the wrapping paper by means of at least the following step (B.3) treating the surface of the wrapping paper with laser radiation with an energy density y in J·m -2, for which y = k·x holds, wherein x is the enthalpy of combustion per volume of the wrapping paper in J·m -2 ·μm -1, wherein k is at least -8 μm and preferably at least -7 μm and particularly preferably at least -6.5 μm, and wherein k is at most -1 μm, preferably at most -2 μm and more particularly preferably at most -2.5 μm,
A water spray system particularly, but not exclusively, for mining, comprising: a pick, a block, and a spray nozzle; the pick comprising a head and an integral shank; the block comprising an aperture and a bore, the shank releasably receivable in the aperture; the spray nozzle comprising a head with a water discharge orifice, the spray nozzle received in the bore of the block with the head of the spray nozzle projecting above an upper surface of the block; characterized by: a heel extending rearwardly from the pick, a hole passing through the heel, and a pair of spaced apart cheeks extending beyond the hole; the head of the spray nozzle being between the cheeks, the water discharge orifice of the head being located with respect to the hole through the heel such that water discharged from the orifice sprays water through the through-hole and exiting the hole and induces an air flow into one end of the hole and out the other end of the hole. a pick, a block, and a spray nozzle; the pick comprising a head and an integral shank; the block comprising an aperture and a bore, the shank releasably receivable in the aperture; the spray nozzle comprising a head with a water discharge orifice, the spray nozzle received in the bore of the block with the head of the spray nozzle projecting above an upper surface of the block; a heel extending rearwardly from the pick, a hole passing through the heel, and a pair of spaced apart cheeks extending beyond the hole; the head of the spray nozzle being between the cheeks, the water discharge orifice of the head being located with respect to the hole through the heel such that water discharged from the orifice sprays water through the through-hole and exiting the hole and induces an air flow into one end of the hole and out the other end of the hole.
Damping device, especially for damping or avoiding pressure surges, such as pulsing, in hydraulic supply systems, preferably in the form of a silencer, with a damping housing surrounding a damping chamber, said damping housing comprising at least one fluid inlet and at least one fluid outlet and a fluid holding chamber extending between fluid inlet and fluid outlet, wherein a fluid flow passes through the damping chamber when the device is in operation in a flow direction coming from the fluid inlet towards the fluid outlet, wherein at least portions of the fluid holding chamber extend in at least one expansion direction transversely with respect to the flow direction, the fluid holding chamber being directly adjacent to the fluid inlet and the fluid outlet, and the damping housing being designed in multiple parts, - with a pot-shaped base part, which incorporates a disc-shaped central recess forming part of the cavity with the one limiting wall and the fluid inlet and fluid outlet; and - with a flange-shaped lid part, which engages flush in the central recess with the other limiting wall as part of an engagement piece with the lid part fixed to the base part, characterised in that a guide element through which the fluid flow can flow and with a flow speed that varies in certain regions is provided in the damping chamber and in that the guide element is integrally formed with the lid part and protrudes from the limiting wall formed on the engagement piece. - with a pot-shaped base part, which incorporates a disc-shaped central recess forming part of the cavity with the one limiting wall and the fluid inlet and fluid outlet; and - with a flange-shaped lid part, which engages flush in the central recess with the other limiting wall as part of an engagement piece with the lid part fixed to the base part, characterised in that a guide element through which the fluid flow can flow and with a flow speed that varies in certain regions is provided in the damping chamber and in that the guide element is integrally formed with the lid part and protrudes from the limiting wall formed on the engagement piece.
A dunnage machine comprising: at least one forming member; a blade attached to a slidable blade mount, the blade being disposed near an exit region of the at least one forming member, characterized in that it comprises at least one elongated frame member connected to the slidable blade mount, the elongated frame member being pivotably connected to a fixed point relative to the dunnage machine; at least one handle biasing member connected to a first end portion of the at least one elongated frame member; at least one handle surface disposed near a second end portion of the at least one elongated frame member, wherein when the handle surface is depressed, the blade descends, and wherein when the handle surface is not depressed, the handle biasing member biases the at least one elongated frame member upward causing the blade to ascend; and wherein when the handle surface is not depressed it is disposed forward of the blade at a forward portion of the dunnage machine in a resting position. at least one forming member; a blade attached to a slidable blade mount, the blade being disposed near an exit region of the at least one forming member, characterized in that it comprises at least one elongated frame member connected to the slidable blade mount, the elongated frame member being pivotably connected to a fixed point relative to the dunnage machine; at least one handle biasing member connected to a first end portion of the at least one elongated frame member; at least one handle surface disposed near a second end portion of the at least one elongated frame member, wherein when the handle surface is depressed, the blade descends, and wherein when the handle surface is not depressed, the handle biasing member biases the at least one elongated frame member upward causing the blade to ascend; and wherein when the handle surface is not depressed it is disposed forward of the blade at a forward portion of the dunnage machine in a resting position.
