mhurhangee/ep-ind-claims huggingface dataset:
A system for tracking a penetrating instrument, comprising: an ultrasound transducer array configured to generate ultrasound signals from a plurality of array positions and to provide one or more real-time images of an area of interest; a penetrating instrument having a body with at least one ultrasound transducer (134, 404) mounted at a position of interest on the body, the at least one ultrasound transducer (134, 404) being responsive to the ultrasound signals generated by the plurality of array positions; a signal processing module configured to determine a position and orientation of the penetrating instrument in accordance with the ultrasound signals generated by the plurality of array positions based upon a response of the at least one ultrasound transducer (134, 404) to the ultrasound signals generated by the plurality of array positions, the signal processing module being further configured to classify media in which the position of interest is positioned based on pulse-echo mode signals transduced by the at least one ultrasound transducer (134, 404) wherein said pulse-echo mode signals are configured to measure acoustic characteristics of surrounding tissue; an overlay module configured to generate an overlay image registered to the one or more real-time images to identify a position of the position of interest and provide visual feedback on the classification of the media in which the position of interest is positioned; and a display configured to provide the visual feedback of the overlay image on the one or more real-time images. an ultrasound transducer array configured to generate ultrasound signals from a plurality of array positions and to provide one or more real-time images of an area of interest; a penetrating instrument having a body with at least one ultrasound transducer (134, 404) mounted at a position of interest on the body, the at least one ultrasound transducer (134, 404) being responsive to the ultrasound signals generated by the plurality of array positions; a signal processing module configured to determine a position and orientation of the penetrating instrument in accordance with the ultrasound signals generated by the plurality of array positions based upon a response of the at least one ultrasound transducer (134, 404) to the ultrasound signals generated by the plurality of array positions, the signal processing module being further configured to classify media in which the position of interest is positioned based on pulse-echo mode signals transduced by the at least one ultrasound transducer (134, 404) wherein said pulse-echo mode signals are configured to measure acoustic characteristics of surrounding tissue; an overlay module configured to generate an overlay image registered to the one or more real-time images to identify a position of the position of interest and provide visual feedback on the classification of the media in which the position of interest is positioned; and a display configured to provide the visual feedback of the overlay image on the one or more real-time images.
A dispersant composition for an electrochemical device comprising a polymer A and a substituted phenol, wherein the polymer A includes a nitrile group-containing monomer unit, the polymer A has an intrinsic viscosity, measured in accordance with the method defined in the example section of the description, of not less than 0.15 dL/g and less than 1.20 dL/g when dissolved in N-methyl-2-pyrrolidone and measured at a temperature of 25°C, proportional content of the nitrile group-containing monomer unit in the polymer A is not less than 15 mass% and not more than 50 mass% when all repeating units in the polymer A are taken to be 100 mass%, and not less than 0.01 mass% and not more than 0.2 mass% of the substituted phenol is included relative to the polymer A. the polymer A includes a nitrile group-containing monomer unit, the polymer A has an intrinsic viscosity, measured in accordance with the method defined in the example section of the description, of not less than 0.15 dL/g and less than 1.20 dL/g when dissolved in N-methyl-2-pyrrolidone and measured at a temperature of 25°C, proportional content of the nitrile group-containing monomer unit in the polymer A is not less than 15 mass% and not more than 50 mass% when all repeating units in the polymer A are taken to be 100 mass%, and not less than 0.01 mass% and not more than 0.2 mass% of the substituted phenol is included relative to the polymer A.
Multilumen implant for the application in human and animal vascular systems/bodies, comprising a substantially tubular element that divides into a proximal and a distal section, and at least one stent for the fixation of the proximal section in a target vessel, wherein the tubular element is designed to branch in the distal section into at least two branches (6, 7) with respective lumens (4, 5) and wherein the proximal section of the tubular element is folded over upon the distal section so that the stent is arranged between the proximal section of the tubular element and the distal section characterized in that the length of the folded proximal section of the tubular element corresponds to at least the length of the stent and wherein the branches (6, 7) are at least partially arranged inside the stent.
