mhurhangee/ep-ind-claims huggingface dataset:
A system for detecting heart failure in a patient, comprising: a plurality of sensors configured to collect sensor measurements of physiological data from a patient; a processor configured to calculate a first composite value based on first sensor measurements collected using at least two of the plurality of sensors wherein the first composite value is an indication of a likelihood that the patient's heart failure status has changed; wherein the processor is further configured to calculate a second composite value based on second sensor measurements collected using at least two of the plurality of sensors if the first composite value is outside of a first specified range, wherein the second composite value is an indication of a likelihood that the patient's heart failure status has changed; and a communication module configured to generate an alert of change in heart failure status if the second composite value is outside of a second specified range, wherein the alert includes an indication of a likelihood that the patient's heart failure status has worsened; and a range modification module configured to enable a user to modify the first and second specified ranges. a plurality of sensors configured to collect sensor measurements of physiological data from a patient; a processor configured to calculate a first composite value based on first sensor measurements collected using at least two of the plurality of sensors wherein the first composite value is an indication of a likelihood that the patient's heart failure status has changed; wherein the processor is further configured to calculate a second composite value based on second sensor measurements collected using at least two of the plurality of sensors if the first composite value is outside of a first specified range, wherein the second composite value is an indication of a likelihood that the patient's heart failure status has changed; and a communication module configured to generate an alert of change in heart failure status if the second composite value is outside of a second specified range, wherein the alert includes an indication of a likelihood that the patient's heart failure status has worsened; and a range modification module configured to enable a user to modify the first and second specified ranges.
A lung volume reduction elastic implant, comprising an elastic deformation part and a flexible guide part connected with a distal end of the elastic deformation part, wherein the flexible guide part is provided with a first flexible section; the first flexible section comprises an insert section and a distal section; the insert section is connected with the distal end of the elastic deformation part; a distal end of the distal section of the first flexible section is a distal end of the lung volume reduction elastic implant; and a radiograph component is arranged in the first flexible section, characterized in that the flexible guide part further comprises a hollow second flexible section connected between the elastic deformation part and the first flexible section; and the insert section of the first flexible section is inserted into the second flexible section, and a proximal end of the radiograph component is inserted into the second flexible section along with the insert section of the first flexible section.
A method for manufacturing a microcircuit card, comprising steps of: forming a first antenna coil (CC2-CC7) in a card (C2-C6), the first antenna coil comprising a part (CL21-CL71) following the edge of the card, forming a module comprising a microcircuit and a second antenna coil disposed around and connected to the microcircuit, and implanting the module into the card at a precise position in relation to the edge of the card, the first antenna coil being coupled by induction to the second antenna coil, characterized in that the first antenna coil (CC2-CC7) is pre-formed in such a way that only one part of the second antenna coil is at a distance from the first antenna coil of less than 5% of the width of the second antenna coil. forming a first antenna coil (CC2-CC7) in a card (C2-C6), the first antenna coil comprising a part (CL21-CL71) following the edge of the card, forming a module comprising a microcircuit and a second antenna coil disposed around and connected to the microcircuit, and implanting the module into the card at a precise position in relation to the edge of the card, the first antenna coil being coupled by induction to the second antenna coil,
A process for exfoliating an untreated 3-dimensional layered material to produce a 2-dimensional material, said process comprising the steps of: mixing the untreated 3-dimensional layered material in a liquid to provide a mixture; applying shear force to said mixture such that a non-zero shear rate is generated in the liquid to exfoliate the 3-dimensional layered material and produce a dispersed and exfoliated 2-dimensional material in solution; stopping the shear force applied to said mixture, such that the dispersed exfoliated 2-dimensional material remains free and unaggregated in solution; wherein the untreated 3-dimensional layered material is selected from graphite or any transition metal dichalcogenide having the formula MXn, or any other layered material such as transition metal oxides, boron nitride, Bi2Te3, Sb2Te3, TiNCl, or any other inorganic layered compound; wherein the liquid is a solvent, a water-surfactant solution or a solution of a polymer in a solvent; wherein the mixture is unhindered by a gelling or thickening agent in the solution and so does not contain an intercalating agent; and wherein the shear force generates a shear rate greater than 3000 s -1. mixing the untreated 3-dimensional layered material in a liquid to provide a mixture; applying shear force to said mixture such that a non-zero shear rate is generated in the liquid to exfoliate the 3-dimensional layered material and produce a dispersed and exfoliated 2-dimensional material in solution; stopping the shear force applied to said mixture, such that the dispersed exfoliated 2-dimensional material remains free and unaggregated in solution; wherein the untreated 3-dimensional layered material is selected from graphite or any transition metal dichalcogenide having the formula MXn, or any other layered material such as transition metal oxides, boron nitride, Bi2Te3, Sb2Te3, TiNCl, or any other inorganic layered compound; wherein the liquid is a solvent, a water-surfactant solution or a solution of a polymer in a solvent; wherein the mixture is unhindered by a gelling or thickening agent in the solution and so does not contain an intercalating agent; and wherein the shear force generates a shear rate greater than 3000 s -1.
