mhurhangee/ep-ind-claims huggingface dataset:
A medical delivery device comprising: an elongated member configured to navigate an intravenous system of a patient; a deployment bay connected to a distal end of the elongated member and configured to house at least a portion of an insertable or implantable medical device, the deployment bay defining a distal opening configured for deployment of the insertable or implantable medical device out of the deployment bay at a target site in a patient; and a compression mechanism configured to longitudinally move the elongated member and a distal portion of the deployment bay toward each other in response to the deployment bay applying a distal force characterised in that said distal force is at least a threshold force against the target site. an elongated member configured to navigate an intravenous system of a patient; a deployment bay connected to a distal end of the elongated member and configured to house at least a portion of an insertable or implantable medical device, the deployment bay defining a distal opening configured for deployment of the insertable or implantable medical device out of the deployment bay at a target site in a patient; and a compression mechanism configured to longitudinally move the elongated member and a distal portion of the deployment bay toward each other in response to the deployment bay applying a distal force characterised in that said distal force is at least a threshold force against the target site.
An application tool for adhesives and/or sealants, having a hold region that comprises a grip and an application region that comprises a shaft from which a row of a plurality of adjacently arranged bristles protrude in the direction of an application end, the hold region, the application region and the shaft and the bristles being integral and consisting of a plastics material or being encased by a plastics material, characterized in that at least one bristle has a substantially rectangular cross section and has, on the side thereof that faces an opposing second bristle, at least one chamfered edge or rounded edge.
An image recording method comprising: applying a reaction liquid onto an intermediate transfer member; applying an ink onto the reaction liquid on the intermediate transfer member; forming an intermediate image by applying a liquid composition containing a water-soluble polymer onto the reaction liquid and the ink on the intermediate transfer member; and transferring the intermediate image from the intermediate transfer member to a recording medium by bringing the intermediate image on the intermediate transfer member into contact with the recording medium, and then separating the intermediate image from the intermediate transfer member with the contact with the recording medium maintained, wherein a first temperature of the intermediate transfer member when the intermediate image comes into contact with the recording medium is controlled to a temperature higher than or equal to the glass transition temperature of the water-soluble polymer, and a second temperature of the recording medium when the intermediate image separates from the intermediate transfer member is controlled to a temperature lower than the glass transition temperature of the water-soluble polymer. applying a reaction liquid onto an intermediate transfer member; applying an ink onto the reaction liquid on the intermediate transfer member; forming an intermediate image by applying a liquid composition containing a water-soluble polymer onto the reaction liquid and the ink on the intermediate transfer member; and transferring the intermediate image from the intermediate transfer member to a recording medium by bringing the intermediate image on the intermediate transfer member into contact with the recording medium, and then separating the intermediate image from the intermediate transfer member with the contact with the recording medium maintained, wherein a first temperature of the intermediate transfer member when the intermediate image comes into contact with the recording medium is controlled to a temperature higher than or equal to the glass transition temperature of the water-soluble polymer, and a second temperature of the recording medium when the intermediate image separates from the intermediate transfer member is controlled to a temperature lower than the glass transition temperature of the water-soluble polymer.
A passive radiofrequency microelectronic component for an integrated circuit comprising a dielectric substrate (S, 22, 42, 80) and at least one metal conductive layer positioned on said substrate, said conductive layer comprising at least one first metal conductive portion (C1, 28, 48, 76) and a second metal conductive portion (C2, 32, 52, 74) separated by an insulation (I, 36, 54, 75), characterized in that it comprises at least one set of additional layers comprising one graphene layer (G, 30, 56, 94) between a first intermediate dielectric layer (I 1) and a second intermediate dielectric layer (I 2), said set being positioned between the first metal conductive portion and the second metal conductive portion, said at least one set of additional layers covering partly said first metal conductive portion and being connected to said second metal conductive portion via a metal bridge which extends said second conductive portion and covers partially said at least one set of additional layers, so that a radiofrequency or hyperfrequency signal crosses said at least one graphene layer (G, 30, 56, 94) when it is transmitted between said first metal conductive portion and said second metal conductive portion, said graphene layer (G, 30, 56, 94) being able, when it is subject to an electric potential, to transmit said radiofrequency or hyperfrequency signal along a first direction and to attenuate said radiofrequency or hyperfrequency signal according to a second direction opposite to said first direction, the passive radiofrequency microelectronic component obtained being non-reciprocal.