A method for wireless communication comprising, at a user equipment, UE: identifying (410, 1305, 1405) a quasi co-location relationship indicating that one or more antenna ports of a base station used to transmit a reference signal are quasi co-located with one or more antenna ports of the base station used to transmit a positioning reference signal; and receiving (415, 1310, 1410) the reference signal at the UE; the method being characterized by further comprising: determining (425, 1315, 1415) a receive beam for the UE to use to receive the positioning reference signal based at least in part on the received reference signal and the identified quasi co-location relationship; receiving a set of cell identifiers for cells that transmit positioning reference signals; and monitoring for positioning reference signals from one or more of the cells based at least in part on the received set of cell identifiers; and receiving (440, 1320, 1420) a positioning reference signal at the UE using the determined receive beam. identifying (410, 1305, 1405) a quasi co-location relationship indicating that one or more antenna ports of a base station used to transmit a reference signal are quasi co-located with one or more antenna ports of the base station used to transmit a positioning reference signal; and receiving (415, 1310, 1410) the reference signal at the UE; the method being characterized by further comprising: determining (425, 1315, 1415) a receive beam for the UE to use to receive the positioning reference signal based at least in part on the received reference signal and the identified quasi co-location relationship; receiving a set of cell identifiers for cells that transmit positioning reference signals; and monitoring for positioning reference signals from one or more of the cells based at least in part on the received set of cell identifiers; and receiving (440, 1320, 1420) a positioning reference signal at the UE using the determined receive beam. determining (425, 1315, 1415) a receive beam for the UE to use to receive the positioning reference signal based at least in part on the received reference signal and the identified quasi co-location relationship; receiving a set of cell identifiers for cells that transmit positioning reference signals; and monitoring for positioning reference signals from one or more of the cells based at least in part on the received set of cell identifiers; and receiving (440, 1320, 1420) a positioning reference signal at the UE using the determined receive beam.
A method for the diagnosis of TB in a subject, the method comprising; (a) providing a sample from said subject, said sample being selected from the group consisting of: blood, serum and plasma; (b) determining the concentration in said sample of the following biomarkers: IL-1ra, IL6, IL-7, IL-8, IL-12p70, FGF-basic, IP-10, and VEGF; (c) converting each biomarker concentration determined in (b) into a decile value; and (d) converting each decile value into a binary presence or absence by comparing the decile values of (c) to the following specific quantile cut-off values: Biomarker Specific quantile cut-off value IL-1ra 3 IL6 6 IL-7 8 IL-8 9 IL-12p70 9 FGF-basic 3 IP-10 4 VEGF 9 wherein a decile value matching or exceeding the specific quantile cut-off value is converted into the binary presence of the biomarker, and a decile value lower than the specific quantile cut-off value is converted into the binary absence of the biomarker; wherein detecting the presence of each of said biomarkers indicates that the subject has TB. (a) providing a sample from said subject, said sample being selected from the group consisting of: blood, serum and plasma; (b) determining the concentration in said sample of the following biomarkers: IL-1ra, IL6, IL-7, IL-8, IL-12p70, FGF-basic, IP-10, and VEGF; (c) converting each biomarker concentration determined in (b) into a decile value; and (d) converting each decile value into a binary presence or absence by comparing the decile values of (c) to the following specific quantile cut-off values: Biomarker Specific quantile cut-off value IL-1ra 3 IL6 6 IL-7 8 IL-8 9 IL-12p70 9 FGF-basic 3 IP-10 4 VEGF 9 wherein a decile value matching or exceeding the specific quantile cut-off value is converted into the binary presence of the biomarker, and a decile value lower than the specific quantile cut-off value is converted into the binary absence of the biomarker; wherein detecting the presence of each of said biomarkers indicates that the subject has TB.