mhurhangee/ep-ind-claims huggingface dataset:
An intravascular nerve ablation system (300, 300', 400, 500, 550, 600, 700, 800, 900) for delivery of an ablative fluid to a volume of tissue in proximity to or within the vessel wall of a target vessel comprising: a catheter body having a proximal end, a distal end, a central axis extending in a longitudinal direction and a fluid injection lumen; at least a first and second guide tube (315, 515, 565, 615, 715, 815, 915, 965, 975), each guide tube having a distal end, a lumen, and a distal portion that is outwardly movable between a first position aligned with the axis and a second position wherein the distal end surfaces of the guide tubes, in the fully open configuration, are parallel to the longitudinal axis of the intravascular nerve ablation system; at least a first and second injector tube (316, 516, 566, 616, 816, 915, 956, 966, 976), each injector tube having an injection lumen (321, 521) providing a pathway for delivering the ablative fluid, each injector tube (316, 516, 566, 616, 816, 915, 956, 966, 976) having a sharpened injection needle (319, 519, 569, 619, 819, 919, 959, 969, 979) with injection egress (317, 517, 567, 617, 817, 917, 957, 967, 977) at its distal end, each injector tube (316, 516, 566, 616, 816, 915, 956, 966, 976) being adapted to slide distally and proximally within the lumens of the first and second guide tubes (315, 515, 565, 615, 715, 815, 915, 965, 975); and a penetration depth limitation mechanism for limiting the depth of penetration of the injection needles (319, 519, 569, 619, 819, 919, 959, 969, 979) into the vessel wall of the target vessel. a catheter body having a proximal end, a distal end, a central axis extending in a longitudinal direction and a fluid injection lumen; at least a first and second guide tube (315, 515, 565, 615, 715, 815, 915, 965, 975), each guide tube having a distal end, a lumen, and a distal portion that is outwardly movable between a first position aligned with the axis and a second position wherein the distal end surfaces of the guide tubes, in the fully open configuration, are parallel to the longitudinal axis of the intravascular nerve ablation system; at least a first and second injector tube (316, 516, 566, 616, 816, 915, 956, 966, 976), each injector tube having an injection lumen (321, 521) providing a pathway for delivering the ablative fluid, each injector tube (316, 516, 566, 616, 816, 915, 956, 966, 976) having a sharpened injection needle (319, 519, 569, 619, 819, 919, 959, 969, 979) with injection egress (317, 517, 567, 617, 817, 917, 957, 967, 977) at its distal end, each injector tube (316, 516, 566, 616, 816, 915, 956, 966, 976) being adapted to slide distally and proximally within the lumens of the first and second guide tubes (315, 515, 565, 615, 715, 815, 915, 965, 975); and a penetration depth limitation mechanism for limiting the depth of penetration of the injection needles (319, 519, 569, 619, 819, 919, 959, 969, 979) into the vessel wall of the target vessel.
A lens, comprising a lens body and at least two positioning columns, wherein the lens body has a light incident surface and a light exiting surface, an inner end of the positioning column is connected to the light incident surface, an outer end of the positioning column is a free end, and a direction from the outer end to the inner end of the positioning column is a first direction; the positioning column comprises at least three positioning segments which are sequentially distributed in the first direction; a plane perpendicular to an axis of the positioning segment is a projection plane, a projection of the positioning segment on the projection plane is a first projection, an area enclosed by an outer contour line of the first projection is a first area, and first areas of at least three positioning segments are sequentially increased in the first direction, wherein the positioning column is a stepped shaft, the positioning segment is a shaft segment, and areas of cross-sectional surfaces of at least three shaft segments are sequentially increased in the first direction, characterized in that an external rim of the lens body is provided with at least two first positioning grooves which are distributed at intervals, the number of the first positioning grooves is one less than the number of the shaft segments. the positioning column comprises at least three positioning segments which are sequentially distributed in the first direction; a plane perpendicular to an axis of the positioning segment is a projection plane, a projection of the positioning segment on the projection plane is a first projection, an area enclosed by an outer contour line of the first projection is a first area, and first areas of at least three positioning segments are sequentially increased in the first direction, wherein the positioning column is a stepped shaft, the positioning segment is a shaft segment, and areas of cross-sectional surfaces of at least three shaft segments are sequentially increased in the first direction, characterized in that an external rim of the lens body is provided with at least two first positioning grooves which are distributed at intervals, the number of the first positioning grooves is one less than the number of the shaft segments.