A method for forming an absorbent core comprising cellulosic pulp fibres and/or superabsorbents, said method comprising the steps of - forming an absorbent core; - compressing said absorbent core in a compression nlp; characterized by said method further comprising a subsequent step of - passing said compressed absorbent core through a subsequent nip, the subsequent nip comprising two rolls (18, 20), wherein at least one of said rolls (18, 20) has a surface comprising an elastic material, such that the hard-spot number of said absorbent core is reduced. - forming an absorbent core; - compressing said absorbent core in a compression nlp; - passing said compressed absorbent core through a subsequent nip,
A bicycle element having a bicycle frame with a steerer tube and a handlebar stem connection device being at least partially arranged in a steerer tube for connecting a handlebar stem with a front wheel fork, comprising a steerer tube connectible with the front wheel fork, a handlebar stem tube connectible with the handlebar stem, the handlebar stem tube surrounding the steerer tube in a mounted state, a clamping element for a clamping connection of the steerer tube with the handlebar stem tube, the clamping element being arranged between the steerer tube and the handlebar stem tube, and a fixing element holding the clamping element in a clamped position, characterized in that the steerer tube comprises a slit and the handlebar stem tube comprises a longitudinal slit through which the fixing element is accessible. a steerer tube connectible with the front wheel fork, a handlebar stem tube connectible with the handlebar stem, the handlebar stem tube surrounding the steerer tube in a mounted state, a clamping element for a clamping connection of the steerer tube with the handlebar stem tube, the clamping element being arranged between the steerer tube and the handlebar stem tube, and a fixing element holding the clamping element in a clamped position, characterized in that the steerer tube comprises a slit and the handlebar stem tube comprises a longitudinal slit through which the fixing element is accessible.
A method for additive manufacturing of a three-dimensional object by successive, selective layer-by-layer solidification of layers of a construction material by at least one energy beam, wherein the successive, selective solidification of the construction material is carried out due to a data record describing the three-dimensional object to be additively manufactured, wherein construction material sections provided for sintering and/or melting on or melting through are heated in a temperature range lying below the solidification temperature of the construction material, wherein the heating of the construction material section(s) is carried out by at least one heating beam either section-wise surrounding at least one main beam provided for melting on or melting through or going ahead or following the main beam, wherein the main beam and the heating beam are together guided synchronously along the surface of the construction material; characterized in that the ratio of the beam splitting into the main beam and the heating beam as well as the spot sizes of the main beam and the heating beam on the construction material surface are varied during the process.
A hydraulic control unit for a nuclear reactor, comprising: a scram accumulator (102,200) having a first end with an inlet and an opposing second end with an outlet, the scram accumulator defining a chamber therein and containing bellows within the chamber, the bellows configured to hold a scram liquid, the bellows having a fixed end and a moveable end, the fixed end of the bellows secured to the second end of the scram accumulator (102,200), the bellows configured to transition between an expanded state and a compressed state via the moveable end; a gas supply vessel connected to the first end of the scram accumulator (102,200), the gas supply vessel configured to hold a scram gas under pressure and in fluid communication with the chamber of the scram accumulator through the inlet so as to exert a compressive force on the moveable end of the bellows in a form of stored energy; and a scram valve connected to the second end of the scram accumulator (102,200) and configured to withstand the compressive force exerted through the bellows to contain the stored energy, the scram valve configured to open in response to a scram signal to release the stored energy and allow the bellows to yield to the compressive force and transition to the compressed state. a scram accumulator (102,200) having a first end with an inlet and an opposing second end with an outlet, the scram accumulator defining a chamber therein and containing bellows within the chamber, the bellows configured to hold a scram liquid, the bellows having a fixed end and a moveable end, the fixed end of the bellows secured to the second end of the scram accumulator (102,200), the bellows configured to transition between an expanded state and a compressed state via the moveable end; a gas supply vessel connected to the first end of the scram accumulator (102,200), the gas supply vessel configured to hold a scram gas under pressure and in fluid communication with the chamber of the scram accumulator through the inlet so as to exert a compressive force on the moveable end of the bellows in a form of stored energy; and a scram valve connected to the second end of the scram accumulator (102,200) and configured to withstand the compressive force exerted through the bellows to contain the stored energy, the scram valve configured to open in response to a scram signal to release the stored energy and allow the bellows to yield to the compressive force and transition to the compressed state.
