mhurhangee/ep-ind-claims huggingface dataset:
A ventilator having a control unit which is configured such that a first mode is provided that has an IPAP and an EPAP and a high degree of support of respiratory effort, wherein the control unit is configured such that a second mode is provided that has a lesser degree of support of respiratory effort after being activated by a selection means, wherein the control unit is configured such that in the second mode, the IPAP is reduced faster than the EPAP, such that the pressure differential (inspiration pressure support) decreases overall, characterized in that in response to the user's selection, the control unit dictates the second mode in a time-controlled manner for a limited period, wherein after cessation of the period of the second mode, the control unit maintains ventilation at this low support level until ventilation is turned off by the user.
An electrophysiology catheter comprising: an elongated catheter body; a contraction wire; a distal assembly configured for contraction by actuation of the contraction wire, the distal assembly having a shape-memory support member having a 3-D configuration with a distal portion defined by a distal radius, the shape-memory support member having a generally rectangular cross-section defined by a width and a height, the generally rectangular cross-section being tapered in the distal portion such that a distal location in the distal portion has a greater height and a lesser width and a proximal location in the distal portion has a lesser height and greater width. an elongated catheter body; a contraction wire; a distal assembly configured for contraction by actuation of the contraction wire, the distal assembly having a shape-memory support member having a 3-D configuration with a distal portion defined by a distal radius, the shape-memory support member having a generally rectangular cross-section defined by a width and a height, the generally rectangular cross-section being tapered in the distal portion such that a distal location in the distal portion has a greater height and a lesser width and a proximal location in the distal portion has a lesser height and greater width.
An electric distributed propulsion system (900, 1000) for anti-torque modules for a helicopter comprising: two or more generators (904a, 904b, 1004a, 1004b) connectable to a main gearbox transmission (902, 1002); at least a first and a second plurality of variable speed motors (908a-e, 908f-j, 1008a-e, 1008f-j) connected to the two or more generators (904a, 904b, 1004a, 1004b), wherein the first and second plurality of variable speed motors (908a-e, 908f-j, 1008a-e, 1008f-j) is arranged in a first matrix pattern and configured to be mounted on a tail boom of the helicopter; one or more fixed pitch blades connected to each of the plurality of first variable speed motors that provide anti-torque thrust; and at least a first and a second yaw control computer (912a, 912b, 1012a, 1012b) independently connected to each of the at least first and second plurality of variable speed motors (908a-e, 908f-j, 1008a-e, 1008f-j), wherein each of the first and second yaw control computer (912a, 912b, 1012a, 1012b) serves as a primary and a backup yaw control computer to provide redundant control to both the first and second plurality of variable speed motors (908a-e, 908f-j, 1008a-e, 1008f-j). two or more generators (904a, 904b, 1004a, 1004b) connectable to a main gearbox transmission (902, 1002); at least a first and a second plurality of variable speed motors (908a-e, 908f-j, 1008a-e, 1008f-j) connected to the two or more generators (904a, 904b, 1004a, 1004b), wherein the first and second plurality of variable speed motors (908a-e, 908f-j, 1008a-e, 1008f-j) is arranged in a first matrix pattern and configured to be mounted on a tail boom of the helicopter; one or more fixed pitch blades connected to each of the plurality of first variable speed motors that provide anti-torque thrust; and at least a first and a second yaw control computer (912a, 912b, 1012a, 1012b) independently connected to each of the at least first and second plurality of variable speed motors (908a-e, 908f-j, 1008a-e, 1008f-j), wherein each of the first and second yaw control computer (912a, 912b, 1012a, 1012b) serves as a primary and a backup yaw control computer to provide redundant control to both the first and second plurality of variable speed motors (908a-e, 908f-j, 1008a-e, 1008f-j).
An adapter (230, 430, 530) for joining a cap (210, 410, 510) to an endoscope, wherein the cap (210, 410, 510) is adapted to be secured to an end of the endoscope with the end of the endoscope received within a channel of the cap (210, 410, 510), the adapter (230, 430, 530) comprising: a proximal portion, a distal portion (232, 532), and a channel for receiving the endoscope therein; and a securement structure that secures the cap to the end of the endoscope, wherein the securement structure is adapted to be compressed between the endoscope and an endoscopic mounting structure (211, 311, 411, 511) of the cap when the endoscope is received within the channel of the cap (210, 410, 510); characterized in that the securement structure comprises a plurality of resilient securement projections positionable inside the channel of the cap (210, 410, 510), wherein the resilient securement projections extend distally from the proximal portion of the adapter (230, 430, 530). a proximal portion, a distal portion (232, 532), and a channel for receiving the endoscope therein; and a securement structure that secures the cap to the end of the endoscope, wherein the securement structure is adapted to be compressed between the endoscope and an endoscopic mounting structure (211, 311, 411, 511) of the cap when the endoscope is received within the channel of the cap (210, 410, 510); characterized in that the securement structure comprises a plurality of resilient securement projections positionable inside the channel of the cap (210, 410, 510), wherein the resilient securement projections extend distally from the proximal portion of the adapter (230, 430, 530).