A spring seal for sealing between arcuate vane support segments of the compressor section of a gas turbine engine comprising: a split body portion with a first leg and a second leg that extend away from a plane; and a projection portion which extends from said split body portion within said plane; characterised in that said split body portion and said projection are formed by a first member and a second member joined along said plane. a split body portion with a first leg and a second leg that extend away from a plane; and a projection portion which extends from said split body portion within said plane; characterised in that said split body portion and said projection are formed by a first member and a second member joined along said plane.
A medical fluid injection system, comprising: an injection device; a multi-patient tubing set interconnected with said injection device; and a patient-specific tubing set interconnected with said multi-patient tubing set, characterized in that said patient-specific tubing set comprises: at least one valve, and a use indicator, wherein said use indicator comprises a housing and a piston movably disposed within said housing, wherein said piston interfaces with a flowpath through said housing, and wherein said piston is movable from a first position to a second position in response to flow through said patient-specific tubing set. an injection device; a multi-patient tubing set interconnected with said injection device; and a patient-specific tubing set interconnected with said multi-patient tubing set, characterized in that said patient-specific tubing set comprises: at least one valve, and a use indicator, wherein said use indicator comprises a housing and a piston movably disposed within said housing, wherein said piston interfaces with a flowpath through said housing, and wherein said piston is movable from a first position to a second position in response to flow through said patient-specific tubing set. at least one valve, and a use indicator, wherein said use indicator comprises a housing and a piston movably disposed within said housing, wherein said piston interfaces with a flowpath through said housing, and wherein said piston is movable from a first position to a second position in response to flow through said patient-specific tubing set.
A method by a serving gateway, SGW, in a wireless communication system, the method comprising: receiving a downlink packet from a core network node; identifying a header of the downlink packet; determining whether the header of the downlink packet includes paging policy information corresponding to a specific service, wherein the paging policy information is marked by the core network node; in the case that the header of the downlink packet includes the paging policy information corresponding to a specific service, generating, based on the paging policy information, a downlink data notification message including a paging policy indication; and transmitting the generated downlink data notification message to a Mobility Management Entity, MME, wherein the paging policy indication is used to perform a paging by the MME, and wherein the specific service includes an internet protocol Multimedia Subsystem, IMS, call service. receiving a downlink packet from a core network node; identifying a header of the downlink packet; determining whether the header of the downlink packet includes paging policy information corresponding to a specific service, wherein the paging policy information is marked by the core network node; in the case that the header of the downlink packet includes the paging policy information corresponding to a specific service, generating, based on the paging policy information, a downlink data notification message including a paging policy indication; and transmitting the generated downlink data notification message to a Mobility Management Entity, MME, wherein the paging policy indication is used to perform a paging by the MME, and wherein the specific service includes an internet protocol Multimedia Subsystem, IMS, call service.
A liquid handling system for dispensing a liquid sample from a tip, said system comprising: - a light source configured to project a first beam of light via a first optical path that interacts with the tip or its contents, and further configured to direct a second beam of light via a second optical path that does not interact with the tip and its contents; - a first detector configured to detect the first beam of light; - a second detector configured to detect the second beam of light; - an analysis unit configured to analyse a state of the tip on the basis of signals obtained from the first and second detectors; wherein the second detector is a normalization detector configured to measure intensity of the light source; the liquid handling system comprising a time-of-flight component which contains the light source and the first detector and which is configured for calculating the distance to the liquid surface in the tip. - a light source configured to project a first beam of light via a first optical path that interacts with the tip or its contents, and further configured to direct a second beam of light via a second optical path that does not interact with the tip and its contents; - a first detector configured to detect the first beam of light; - a second detector configured to detect the second beam of light; - an analysis unit configured to analyse a state of the tip on the basis of signals obtained from the first and second detectors;
An apparatus, comprising: a memory element; and a controller coupled to the memory element, the controller configured to execute a set of instructions to: receive data of a plurality of signals in a magnetic resonance imaging process using wireless radio frequency coils, the plurality of signals comprising at least one projection echo, identify a plurality of offsets of the plurality of signals based on the at least one projection echo by applying a one-dimensional inverse Fast Fourier transform to an amplitude of the at least one projection echo; and identifying a slope in the Fast Fourier transformed amplitude corresponding to at least one projection echo phase profile, where the offsets result from transmit clock and receive clock mismatch in the wireless radio frequency coils, and apply the plurality of offsets to a k-space of the plurality of signals to correct skew or shifts. a memory element; and a controller coupled to the memory element, the controller configured to execute a set of instructions to: receive data of a plurality of signals in a magnetic resonance imaging process using wireless radio frequency coils, the plurality of signals comprising at least one projection echo, identify a plurality of offsets of the plurality of signals based on the at least one projection echo by applying a one-dimensional inverse Fast Fourier transform to an amplitude of the at least one projection echo; and identifying a slope in the Fast Fourier transformed amplitude corresponding to at least one projection echo phase profile, where the offsets result from transmit clock and receive clock mismatch in the wireless radio frequency coils, and apply the plurality of offsets to a k-space of the plurality of signals to correct skew or shifts. receive data of a plurality of signals in a magnetic resonance imaging process using wireless radio frequency coils, the plurality of signals comprising at least one projection echo, identify a plurality of offsets of the plurality of signals based on the at least one projection echo by applying a one-dimensional inverse Fast Fourier transform to an amplitude of the at least one projection echo; and identifying a slope in the Fast Fourier transformed amplitude corresponding to at least one projection echo phase profile, where the offsets result from transmit clock and receive clock mismatch in the wireless radio frequency coils, and apply the plurality of offsets to a k-space of the plurality of signals to correct skew or shifts.