A process for the preparation of the compound of Formula or of a salt and/or solvate thereof: comprising reacting a compound of Formula wherein X and Y, each independently, represent a halogen atom, with an aqueous solution of ammonia in the absence of ethylene glycol, in the presence of at least one bidentate ligand and of at least one copper-based catalyst, and optionally converting the so-obtained compound of Formula into a salt and/or solvate thereof.
A method comprising the steps: - providing a part, said part having at least one internal cavity with at least one external opening, said at least one cavity being at least partly filled with powder grains, said powder grains being connected to each other; - evacuating gas surrounding said powder in said at least one cavity before adding a medium; - adding said medium in liquid phase to said at least one cavity, said liquid having the property that it expands in phase transition from liquid to solid phase; - transforming the added medium to solid phase to break at least a fraction of said powder grain connections; and - removing powder from said at least one internal cavity. - providing a part, said part having at least one internal cavity with at least one external opening, said at least one cavity being at least partly filled with powder grains, said powder grains being connected to each other; - evacuating gas surrounding said powder in said at least one cavity before adding a medium; - adding said medium in liquid phase to said at least one cavity, said liquid having the property that it expands in phase transition from liquid to solid phase; - transforming the added medium to solid phase to break at least a fraction of said powder grain connections; and - removing powder from said at least one internal cavity.
A drill bit, comprising: a bit body; and a pad that extends from a bit surface at a first rate and retracts from an extended position to a retracted position at a second rate that is less than the first rate; characterised by further comprising: a rate control device coupled to the pad that extends the pad at the first rate and retracts the pad at the second rate in response to external force applied onto the pad, wherein the rate control device includes: a piston for applying a force on the pad; a biasing member that applies a force on the piston to extend the pad at the first rate; a fluid chamber divided by the piston into a first fluid chamber and a second fluid chamber; and a first fluid flow path from the first fluid chamber to the second fluid chamber that controls movement of the piston in a first direction at the first rate and a second fluid flow path from the second chamber to the first chamber that controls movement of the piston in a second direction at the second rate. a bit body; and a pad that extends from a bit surface at a first rate and retracts from an extended position to a retracted position at a second rate that is less than the first rate; characterised by further comprising: a rate control device coupled to the pad that extends the pad at the first rate and retracts the pad at the second rate in response to external force applied onto the pad, wherein the rate control device includes: a piston for applying a force on the pad; a biasing member that applies a force on the piston to extend the pad at the first rate; a fluid chamber divided by the piston into a first fluid chamber and a second fluid chamber; and a first fluid flow path from the first fluid chamber to the second fluid chamber that controls movement of the piston in a first direction at the first rate and a second fluid flow path from the second chamber to the first chamber that controls movement of the piston in a second direction at the second rate. a piston for applying a force on the pad; a biasing member that applies a force on the piston to extend the pad at the first rate; a fluid chamber divided by the piston into a first fluid chamber and a second fluid chamber; and a first fluid flow path from the first fluid chamber to the second fluid chamber that controls movement of the piston in a first direction at the first rate and a second fluid flow path from the second chamber to the first chamber that controls movement of the piston in a second direction at the second rate.
A method in a node of a communications network, the method comprising: logging packet information for network traffic related to a client, the packet information including TCP4-tuples, start TCP sequence, and length of each packet; sending the logged packet information for the network traffic related to the client from a network layer to a host layer within the node, the host layer comprising one of: a transport layer, a session layer, a presentation layer, and an application layer; identifying application level payloads for the network traffic related to the client at the host layer within the node; and correlating the packet information with the application level payloads for network traffic related to the client, such that services in a host layer that packets in the network traffic are servicing may be determined. logging packet information for network traffic related to a client, the packet information including TCP4-tuples, start TCP sequence, and length of each packet; sending the logged packet information for the network traffic related to the client from a network layer to a host layer within the node, the host layer comprising one of: a transport layer, a session layer, a presentation layer, and an application layer; identifying application level payloads for the network traffic related to the client at the host layer within the node; and correlating the packet information with the application level payloads for network traffic related to the client, such that services in a host layer that packets in the network traffic are servicing may be determined.