A clot removal device, comprising: an aspiration catheter having at least one axial lumen; a rotational device having a rotating shaft having a distal end, and an expandable braid (106,200,401) attached to the distal end of the shaft, wherein the expandable braid is delivered to a treatment site where blood clots are located from a first delivery position to a second clot engagement position, wherein in the first delivery position the expandable braid is in an unexpanded state inside the aspiration catheter having a first diameter, and wherein in the second position, the expandable braid is in a partially expanded position, having a second diameter that is greater than the first diameter when deployed outside the aspiration catheter and into clots, wherein the braid expands outwardly during rotations and macerates surrounding clots, and wherein the braid rotates concentrically or eccentrically along its longitudinal axis and expands radially as the braid rotates, wherein crossing wires of the braid structure are configured to interlace and macerate the clots, and wherein the braid is configured to expand upon rotation.
A method of preparing an anticancer agent comprising (a) exposing ex vivo a portion of cells obtained from a cancer cell line or a portion of tumor cells obtained from a patient to an agent selected from thapsigargin and thapsigargicin, so as to create treated tumor cells; (b) lysing said treated tumor cells to create cell fragments, wherein said fragments are suitable to generate an anticancer therapeutic effect. (a) exposing ex vivo a portion of cells obtained from a cancer cell line or a portion of tumor cells obtained from a patient to an agent selected from thapsigargin and thapsigargicin, so as to create treated tumor cells; (b) lysing said treated tumor cells to create cell fragments, wherein said fragments are suitable to generate an anticancer therapeutic effect.
Wind generator comprising a support platform the support platform, comprising a central body provided with a seat able to be engaged with a final section of a pillar of a wind generator, a series of radial elements and suitable support elements, position-adjusting means being cooperating on the one hand with the base of said final section and on the other hand with said support elements, said position-adjusting means being able to receive and contain a given quantity of fluid and vary the height of the wind generator by means of the raising or lowering of said pillar, characterized in that said central body is connected by means of said series of radial elements to an annular floating structure, and said position-adjusting means comprise at least one membrane tank situated inside the central body and designed to be inflated and deflated so as to raise or lower the pillar of the wind generator, said support element of said membrane tank being capable of being positioned at different heights inside the central body of the platform.
A method of manufacturing a battery with a substrate current collector, wherein the method comprises: forming elongate and aligned electrically conductive structures on the substrate face with upstanding walls; wherein the walls are formed with a first electrode layer covering said walls, and a solid state electrolyte layer provided on the first electrode layer; and wherein a second electrode is formed by covering the electrolyte layer; and forming a top current collector layer in electrical contact with the second electrode, characterized in that the second electrode is shielded from the conductive structure by an insulator covering a part of said conductive structure adjacent an end side thereof to prevent an ion transport path between the first and second electrode thereby mitigating stress build up near the end side of the conductive structure.