A method of removing off-flavour from a soy protein containing substrate, said method comprising a neutralisation procedure which includes the following steps: - providing a pasteurised or sterilised aqueous liquid containing 0.5-8 wt.% of dissolved soy protein; - inoculating the pasteurised or sterilised liquid with a culture comprising an off-flavour removing lactic acid bacteria strain capable of metabolising a C 5 -C 9 n-alkanal and/or trans -2-hexenal, said inoculation optionally occurring after said pasteurised or sterilised liquid has first been fermented with another micro-organism; - fermenting the inoculated aqueous liquid by incubation at a temperature in the range of 20-45 °C for 0.4-6 hours; wherein less than 600 ppm of lactate is formed during said neutralisation procedure; wherein the culture employed-in the neutralisation procedure reduces the content of at least one C 5 -C 9 n-alkanal by at least 30%, preferably by at least 50% when a neutral soy milk having a protein content of 2.5 wt.% is inoculated with 10 7 viable cells of said culture per ml and incubated at 30°C for 4 hours, with the proviso that prior to inoculation the following aldehydes were added in the indicated amounts: 2 ppm of n-pentanal, 2 ppm of n-hexanal, 2 ppm of n-heptanal and 2 ppm of n-octanal; wherein the off-flavour removing LAB strain is a mesophilic LAB strain having an optimum growth temperature in the range of 25-37 °C, said mesophilic LAB strain being selected from from the group consisting of Lactobacillus brevis, Lactobacillus fermentum, Lactobacillus stake, Lactobacillus sanfranciscensis Lactobacillus plantarum, Lactococcus lactis subsp lactis, Lactococcus lactis subsp cremoris, Leuconostoc mesenteroides, Leuconostoc cremoris, Leuconostoc lactis, Leuconostoc pseudomesenteroides and combinations thereof. - providing a pasteurised or sterilised aqueous liquid containing 0.5-8 wt.% of dissolved soy protein; - inoculating the pasteurised or sterilised liquid with a culture comprising an off-flavour removing lactic acid bacteria strain capable of metabolising a C 5 -C 9 n-alkanal and/or trans -2-hexenal, said inoculation optionally occurring after said pasteurised or sterilised liquid has first been fermented with another micro-organism; - fermenting the inoculated aqueous liquid by incubation at a temperature in the range of 20-45 °C for 0.4-6 hours;
Charging station of an electricity charging point, comprising the following features: - a first DC-to-DC voltage converter for the voltage supply of the charging station, - a first DC chopper, connected to the first DC-to-DC voltage converter, of a first power path for connecting a battery (21, 22) to the charging station and for returning energy stored in the battery (11, 12) for faster charging of an electric car, and - a second DC chopper, connected to the first DC-to-DC voltage converter, of a second power path, an EMC filter connected downstream of the second DC chopper and a second DC-to-DC voltage converter, connected downstream of the EMC filter and operated in a discontinuous conduction mode, for connecting the electric car to the charging station in order to charge the electric car. - a first DC-to-DC voltage converter for the voltage supply of the charging station, - a first DC chopper, connected to the first DC-to-DC voltage converter, of a first power path for connecting a battery (21, 22) to the charging station and for returning energy stored in the battery (11, 12) for faster charging of an electric car, and - a second DC chopper, connected to the first DC-to-DC voltage converter, of a second power path, an EMC filter connected downstream of the second DC chopper and a second DC-to-DC voltage converter, connected downstream of the EMC filter and operated in a discontinuous conduction mode, for connecting the electric car to the charging station in order to charge the electric car.