An apparatus for analyzing coronary vessels, comprising an input unit adapted to receive simulated pullback data comprising a plurality of simulated pressure values determined for a plurality of points in a physiological model generated from at least one diagnostic image of a vessel of interest, the plurality of points extending along a segment of the vessel of interest going from a starting point at a distal end of the vessel of interest to an ending point at a proximal end of the vessel of interest, and intravascular pullback data comprising a plurality of intravascular pressure values acquired in-situ along the segment of the vessel of interest and a co-registration unit adapted to derive a simulated pressure pullback curve from the simulated pullback data and an intravascular pressure pullback curve from the intravascular pullback data; to compare the simulated pressure pullback curve and the intravascular pressure pullback curve to identify at least one disparity between the simulated pressure pullback curve and the intravascular pressure pullback curve; and to output the at least one disparity. an input unit adapted to receive simulated pullback data comprising a plurality of simulated pressure values determined for a plurality of points in a physiological model generated from at least one diagnostic image of a vessel of interest, the plurality of points extending along a segment of the vessel of interest going from a starting point at a distal end of the vessel of interest to an ending point at a proximal end of the vessel of interest, and intravascular pullback data comprising a plurality of intravascular pressure values acquired in-situ along the segment of the vessel of interest and simulated pullback data comprising a plurality of simulated pressure values determined for a plurality of points in a physiological model generated from at least one diagnostic image of a vessel of interest, the plurality of points extending along a segment of the vessel of interest going from a starting point at a distal end of the vessel of interest to an ending point at a proximal end of the vessel of interest, and intravascular pullback data comprising a plurality of intravascular pressure values acquired in-situ along the segment of the vessel of interest a co-registration unit adapted to derive a simulated pressure pullback curve from the simulated pullback data and an intravascular pressure pullback curve from the intravascular pullback data; to compare the simulated pressure pullback curve and the intravascular pressure pullback curve to identify at least one disparity between the simulated pressure pullback curve and the intravascular pressure pullback curve; and to output the at least one disparity. to derive a simulated pressure pullback curve from the simulated pullback data and an intravascular pressure pullback curve from the intravascular pullback data; to compare the simulated pressure pullback curve and the intravascular pressure pullback curve to identify at least one disparity between the simulated pressure pullback curve and the intravascular pressure pullback curve; and to output the at least one disparity.
Rotor for a turbomachine, in particular for a turbojet engine, the rotor comprising a turbomachine rotor assembly, the assembly comprising: - a screw (2, 102) provided with a head (2.1, 102.1, 102.6) and a threaded rod (2.2, 102.2), ∘ the threaded rod (2.2, 102.2) extending along a geometric axis, ∘ the head (2.1, 102.1, 102.6) having at least one peripheral surface (2.3, 102.3) describing an elliptical or circular profile, the center of such a circular profile being distant from the axis, the profile describing a curve varying from a minimum radius to a maximum radius relative to the axis, - and a first part intended to be assembled at least by means of said screw (2, 102) to a second part, the first part being provided with a hole (4.3) through which the screw passes, of a diameter strictly less than twice the minimum radius; the first part comprising a rotation stop surface (4.42) of the screw, capable of cooperating with said peripheral surface (2.3, 102.3) in at least one angular position of the screw (2, 102), - the first part comprising an annular wall (4.2) provided with a groove (4.4) whose bottom (4.42) forms said stop surface (4.42), the groove (4.4) being positioned radially inside said annular wall (4.2), - the assembly further comprising said second part provided with a hole (6.3) through which the screw (2, 102) passes, the first part and the second part defining between them an annular chamber in which the head of the screw is disposed. - a screw (2, 102) provided with a head (2.1, 102.1, 102.6) and a threaded rod (2.2, 102.2), ∘ the threaded rod (2.2, 102.2) extending along a geometric axis, ∘ the head (2.1, 102.1, 102.6) having at least one peripheral surface (2.3, 102.3) describing an elliptical or circular profile, the center of such a circular profile being distant from the axis, the profile describing a curve varying from a minimum radius to a maximum radius relative to the axis, ∘ the threaded rod (2.2, 102.2) extending along a geometric axis, ∘ the head (2.1, 102.1, 102.6) having at least one peripheral surface (2.3, 102.3) describing an elliptical or circular profile, the center of such a circular profile being distant from the axis, the profile describing a curve varying from a minimum radius to a maximum radius relative to the axis, - and a first part intended to be assembled at least by means of said screw (2, 102) to a second part, the first part being provided with a hole (4.3) through which the screw passes, of a diameter strictly less than twice the minimum radius; the first part comprising a rotation stop surface (4.42) of the screw, capable of cooperating with said peripheral surface (2.3, 102.3) in at least one angular position of the screw (2, 102), - the first part comprising an annular wall (4.2) provided with a groove (4.4) whose bottom (4.42) forms said stop surface (4.42), the groove (4.4) being positioned radially inside said annular wall (4.2), - the assembly further comprising said second part provided with a hole (6.3) through which the screw (2, 102) passes, the first part and the second part defining between them an annular chamber in which the head of the screw is disposed.