Sterilization device for packaging material comprising a power supply unit, and at least one electron beam emitter, wherein the power supply unit comprises - a housing comprising a first and at least one second chamber; - at least one electric system disposed within the housing for providing an output voltage to a high voltage output connector, the electric system comprising control system components, power electronic components and high voltage electric components (22,26); wherein the high voltage electric components are connected to the electron beam emitter; wherein the power electronic components and the control system components are located within the second chamber and wherein the high voltage electric components are arranged in the first chamber; wherein the first and the second chamber, respectively, are filled with an insulation gas; wherein at least one of the high voltage electric components is at least partly covered with a solid insulation layer, wherein the solid insulation layer is adapted to provide an electric insulation thereof, wherein the solid insulation layer comprises epoxy and is provided by potting; wherein the first and the second chamber, respectively, comprise at least one conveying device, such as a fan, used to create a circulating gas flow to cool the electric system. - a housing comprising a first and at least one second chamber; - at least one electric system disposed within the housing for providing an output voltage to a high voltage output connector, the electric system comprising control system components, power electronic components and high voltage electric components (22,26);
A secondary battery comprising a positive electrode plate, a negative electrode plate, a separator and an electrolyte, the positive electrode plate comprising a positive current collector and a positive film, the positive film being provided on at least one surface of the positive current collector and comprising a positive active material, the negative electrode plate comprising a negative current collector and a negative film, the negative film being provided on at least one surface of the negative current collector and comprising a negative active material; characterized in that the negative active material comprises graphite, and an average particle diameter of the positive active material represented by D50 and a thickness of the negative film represented by H n satisfy a relationship: 6≤0.06H n ×(4-1/D50)≤31; a unit of the average particle diameter of the positive active material represented by D50 in volume particle size distribution is μm, a unit of the thickness of the negative film represented by H n is μm; a pressing density of the negative film represented by PD and an OI value of the negative film represented by Voi satisfy a relationship: 0.2≤(PD+0.13×V OI)/9.2≤1.3, and a unit of the pressing density of the negative film represented by PD is g/cm 3, wherein Voi is determined by the method defined in the description. characterized in that the negative active material comprises graphite, and an average particle diameter of the positive active material represented by D50 and a thickness of the negative film represented by H n satisfy a relationship: 6≤0.06H n ×(4-1/D50)≤31; a unit of the average particle diameter of the positive active material represented by D50 in volume particle size distribution is μm, a unit of the thickness of the negative film represented by H n is μm; a pressing density of the negative film represented by PD and an OI value of the negative film represented by Voi satisfy a relationship: 0.2≤(PD+0.13×V OI)/9.2≤1.3, and a unit of the pressing density of the negative film represented by PD is g/cm 3, wherein Voi is determined by the method defined in the description.
Fracture separation device for the fracture separation of a workpiece, in particular a connecting rod, with a spreading element assembly having a first spreading element and at least one second spreading element as well as an actuating body for actuating the spreading element assembly from a positioning position into a spreading position for separating a first component of the workpiece, in particular a connecting rod cap, from a second component of the workpiece, in particular a connecting rod big end, wherein the spreading elements (41, 42) can be inserted into a bearing opening of the workpiece along a longitudinal axis in the positioning position and press with contact surfaces at their outer circumference against an inner circumference of the bearing opening in the spreading position, so that the first component breaks away from the second component of the workpiece while forming fracture separation surfaces, wherein the fracture separation surfaces extend from predetermined fracture zones radially away from the bearing opening, wherein the location surfaces of the spreading element assembly comprise at least one support surface arrangement for the support of the first component and the second component directly at one of the predetermined fracture zones of the bearing opening and at least one pressurisation surface (52, 54) for pressurising the bearing opening for separating the first component from the second component of the workpiece, and wherein the at least one pressurisation surface (52, 54) and the at least one support surface arrangement project in front of a reception zone of the spreading element assembly, into which reception zone a section of the bearing opening can be deformed when separating the first component from the second component, characterised in that at least one support surface of the support surface arrangement has a strip-shaped form for supporting the predetermined fracture zone along a longitudinal axis of the bearing opening, and in that the at least one pressurisation surface (52, 54) extends in front of the reception zone with respect to an advance direction of the actuating body.
A condenser core configured for being positioned around an electrical conductor, the condenser core comprising: a winding tube forming a longitudinal through hole through the condenser core, configured for allowing an electrical conductor to be inserted there through; an electrically insulating body wound onto and around the winding tube; and at least one electrically conducting foil coaxially encircling the winding tube and being surrounded by the body insulating each of the at least one foil from any other of the at least one foil; wherein the winding tube is of an electrically insulating material; characterized in that the condenser core comprises an electrical connection contacting at least one of the foils and being configured to contact the conductor when the conductor is inserted through the winding tube. a winding tube forming a longitudinal through hole through the condenser core, configured for allowing an electrical conductor to be inserted there through; an electrically insulating body wound onto and around the winding tube; and at least one electrically conducting foil coaxially encircling the winding tube and being surrounded by the body insulating each of the at least one foil from any other of the at least one foil; wherein the winding tube is of an electrically insulating material; characterized in that the condenser core comprises an electrical connection contacting at least one of the foils and being configured to contact the conductor when the conductor is inserted through the winding tube.
