mhurhangee/ep-ind-claims huggingface dataset:
An ablation device, comprising: an elongate member having a distal end configured for introduction into a patient's body, at least two elongate bodies (602, 604a, 604b) disposed on the distal end of the elongate member, wherein each of the elongate bodies (602, 604a, 604b) includes proximal and distal ends, an inner lumen extending therethrough, and at least one outlet port formed in the elongate body and configured to deliver fluid to tissue surrounding the elongate body, wherein at least one of the at least two elongate bodies (602, 604a, 604b) includes at least one ablation element disposed along a distal portion of the elongate body, the ablation element being configured to heat tissue surrounding the ablation element when the elongate body is inserted into tissue; and wherein at least one of the at least two elongate bodies (602, 604a, 604b) includes a heater element disposed within the inner lumen of the elongate body, the heater element being configured to heat fluid flowing through the inner lumen, characterized in that the device is configured to simultaneously emit energy from the at least one ablation element, deliver a first fluid from the at least one outlet port of a first elongate body, and a second fluid from the at least one outlet port of a second elongate body, wherein the device is configured to deliver the first and second fluids at different temperatures such that the first and second fluids can convect the energy in a desired direction to define a treatment volume having a predetermined shape. an elongate member having a distal end configured for introduction into a patient's body, at least two elongate bodies (602, 604a, 604b) disposed on the distal end of the elongate member, wherein each of the elongate bodies (602, 604a, 604b) includes proximal and distal ends, an inner lumen extending therethrough, and at least one outlet port formed in the elongate body and configured to deliver fluid to tissue surrounding the elongate body, wherein at least one of the at least two elongate bodies (602, 604a, 604b) includes at least one ablation element disposed along a distal portion of the elongate body, the ablation element being configured to heat tissue surrounding the ablation element when the elongate body is inserted into tissue; and wherein at least one of the at least two elongate bodies (602, 604a, 604b) includes a heater element disposed within the inner lumen of the elongate body, the heater element being configured to heat fluid flowing through the inner lumen, characterized in that the device is configured to simultaneously emit energy from the at least one ablation element, deliver a first fluid from the at least one outlet port of a first elongate body, and a second fluid from the at least one outlet port of a second elongate body, wherein the device is configured to deliver the first and second fluids at different temperatures such that the first and second fluids can convect the energy in a desired direction to define a treatment volume having a predetermined shape.
An information presentation apparatus (100, 100a), comprising: an actuator that includes a movable portion and is capable of linearly driving the movable portion; a control unit that controls the actuator so that the movable portion is driven corresponding to waveform information; and a belt for attaching the actuator to a user; wherein an end portion of the belt is fixed to the movable portion, wherein a length of a portion of the belt is changed by driving of the movable portion in a forward or backward direction, the portion being wrapped around the user, wherein the information presentation apparatus comprises a communication unit that acquires setting information through communication, and characterized by the setting information including at least stimulation-type information for identifying a kind of the tactile stimulation, wherein the control unit is configured to generate the waveform information on the basis of the stimulation-type information included in the acquired setting information, wherein the setting information further includes temporal setting information, and wherein the control unit is configured to generate a timing of driving the movable portion on the basis of the temporal setting information included in the acquired setting information. an actuator that includes a movable portion and is capable of linearly driving the movable portion; a control unit that controls the actuator so that the movable portion is driven corresponding to waveform information; and a belt for attaching the actuator to a user; wherein an end portion of the belt is fixed to the movable portion, wherein a length of a portion of the belt is changed by driving of the movable portion in a forward or backward direction, the portion being wrapped around the user, wherein the information presentation apparatus comprises a communication unit that acquires setting information through communication, and characterized by the setting information including at least stimulation-type information for identifying a kind of the tactile stimulation, wherein the control unit is configured to generate the waveform information on the basis of the stimulation-type information included in the acquired setting information, wherein the setting information further includes temporal setting information, and wherein the control unit is configured to generate a timing of driving the movable portion on the basis of the temporal setting information included in the acquired setting information.