Method for determining a layer thickness(d) of a plastic film, comprising at least the following steps: guiding the plastic film with a first Terahertz refractive index on a base layer having a second Terahertz refractive index that is greater than the first THz refractive index, radiating a Terahertz radiation through a surrounding medium with a third Terahertz refractive index on a surface of the plastic film in the region in which it is in contact with the base layer, wherein the third Terahertz refractive index is less than the first Terahertz refractive index, measuring the intensity of a Terahertz radiation reflected from the surface of the plastic film, determining the layer thickness (d) of the plastic film from the measured intensity of the reflected THz radiation, characterised in that the reflected Terahertz radiation is measured in a frequency range in which the following interference conditions for the cancellation are fulfilled at least in part: λ = 4 × n 2 × d where λ= wavelength of the Terahertz radiation in air, n 2 = refraction index of the plastic film and d = layer thickness of the plastic film, and the underground is a rotating roller or cylinder on the surface of which the plastic film is guided. guiding the plastic film with a first Terahertz refractive index on a base layer having a second Terahertz refractive index that is greater than the first THz refractive index, radiating a Terahertz radiation through a surrounding medium with a third Terahertz refractive index on a surface of the plastic film in the region in which it is in contact with the base layer, wherein the third Terahertz refractive index is less than the first Terahertz refractive index, measuring the intensity of a Terahertz radiation reflected from the surface of the plastic film, determining the layer thickness (d) of the plastic film from the measured intensity of the reflected THz radiation, characterised in that the reflected Terahertz radiation is measured in a frequency range in which the following interference conditions for the cancellation are fulfilled at least in part: λ = 4 × n 2 × d where λ= wavelength of the Terahertz radiation in air, n 2 = refraction index of the plastic film and d = layer thickness of the plastic film, and the underground is a rotating roller or cylinder on the surface of which the plastic film is guided. where λ= wavelength of the Terahertz radiation in air, n 2 = refraction index of the plastic film and d = layer thickness of the plastic film, and the underground is a rotating roller or cylinder on the surface of which the plastic film is guided.
A telecommunications device comprising an input port, an output port, a part to be protected implemented by means of semi-conductor and a disturbance protection system, characterized in that the disturbance protection system comprises at least three overvoltage protection components provided with different properties, whereby a gas-discharge tube, which is considered as a first overvoltage protection component, is arranged at the output port, and a second overvoltage protection component is provided in the vicinity of the components to be protected, and the disturbance protection system also comprises a third overvoltage protection component, that the third overvoltage protection component is arranged between the first overvoltage protection component and the second overvoltage protection component and the second overvoltage protection component has a lower operating voltage than the third overvoltage protection component and the third overvoltage protection component has a lower operating voltage than the first overvoltage protection component and that the second overvoltage protection component has a faster response time than the third overvoltage protection component and the third overvoltage protection component has a faster response time than the first overvoltage protection component.
Motor vehicle door latch with a locking mechanism, furthermore with an opening drive (3, 4) working on the locking mechanism and an activation lever mechanism (6, 7), furthermore with at least a sensor to query an operator opening desire and with a securing device (9, 10, 11) which prevents opening of the locking mechanism, at least in its "secured" position, characterized in that an intermediate lever of the activation lever mechanism (6, 7) for mechanically converting the operator opening desire impinges or does not impinge, according to the position of the securing device (9, 10, 11), the sensor controlling the opening drive (3, 4) with an activation nose.
Fluorometric immunoassay method for detecting antibodies against double-stranded DNA (anti-dsDNA), which comprises the following steps: i) incubation of decomplemented patient's serum with dsDNA in a warm place at 37 °C to obtain immune complexes, ii) precipitation of said immune complexes with a saturated solution of ammonium sulfate or solution of polyethylene glycol, characterized in that the method in continuation further comprises the steps: iii) labelling of two fractions of samples with fluorescent dyes which bind into the dsDNA, and iv) detection of fluorescence in two fractions of samples, namely in supernatant and in the sample with precipitate, which contains immune complexes composed of dsDNA and anti-dsDNA, and that the results are calculated so that the difference in fluorescence of the sample with precipitate and the supernatant is divided with the sum of fluorescence of the sample with precipitate and the supernatant, wherein the marginal result depends on the threshold value and all values above the threshold represent positive results.