An occluder for occluding at least one collapsible tube of a medical infusion device, comprising: a first and a second opposed resilient occluding members defining a space between the occluding members; a tube contacting member connected to, or comprising at least a portion of, at least one of the first and second occluding members; and a force actuator constructed and positioned within the space to apply a force to bend the first and second occluding members, wherein upon application of the force by the force actuator to bend the occluding members, the tube contacting member moves between a tube occluding and an open position. a first and a second opposed resilient occluding members defining a space between the occluding members; a tube contacting member connected to, or comprising at least a portion of, at least one of the first and second occluding members; and a force actuator constructed and positioned within the space to apply a force to bend the first and second occluding members, wherein upon application of the force by the force actuator to bend the occluding members, the tube contacting member moves between a tube occluding and an open position.
A process of manufacturing a cathode material with double carbon coatings, the process comprising steps of: providing a lithium metal phosphate matrix and a carbon source of a first carbon coating, and thermally treating the mixture of the lithium metal phosphate matrix and the carbon source of the first carbon coating by sintering, so that a cathode material with a single carbon coating is obtained, wherein the first carbon coating is coated on the lithium metal phosphate matrix; adding a carbon source of a second carbon coating to the cathode material with the single carbon coating, and thermally treating the mixture of the carbon source of the second carbon coating and the cathode material with the single carbon coating by sintering, so that the cathode material with the double carbon coatings is obtained, wherein the carbon source of the first carbon coating is monosaccharide, disaccharide, polysaccharide, polyvinyl alcohol or polyvinylpyrrolidone, and the carbon source of the second carbon coating is coal tar pitch or petroleum pitch. providing a lithium metal phosphate matrix and a carbon source of a first carbon coating, and thermally treating the mixture of the lithium metal phosphate matrix and the carbon source of the first carbon coating by sintering, so that a cathode material with a single carbon coating is obtained, wherein the first carbon coating is coated on the lithium metal phosphate matrix; adding a carbon source of a second carbon coating to the cathode material with the single carbon coating, and thermally treating the mixture of the carbon source of the second carbon coating and the cathode material with the single carbon coating by sintering, so that the cathode material with the double carbon coatings is obtained, wherein the carbon source of the first carbon coating is monosaccharide, disaccharide, polysaccharide, polyvinyl alcohol or polyvinylpyrrolidone, and the carbon source of the second carbon coating is coal tar pitch or petroleum pitch.
A smoke inhalation device comprising: a housing; a cartridge (114; 214) configured to contain a substance; a release device (118; 218) included within the cartridge (114; 214) and configured to release the substance contained in the cartridge (114; 214); a controller (124; 224) operatively and communicatively coupled to the release device (118; 218), the controller (124; 224) being configured to control the operation of the release device (118; 218); and a communication device (146; 246) comprising a sensor configured to be activated by tapping a predetermined number of times at a minimum frequency and being configured to allow a user to change and monitor the settings and/or state of the smoke inhalation device. a housing; a cartridge (114; 214) configured to contain a substance; a release device (118; 218) included within the cartridge (114; 214) and configured to release the substance contained in the cartridge (114; 214); a controller (124; 224) operatively and communicatively coupled to the release device (118; 218), the controller (124; 224) being configured to control the operation of the release device (118; 218); and a communication device (146; 246) comprising a sensor configured to be activated by tapping a predetermined number of times at a minimum frequency and being configured to allow a user to change and monitor the settings and/or state of the smoke inhalation device.