Structure for radiofrequency applications comprising: - a monocrystalline substrate, - a polycrystalline silicon layer directly on the monocrystalline substrate, - an active layer on the polycrystalline silicon layer, the active layer intended to receive radiofrequency components, wherein at least a first portion of the polycrystalline silicon layer extending from the interface of the polycrystalline silicon layer with the monocrystalline layer includes carbon and/or nitrogen atoms located at the grain boundaries of the polycrystalline silicon, in a concentration comprised between 2% and 20 %. - a monocrystalline substrate, - a polycrystalline silicon layer directly on the monocrystalline substrate, - an active layer on the polycrystalline silicon layer, the active layer intended to receive radiofrequency components,
Electronic pen with pen position detection, comprising at least one electrical voltage source, at least one digital control unit, a force transmission element, and at least one force sensor for measuring a writing pressure force, wherein the electronic pen has at least one elastic means, and wherein the at least one elastic means is configured to generate a force opposing a pressure force acting on the at least one force sensor, characterized in that that the at least one force sensor is connected to the at least one voltage source and to the at least one elastic means via at least one flexible electrical conductor, and wherein the at least one force sensor and the at least one voltage source are arranged displaceable together along the longitudinal axis of the electronic pen or displaceable together substantially parallel to the longitudinal axis of the electronic pen and further causing a displacement of the at least one force sensor together with the at least one voltage source along the longitudinal axis of the electronic pen or substantially parallel to the longitudinal axis of the electronic pen towards the at least one elastic means and against the force producible by the at least one elastic means, e.g. a spring force, and the pressure force exerted by said displacement of the force transmission element on the at least one force sensor is being limited by the at least one elastic means.
A system (100, 300) comprising one or more processors configured to: receive weather data (202, 166, 176, 186, 196) from one or more weather data sources (10, 20, 30, 40, 50, 140, 142); receive, from a requesting weather radar system (10, 12), a request for supplemental weather data covering an identified region, wherein the requesting weather radar system is associated with a specific weather radar data format; identify a set of supplemental weather data for the identified region (296N, 242), based on the received weather data from the one or more weather data sources, wherein the supplemental weather data is in the specific weather radar data format associated with the requesting weather radar system and comprises weather forecast information (96, 97, 98) for the identified region, wherein the weather forecast information for the identified region comprises data on a reflectivity trend of one or more weather features in the identified region; and transmit the supplemental weather data for the identified region to the requesting weather radar system. receive weather data (202, 166, 176, 186, 196) from one or more weather data sources (10, 20, 30, 40, 50, 140, 142); receive, from a requesting weather radar system (10, 12), a request for supplemental weather data covering an identified region, wherein the requesting weather radar system is associated with a specific weather radar data format; identify a set of supplemental weather data for the identified region (296N, 242), based on the received weather data from the one or more weather data sources, wherein the supplemental weather data is in the specific weather radar data format associated with the requesting weather radar system and comprises weather forecast information (96, 97, 98) for the identified region, wherein the weather forecast information for the identified region comprises data on a reflectivity trend of one or more weather features in the identified region; and transmit the supplemental weather data for the identified region to the requesting weather radar system.
Medical removal unit for bodily fluids, in particular blood, comprising a needle carrier, which needle carrier has a distal needle carrier end and a proximal needle carrier end, at least one cannula, which cannula comprises a distal cannula section for sticking into the body and a proximal cannula section for piercing a closing body of a collecting container, a removal channel, which removal channel connects the distal cannula section to the proximal cannula section, a hose-like elastically deformable and pierceable sleeve, which sleeve comprises a closed proximal sleeve end and an open distal sleeve end, wherein the distal sleeve end of the sleeve is secured to the proximal needle carrier end of the needle carrier and surrounds the proximal cannula section in a sealing manner forming an accommodating chamber, and with an air removal device, which air removal device connects the accommodating chamber for the outflow of air from the accommodating chamber to the outer environment, wherein the air removal device is formed by at least one outflow channel arranged or formed in the needle carrier, wherein a portion of the outflow channel comprises a plurality of chambers (27, 28, 29) arranged spaced apart from one another and behind one another in outflow direction and at least one connecting channel (30, 31) connecting chambers (27, 28, 29) arranged directly adjacent to one another in outflow direction and wherein the connecting channel (30, 31) has a flow cross-section which allows the through-flow of air, but prevents or completely blocks the passage of bodily fluid, in particular blood, at least for the most part.
A fluid wicking tip for a syringe, comprising a plurality of drip flanges arranged to wick fluid into narrow spaces defined between any two adjacent drip flanges; a luer fitting sized and configured to be fluidly coupled to an interior of the syringe or sized and configured to be fluidly coupled to and fluidly connect the interior of the syringe with a flexible tube assembly, wherein the narrow spaces are dimensioned to facilitate wicking by capillary action.