A method for measuring intraocular pressure under surface of an eye by utilizing electromagnetic waves, wherein laser radiation is directed to the surface from a distance to generate vibration or mechanical wave to the surface at at least one generation location in the surface on the basis of photoacoustic phenomena, the generation location being at least one point where the laser radiation hits the surface, surface vibrations due to the generated vibration or mechanical wave are detected on the basis of electromagnetic waves by using at least one of optical interferometry, optical coherence tomography and laser Doppler vibrometry, the detected mechanical wave is recorded at at least one recording location to form mechanical wave information, and pressure information of intraocular pressure under the surface of the eye is determined based on at least one recorded signal.
Photovoltaic junction box, having a housing lower part and a housing upper part which interacts with the said housing lower part, wherein a seal is provided between the housing lower part and the housing upper part, and there is at least one connection plug for a connection line and, in the interior of the photovoltaic junction box, a contact carrier with at least one contact, characterized in that a clamping element can be attached to the contact carrier with the at least one contact, wherein the clamping element can be moved from a preliminary position to a latching position, and the clamping element has at least one latching hook, and the contact carrier has at least two openings (5, 6) in the interior of the photovoltaic junction box, wherein one opening interacts with the latching hook in the preliminary position, and the latching hook interacts with the at least one further opening in the latching position.
A needle for delivering a dermal filler thread comprising: a tubular body having a proximal portion (14, 20) and a distal portion, a coupler in its proximal portion for attaching a dermal filler thread to the needle, and wherein the coupler is a separate, hollow, tubular piece, said needle being characterized in that it comprises a blunt distal end in the distal portion and in that the blunt distal end comprises a tip portion having a height and a substantially round base, the base being of the same diameter as the tubular body of the needle, and the height being less than a diameter of the base. a tubular body having a proximal portion (14, 20) and a distal portion, a coupler in its proximal portion for attaching a dermal filler thread to the needle, and wherein the coupler is a separate, hollow, tubular piece, said needle being characterized in that it comprises a blunt distal end in the distal portion and in that the blunt distal end comprises a tip portion having a height and a substantially round base, the base being of the same diameter as the tubular body of the needle, and the height being less than a diameter of the base.
A method for measuring a two-dimensional distribution of ionizing radiation doses with high spatial resolution comprising exposing a radiation sensitive film to a pattern of ionizing radiation that is to be measured to produce a measurement film and exposing one or more radiation sensitive films to known calibrated doses of said ionizing radiation to produce one or more scaling films, simultaneously scanning said measurement film and said scaling film(s) together with an unexposed radiation sensitive film in a multiplicity of measurement channels to produce a digital image, measuring those areas of the digital image corresponding to said unexposed film and said scaling film(s) in said measurement channels, converting said digital image to a map of dose values based on a previously determined mathematical relationship between measured scanner response values for the film in said measurement channels and radiation dose and subsequently adjusting all the dose values corresponding to said digital image using a mathematical function so that the dose values in the areas of said digital image representative of said unexposed film and said scaling films are equal to the calibrated dose values to which they were exposed, wherein all of the radiation sensitive films are the same type of film and at least one scaling film is exposed to a radiation dose greater than the highest dose in the measurement film.
An aerosol-generating article comprising a rod of aerosol-generating substrate, wherein the rod of aerosol-generating substrate comprises: an aerosol-generating film comprising at least 25 percent by weight of a polyhydric alcohol and at least 10 percent by weight of a cellulose based film-forming agent, wherein the aerosol-generating film is configured such that the exposed surface area of the aerosol-generating film within the aerosol-generating substrate is at least 5 square millimetres per mg of the aerosol-generating film and wherein the aerosol-generating film is substantially tobacco-free.
Battery module comprising - a housing, - at least one battery arranged in the housing, - at least one inlet opening for introducing a temperature-control fluid into the housing, - at least one outlet opening for discharging the temperature-control fluid from the housing, - at least one monitoring means for detecting a state of the at least one battery, wherein the at least one inlet opening and/or the at least one outlet opening can be closed by at least one closure means in the case of a fault state of the at least one battery being detected by the at least one monitoring means, with the result that gases leaking from the at least one battery having the fault state cannot leak from the battery module, characterized in that the at least one monitoring means comprises a sensor for identifying gases, said sensor being configured to identify a fault state starting from at least one prescribed concentration of at least one prescribed gas. - a housing, - at least one battery arranged in the housing, - at least one inlet opening for introducing a temperature-control fluid into the housing, - at least one outlet opening for discharging the temperature-control fluid from the housing, - at least one monitoring means for detecting a state of the at least one battery,