Method for producing a casing (40;140;240) with flat pins (25;225a,225b) for holding a glass fuse, which can be inserted into and removed from terminal blocks for connecting electric wires, comprising the following stages: a) stamping a strip of electric conducting parts connected together in the longitudinal direction (X-X) by a continuous strip; b) inserting said strip inside a mould; c) over-moulding the conducting parts with insulating material depending on the final form envisaged for the casing (40; 140; 240) so as to form a the casing (40; 140; 240). d) cutting the continuous strip in the region of the flat pins; e) extracting the finished parts (40;140;240;340;1340). wherein said strip is formed by a series of conducting parts, each consisting of a flat pin and a substantially C-shaped head, and wherein said C-shaped head has tongues extending in the transverse direction (Y-Y) orthogonal to the flat pins (25;225a,225b) and forming the seat and contact for the end of a fuse and said conducting parts are arranged symmetrically opposite each other at a relative distance equal to the length of the fuse measured in the longitudinal direction. a) stamping a strip of electric conducting parts connected together in the longitudinal direction (X-X) by a continuous strip; b) inserting said strip inside a mould; c) over-moulding the conducting parts with insulating material depending on the final form envisaged for the casing (40; 140; 240) so as to form a the casing (40; 140; 240). d) cutting the continuous strip in the region of the flat pins; e) extracting the finished parts (40;140;240;340;1340). wherein
A stirrer for liquid, semi-liquid or semi-solid products, comprising at least the following, in combination: - a central shaft; - a plurality of radial supports, connected to the central shaft; - a plurality of mixing and centring elements, each configured to be connected to a radial support so as to define a first operating configuration for processing liquid or semi-liquid products; - a plurality of vanes, each configured to be connected to a mixing and centring element so as to define a second operating configuration for processing semi-solid products wherein each radial support has at least one plurality of prongs (5A, 5B, 5C). wherein each mixing and centring element has a plurality of cavities (6A, 6B, 6C), each cavity (6A, 6B, 6C) being configured to receive one of the prongs (5A, 5B, 5C) so as to connect the mixing and centring element to one of the radial supports and wherein each mixing and centring element has an elongate seat, and wherein each vane comprises at least one protrusion configured to be slotted into the elongate seat so as to join the mixing and centring vane to the radial support. - a central shaft; - a plurality of radial supports, connected to the central shaft; - a plurality of mixing and centring elements, each configured to be connected to a radial support so as to define a first operating configuration for processing liquid or semi-liquid products; - a plurality of vanes, each configured to be connected to a mixing and centring element so as to define a second operating configuration for processing semi-solid products wherein each radial support has at least one plurality of prongs (5A, 5B, 5C). wherein each mixing and centring element has a plurality of cavities (6A, 6B, 6C), each cavity (6A, 6B, 6C) being configured to receive one of the prongs (5A, 5B, 5C) so as to connect the mixing and centring element to one of the radial supports and wherein each mixing and centring element has an elongate seat, and wherein each vane comprises at least one protrusion configured to be slotted into the elongate seat so as to join the mixing and centring vane to the radial support.
A method characterised by comprising: causing a prompt to be presented to a user, the prompt instructing the user to move the client device along a verification pathway while capturing image data of a real-world object in proximity to the geographical position of the client device; receiving image data of the object from a moving perspective of the client device: determining whether the image data matches to an expected change in perspective of the object; and responsive to determining that the image matches the expected change in perspective of the object, confirming the geographical position of the client device. causing a prompt to be presented to a user, the prompt instructing the user to move the client device along a verification pathway while capturing image data of a real-world object in proximity to the geographical position of the client device; receiving image data of the object from a moving perspective of the client device: determining whether the image data matches to an expected change in perspective of the object; and responsive to determining that the image matches the expected change in perspective of the object, confirming the geographical position of the client device. determining whether the image data matches to an expected change in perspective of the object; and responsive to determining that the image matches the expected change in perspective of the object, confirming the geographical position of the client device.
A pharmaceutical product containing an antiprogestinic molecule, for use in the temporary suppression of the spontaneous midcycle gonadotrophin surge in women undergoing follicular stimulation for Assisted Reproduction purposes by delivery of said antiprogestinic molecule to the Central Nervous System, characterized in that it is to be administered by nasal route starting from the day the follicles reach the size of 16 mm in diameter.