Connection comprising a pipe with a socket and a pipe component with a spigot, which is plugged into the socket, wherein the connection comprises a device for axially fixing the connection between the pipe with the socket and the pipe component (4, 4') with the spigot, which is plugged into the socket, wherein the device comprises - a pipe clamp, of which the inner side butts, at least in part, against the pipe, and in the process, engages behind an encircling collar of the socket, - at least two axial connecting elements (7, 7'), which are connected at one end to the pipe clamp, and - at least one fastening means (8, 8'), which is connected in each case to the other end of the axial connecting elements (7, 7') and butts, at least in part, against the pipe component, characterized in that the pipe component is a socket plug with a spigot which can be introduced, with a form fit, into the socket, and the fastening means is a metal retaining plate, of which one surface butts at least in part against a cover region of the socket plug. - a pipe clamp, of which the inner side butts, at least in part, against the pipe, and in the process, engages behind an encircling collar of the socket, - at least two axial connecting elements (7, 7'), which are connected at one end to the pipe clamp, and - at least one fastening means (8, 8'), which is connected in each case to the other end of the axial connecting elements (7, 7') and butts, at least in part, against the pipe component, characterized in that the pipe component is a socket plug with a spigot which can be introduced, with a form fit, into the socket, and the fastening means is a metal retaining plate, of which one surface butts at least in part against a cover region of the socket plug.
An optical transmission system comprising: an optical fiber transmission line that includes an optical fiber with two or more propagation modes; and a plurality of mode converters that are configured to generate mode coupling between at least one pair of the propagation modes, wherein a variation in installation intervals of the plurality of mode converters is equal to or less than a threshold value determined by a transmission line length of the optical fiber transmission line; characterized in that a transmission line length of the optical fiber transmission line is Lt, a converter length of the mode converter is Lg, and the number of the mode converters are n; in that in a case where the transmission line length Lt includes the converter length Lg, standard deviation of an installation interval of the mode converter is equal to or less than a value expressed by a following expression: L t − ∑ i = 1 n L gi / n + 1 × 0.4 and in that a relative value of a group delay spread of the optical fiber transmission line in where the plurality of mode converters is installed to a group delay spread of the optical fiber transmission line itself in where the plurality of mode converters is not installed is 0.5 or less. an optical fiber transmission line that includes an optical fiber with two or more propagation modes; and a plurality of mode converters that are configured to generate mode coupling between at least one pair of the propagation modes, wherein a variation in installation intervals of the plurality of mode converters is equal to or less than a threshold value determined by a transmission line length of the optical fiber transmission line; characterized in that a transmission line length of the optical fiber transmission line is Lt, a converter length of the mode converter is Lg, and the number of the mode converters are n; in that in a case where the transmission line length Lt includes the converter length Lg, standard deviation of an installation interval of the mode converter is equal to or less than a value expressed by a following expression: L t − ∑ i = 1 n L gi / n + 1 × 0.4 and in that a relative value of a group delay spread of the optical fiber transmission line in where the plurality of mode converters is installed to a group delay spread of the optical fiber transmission line itself in where the plurality of mode converters is not installed is 0.5 or less.
A high-strength cold-rolled steel sheet having a composition comprising, in terms of % by mass, C: 0.15% or more and 0.22% or less, Si: 1.0% or more and 2.0% or less, Mn: 1.7% or more and 2.5% or less, P: 0.05% or less, S: 0.02% or less, Al: 0.01% or more and 0.05% or less, N: 0.005% or less, at least one selected from Cu: 0.01% or more and 0.30% or less and Ni: 0.01% or more and 0.30% or less, optionally at least one selected from Ti: 0.010% or more and 0.020% or less, Nb: 0.02% or more and 0.10% or less, B: 0.0002% or more and 0.0020% or less, V: 0.01% or more and 0.30% or less, Mo: 0.01% or more and 0.30% or less, Cr: 0.01% or more and 0.30% or less, Sn: 0.001% or more and 0.100% or less, Sb: 0.001% or more and 0.100% or less, Ca: 0.0002% or more and 0.0100% or less, W: 0.01% or more and 0.10% or less, Co: 0.01% or more and 0.10% or less, and REM: 0.0002% or more and 0.0050% or less, and the balance being iron and unavoidable impurities, the composition satisfying formula below, wherein the steel sheet has a structure including, in terms of area fraction, 60% or more and 90% or less of tempered martensite, 5% or less (inclusive of 0%) of untransformed austenite, and the balance being ferrite, and the ferrite has an average crystal grain size of less than 3.5 μm, wherein less than 10 particles/100 μm 2 of Si-Mn compound oxide particles having a circle equivalent diameter of 5 μm or less are present on a surface of the steel sheet, and the surface of the steel sheet is covered with Si-based oxide at a coverage of 1% or less, wherein the steel sheet has a tensile strength of 1,300 MPa or higher: Si / Mn ≥ 0.5 in the formula, [Si] represents a Si content in % by mass, and [Mn] represents a Mn content in % by mass. in the formula, [Si] represents a Si content in % by mass, and [Mn] represents a Mn content in % by mass.