A method for manufacturing a separator, comprising the steps of: preparing a pre-dispersion comprising inorganic particles dispersed in a solvent and a first binder polymer dissolved in the solvent; milling the pre-dispersion preliminarily; preparing a binder polymer solution comprising a second binder polymer dissolved in a solvent, wherein the weight ratio of the first binder polymer to the second binder polymer is controlled to 0.5:99.5-10:90; mixing the pre-dispersion with the binder polymer solution and carrying out milling secondarily to obtain slurry for forming a porous coating layer, wherein the milling is carried out in such a manner that the secondary milling time is 30-99% of the sum of the preliminary milling time with the secondary milling time; and applying the slurry for forming a porous coating layer to at least one surface of a porous polymer substrate, followed by drying. preparing a pre-dispersion comprising inorganic particles dispersed in a solvent and a first binder polymer dissolved in the solvent; milling the pre-dispersion preliminarily; preparing a binder polymer solution comprising a second binder polymer dissolved in a solvent, wherein the weight ratio of the first binder polymer to the second binder polymer is controlled to 0.5:99.5-10:90; mixing the pre-dispersion with the binder polymer solution and carrying out milling secondarily to obtain slurry for forming a porous coating layer, wherein the milling is carried out in such a manner that the secondary milling time is 30-99% of the sum of the preliminary milling time with the secondary milling time; and applying the slurry for forming a porous coating layer to at least one surface of a porous polymer substrate, followed by drying.
Method for controlling the rotational speed of a centrifugal pump operated in an open hydraulic circuit, wherein the controller of the pump control system determines a desired rotational speed of the pump drive, taking into account a desired delivery head and an actual delivery head, as well as the actual rotational speed, wherein for the calculation of the desired rotational speed the controller takes into account a correction parameter to describe the geodetic head, characterized in that the controller is designed as an affinity controller and uses the affinity law for determining the setpoint value, in particular assumes a quadratic relationship between the rotational speed and the delivery head for the calculation of the setpoint value, in that the value of the correction parameter is determined during pump operation, wherein the correction parameter is derived from the control error, in particular the difference between the desired delivery head and the actual delivery head, during pump operation.
A method for producing a lithium iron phosphate precursor by using a retired lithium iron phosphate battery as a raw material, comprising the following steps: soaking a battery cell in acid: crushing a battery cell of a retired lithium iron phosphate battery, soaking the battery cell in acid, and performing filtering; performing electrolysis to reclaim copper: adding a copper cathode and a carbon anode into filtered solution, and performing electrolysis; oxidizing ferrous iron: adding oxidant into the electrolyzed solution, and performing oxidation reaction; precipitating iron phosphate: gradually adjusting pH of the solution resulting from the oxidation reaction to greater than 14 to obtain an iron phosphate precipitate and post-reaction solution; and precipitating lithium carbonate: keeping adding carbonate solution into the post-reaction solution until a white precipitate no longer increases, and performing filtering to obtain a precipitate mixture of iron phosphate and lithium carbonate, which is a lithium iron phosphate precursor. soaking a battery cell in acid: crushing a battery cell of a retired lithium iron phosphate battery, soaking the battery cell in acid, and performing filtering; performing electrolysis to reclaim copper: adding a copper cathode and a carbon anode into filtered solution, and performing electrolysis; oxidizing ferrous iron: adding oxidant into the electrolyzed solution, and performing oxidation reaction; precipitating iron phosphate: gradually adjusting pH of the solution resulting from the oxidation reaction to greater than 14 to obtain an iron phosphate precipitate and post-reaction solution; and precipitating lithium carbonate: keeping adding carbonate solution into the post-reaction solution until a white precipitate no longer increases, and performing filtering to obtain a precipitate mixture of iron phosphate and lithium carbonate, which is a lithium iron phosphate precursor.