A coupling and decoupling device comprising - a retaining element, - a circuit carrier, - a wave guide, - wherein the retaining element has a first end, on which the retaining element is coupled to the circuit carrier, and - has a second end, on which the retaining element is coupled to the wave guide, - two dipole antennas (6 1, 6 2), which are crossed over between the first end and the second end and are arranged orthogonally to each other, and - two conductor pairs (7 1, 7 2), which are arranged crossed over each other, which are connected to the two dipole antennas (6 1, 6 2) and to associated contact surfaces on the circuit carrier, - wherein an electrically conductive layer is fixed on the first end, - wherein the retaining element is a hollow conductor, - wherein the first end of the retaining element is a first end-face opening of the hollow conductor, to which the circuit carrier is coupled, and - the second end of the retaining element is a second end-face opening of the hollow conductor, to which the wave guide is coupled, and - wherein the first end-face opening is closed by the electrically conductive layer, wherein the hollow conductor comprises a carrier membrane (8; 8'; 8"), and each dipole antenna (6 1, 6 2) is applied in each case to an end face facing the first end-face opening or to an end face of the carrier membrane (8; 8'; 8") in each case facing the second end-face opening, wherein the carrier membrane (8; 8'; 8") is connected to the hollow conductor in a region of the hollow conductor adjoining the first end-face opening. - a retaining element, - a circuit carrier, - a wave guide, - wherein the retaining element has a first end, on which the retaining element is coupled to the circuit carrier, and - has a second end, on which the retaining element is coupled to the wave guide, - two dipole antennas (6 1, 6 2), which are crossed over between the first end and the second end and are arranged orthogonally to each other, and - two conductor pairs (7 1, 7 2), which are arranged crossed over each other, which are connected to the two dipole antennas (6 1, 6 2) and to associated contact surfaces on the circuit carrier, - wherein an electrically conductive layer is fixed on the first end, - wherein the retaining element is a hollow conductor, - wherein the first end of the retaining element is a first end-face opening of the hollow conductor, to which the circuit carrier is coupled, and - the second end of the retaining element is a second end-face opening of the hollow conductor, to which the wave guide is coupled, and - wherein the first end-face opening is closed by the electrically conductive layer, wherein the hollow conductor comprises a carrier membrane (8; 8'; 8"), and each dipole antenna (6 1, 6 2) is applied in each case to an end face facing the first end-face opening or to an end face of the carrier membrane (8; 8'; 8") in each case facing the second end-face opening, wherein the carrier membrane (8; 8'; 8") is connected to the hollow conductor in a region of the hollow conductor adjoining the first end-face opening.
A method for calibrating a force platform (102, 400, 510) comprising: providing a force platform (102, 400, 510) and applying an nXm grid on a top surface of the force platform (102, 400, 510) via a computing device, wherein said nXm grid comprises n points along an X-axis, and m points along a Y-axis of said force platform (102, 400, 510); applying p known loads on each of the nXm grid points of the top surface along a Z-axis being perpendicular to said X and Y axes (202, 204) and along said X and Y axes (202, 204); taking multipoint measurements at each grid point and for each applied known load along said X, Y and Z axes (202, 204, 206); characterized by n and m ≥ 2; generating six measured output signals, exact position coordinates and applied known load magnitude for each grid point; assembling an array of nXmXp of six equations with six unknown for each grid point and applied known load; solving the assembled equations and deriving a position and load specific calibration matrix for each grid point; entering the derived position and load specific calibration matrices for all grid points in a calibration table and storing the calibration table in a non-volatile memory. providing a force platform (102, 400, 510) and applying an nXm grid on a top surface of the force platform (102, 400, 510) via a computing device, wherein said nXm grid comprises n points along an X-axis, and m points along a Y-axis of said force platform (102, 400, 510); applying p known loads on each of the nXm grid points of the top surface along a Z-axis being perpendicular to said X and Y axes (202, 204) and along said X and Y axes (202, 204); taking multipoint measurements at each grid point and for each applied known load along said X, Y and Z axes (202, 204, 206); characterized by n and m ≥ 2; generating six measured output signals, exact position coordinates and applied known load magnitude for each grid point; assembling an array of nXmXp of six equations with six unknown for each grid point and applied known load; solving the assembled equations and deriving a position and load specific calibration matrix for each grid point; entering the derived position and load specific calibration matrices for all grid points in a calibration table and storing the calibration table in a non-volatile memory.
Downmixer for downmixing a multi-channel audio signal having at least two channels, comprising: a weighting value estimator for estimating band-wise weighting values for the at least two channels, wherein the weighting value estimator is configured to calculate the band-wise weighting values based on a target energy value per band, so that an energy in the band of a downmix audio signal is in a predetermined relation to energies in the same bands of the at least two channels; a spectral weighter for weighting spectral domain representations of the at least two channels using the band-wise weighting values; a converter for converting weighted spectral domain representations of the at least two channels into time representations of the at least two channels; and a mixer for mixing the time representations of the at least two channels to obtain the downmix audio signal. a weighting value estimator for estimating band-wise weighting values for the at least two channels, wherein the weighting value estimator is configured to calculate the band-wise weighting values based on a target energy value per band, so that an energy in the band of a downmix audio signal is in a predetermined relation to energies in the same bands of the at least two channels; a spectral weighter for weighting spectral domain representations of the at least two channels using the band-wise weighting values; a converter for converting weighted spectral domain representations of the at least two channels into time representations of the at least two channels; and a mixer for mixing the time representations of the at least two channels to obtain the downmix audio signal.