A composition including 40 to 350 parts by weight of a functional fiber and 20 to 300 parts by weight of an inorganic microparticulate filler having an average particle diameter of less than 15 μm per 100 parts by weight of an addition-reaction type polyimide resin, wherein the inorganic microparticulate filler is at least one of calcium carbonate, talc, barium sulfate, granite and magnesium oxide.
A gas bag arrangement for a vehicle occupant restraint system, comprising - an inflatable gas bag which includes at least one vent device for venting gas from the gas bag, wherein - the vent device in a first condition has a first outflow cross-section and in a second condition a second outflow cross-section; and - a release mechanism which initially fixes the vent device and after activation releases the vent device, characterized in that the release mechanism includes an element that can be filled with gas, with which the vent device is connected such that before filling of the fillable element it is fixed at the same and during filling of the fillable element is detached from the same, wherein the vent device is indirectly or directly connected with the fillable element via a releasable connection which will tear during filling of the fillable element and release the vent device, such that the vent device passes from the first into the second condition. - an inflatable gas bag which includes at least one vent device for venting gas from the gas bag, wherein - the vent device in a first condition has a first outflow cross-section and in a second condition a second outflow cross-section; and - a release mechanism which initially fixes the vent device and after activation releases the vent device,
A method comprising: forming an abrasive coating system on a substrate, the abrasive coating system comprising an abrasive coating including a plurality of abrasive particles in a metal matrix, wherein forming the abrasive coating system on the substrate comprises depositing the plurality of abrasive particles and the metal matrix on the substrate; machining the abrasive coating on the substrate to define a machined abrasive coating having an abrasive coating thickness profile; and etching an outer surface of the machined abrasive coating to remove a portion of the metal matrix and form an etched metal matrix such that the abrasive particles protrude from the metal matrix; wherein the substrate comprises a blade of a gas turbine engine, the abrasive coating is formed on a blade tip of the blade, and the abrasive coating system of the blade tip is configured to abrade an abradable layer of a blade track during operation of the gas turbine engine, the method being characterized in that, directed energy deposition is used for depositing the plurality of abrasive particles and the metal matrix, while forming of the abrasive coating system on the substrate. forming an abrasive coating system on a substrate, the abrasive coating system comprising an abrasive coating including a plurality of abrasive particles in a metal matrix, wherein forming the abrasive coating system on the substrate comprises depositing the plurality of abrasive particles and the metal matrix on the substrate; machining the abrasive coating on the substrate to define a machined abrasive coating having an abrasive coating thickness profile; and etching an outer surface of the machined abrasive coating to remove a portion of the metal matrix and form an etched metal matrix such that the abrasive particles protrude from the metal matrix; wherein the substrate comprises a blade of a gas turbine engine, the abrasive coating is formed on a blade tip of the blade, and the abrasive coating system of the blade tip is configured to abrade an abradable layer of a blade track during operation of the gas turbine engine, the method being characterized in that, directed energy deposition is used for depositing the plurality of abrasive particles and the metal matrix, while forming of the abrasive coating system on the substrate.
A method of separating linear alpha olefins, comprising: passing a feed stream comprising linear alpha olefins through a first column; distributing a C10- fraction to a top portion of the first column; distributing a C12+ fraction to a bottom portion of the first column; withdrawing the C10- fraction from the top portion of the first column; passing the C10- fraction through a second column; distributing a C8 fraction to a top portion of the second column; and distributing a C10 fraction to a bottom portion of the second column; wherein any fraction withdrawn from the top portion of the first column is further separated into greater than or equal to two fractions. passing a feed stream comprising linear alpha olefins through a first column; distributing a C10- fraction to a top portion of the first column; distributing a C12+ fraction to a bottom portion of the first column; withdrawing the C10- fraction from the top portion of the first column; passing the C10- fraction through a second column; distributing a C8 fraction to a top portion of the second column; and distributing a C10 fraction to a bottom portion of the second column; wherein any fraction withdrawn from the top portion of the first column is further separated into greater than or equal to two fractions.