An accumulator, comprising a housing, a filter being arranged in the housing, wherein, the housing comprises a first sub-housing and a second sub-housing, an accommodating cavity is provided in the housing, the first sub-housing and the second sub-housing are sealedly fixed to form the accommodating cavity, the filter is arranged in the accommodating cavity, the housing is provided with a first thick wall portion, the first thick wall portion is located in the second sub-housing, an inlet channel and an outlet channel are provided in the first thick wall portion, one end of the inlet channel is in communication with the accommodating cavity, and another end of the inlet channel is in communication with an exterior of the housing, one end of the outlet channel is in communication with the accommodating cavity through the filter, and another end of the outlet channel is in communication with the exterior of the housing, characterised in that a port of the inlet channel in communication with the exterior of the housing is arranged adjacent to a port of the outlet channel in communication with the exterior of the housing, wherein, the accumulator is in a flat shape, the housing is further provided with a second thick wall portion, the second thick wall portion is located in the first sub-housing, a wall thickness of the first thick wall portion and a wall thickness of the second thick wall portion are not less than a wall thickness of a rest portion of the housing, a first adapter seat is arranged in the second thick wall portion, the first adapter seat is provided with a first external connecting port, the second thick wall portion is provided with an adapter channel, and the first external connecting port is in communication with the adapter channel. a port of the inlet channel in communication with the exterior of the housing is arranged adjacent to a port of the outlet channel in communication with the exterior of the housing, wherein, the accumulator is in a flat shape, the housing is further provided with a second thick wall portion, the second thick wall portion is located in the first sub-housing, a wall thickness of the first thick wall portion and a wall thickness of the second thick wall portion are not less than a wall thickness of a rest portion of the housing, a first adapter seat is arranged in the second thick wall portion, the first adapter seat is provided with a first external connecting port, the second thick wall portion is provided with an adapter channel, and the first external connecting port is in communication with the adapter channel.
A reformer for the production of synthesis gas, hydrogen and/or dehydrogenation of propane or butane comprising at least the following components: - a reformer furnace having a reformer bottom, reformer walls and a reformer top; - a first reformer tube and a second reformer tube, the first reformer tube and the second reformer tube being arranged at least in sections in the reformer furnace; - at least one reformer burner arranged inside the reformer combustion chamber; - characterized in that between the first reformer tube and the second reformer tube a cooling channel for cooling the reformer bottom to a range between 80°C and 50°C is arranged on or below the reformer bottom, in that the cooling duct is connected to a combustion air feed device in the form of a fan, and in that the reformer furnace is spatially separated from the cooling duct, and in that a flue gas venting duct is arranged between the first reformer tube and the second reformer tube, the flue gas venting duct being arranged above the cooling duct. - a reformer furnace having a reformer bottom, reformer walls and a reformer top; - a first reformer tube and a second reformer tube, the first reformer tube and the second reformer tube being arranged at least in sections in the reformer furnace; - at least one reformer burner arranged inside the reformer combustion chamber; - characterized in that between the first reformer tube and the second reformer tube a cooling channel for cooling the reformer bottom to a range between 80°C and 50°C is arranged on or below the reformer bottom, in that the cooling duct is connected to a combustion air feed device in the form of a fan, and in that the reformer furnace is spatially separated from the cooling duct, and in that a flue gas venting duct is arranged between the first reformer tube and the second reformer tube, the flue gas venting duct being arranged above the cooling duct.
Electronics frame for holding electronic components of a hearing device, with a contact carrier which comprises a first line connector, a second line connector, and a third line connector, the three line connectors (20, 22, 23) being configured for electrically contacting at least one of the electronic components with a first connection contact, a second connection contact which is at a potential that is different from the first connection contact, and with a third connection contact of a storage battery module which comprises a rechargeable battery, wherein the three line connectors (20, 22, 23) are connected in each case to the end of a contact spring (14, 16, 18) for contacting the connection contacts (34, 36, 38) of the storage battery module, wherein the contact springs (14, 16, 18) are formed on a surface of the contact carrier and are arranged with their contact ends in a common plane, characterized by a first contact arm for electrically contacting a contact of a two-pole battery, wherein the first contact arm is formed as part of the contact carrier and integrally with the first contact spring associated with the first line connector of the contact carrier.