A high volume inspection system for use in inspecting one or more conditions of a plurality of transportation vehicles, the system comprising: a path of travel for the plurality of vehicles; a plurality of sensors mounted on each of the plurality of vehicles, the sensor operable to measure at least one operating condition of the vehicle, the plurality of sensors including a first sensor in the form of tire pressure monitoring system (TPMS) sensors mounted to each vehicle; a monitoring station positioned along the path of travel; and at least one tool (80;160) in selective data communication with the sensor to receive and communicate the measured vehicle operating conditions to a user, characterized in that: said system comprises a data storage device having measured and stored historical operating condition data for the sensors; said at least one tool (80; 160) is in selective data communication with the data storage device to communicate the measured vehicle operating conditions to the data storage device, said system further comprises a processor for comparing presently measured vehicle conditions by the tool (80;160) against the stored historical operating condition data in the storage device to identify variances; and a display unit for selective visual display of the presently measured and stored operating condition data in the data storage device. a path of travel for the plurality of vehicles; a plurality of sensors mounted on each of the plurality of vehicles, the sensor operable to measure at least one operating condition of the vehicle, the plurality of sensors including a first sensor in the form of tire pressure monitoring system (TPMS) sensors mounted to each vehicle; a monitoring station positioned along the path of travel; and at least one tool (80;160) in selective data communication with the sensor to receive and communicate the measured vehicle operating conditions to a user, said system comprises a data storage device having measured and stored historical operating condition data for the sensors; said at least one tool (80; 160) is in selective data communication with the data storage device to communicate the measured vehicle operating conditions to the data storage device, said system further comprises a processor for comparing presently measured vehicle conditions by the tool (80;160) against the stored historical operating condition data in the storage device to identify variances; and a display unit for selective visual display of the presently measured and stored operating condition data in the data storage device.
A method for generating a 3D virtual model of a dental component for a region of a patient's set of teeth, where the dental component comprises a temporary bridge restoration or a diagnostic wax-up bridge, such that the dental component comprises crowns and at least one pontic, wherein the method comprises: - obtaining a digital 3D representation of the set of teeth (1307, 1308, 1309, 1310, 1400), where the digital 3D representation is based on a 3D scan of a pre-prepared configuration of the set of teeth; - virtually sectioning the part of the digital 3D representation corresponding to the teeth (14011, 14012) in said region using at least one 3D sectioning spline; - determining at least part of the inter-proximal surfaces of the virtually sectioned teeth; and - determining a jaw-facing surface (1451, 1452) for the dental component, where the jaw facing surface is configured for facing a surface which is not available in the digital 3D representation of the pre-prepared set of teeth. - obtaining a digital 3D representation of the set of teeth (1307, 1308, 1309, 1310, 1400), where the digital 3D representation is based on a 3D scan of a pre-prepared configuration of the set of teeth; - virtually sectioning the part of the digital 3D representation corresponding to the teeth (14011, 14012) in said region using at least one 3D sectioning spline; - determining at least part of the inter-proximal surfaces of the virtually sectioned teeth; and - determining a jaw-facing surface (1451, 1452) for the dental component, where the jaw facing surface is configured for facing a surface which is not available in the digital 3D representation of the pre-prepared set of teeth.
A galvannealed steel sheet having high corrosion resistance after painting, consisting of, on a mass percent basis, C: 0.05% to 0.30%, Si: 1.0% to 3.0%, Mn: 0.5% to 3.0%, Al: 0.01% to 3.00.%, S: 0.001% to 0.010%, and P: 0.001% to 0.100% as chemical components, optionally further consisting of at least one element selected from Cr: 0.1% to 1.0%, Mo: 0.1% to 1.0%, Ti: 0.01% to 0.10%, Nb: 0.01% to 0.10%, and B: 0.0005% to 0.0050% on a mass percent basis, the remainder being Fe and incidental impurities, wherein the steel sheet includes a galvannealed layer on the surface thereof, the galvannealed layer consisting of Fe: 7% to 15% and Al: 0.02% to 0.30% and a remainder being Zn and incidental impurities, the percentage of exposed Zn metal of the galvannealed layer surface being 20% or more.
A combustion chamber comprising an upstream ring structure, a downstream ring structure (54, 56) and a plurality of circumferentially arranged combustion chamber segments (58, 60), each combustion chamber segment (58, 60) extending the full length of the combustion chamber, each combustion chamber segment (58, 60) comprising a frame structure and an inner wall, the frame structure and the inner wall being integral, an upstream end of each combustion chamber segment (58, 60) being secured to the upstream ring structure and a downstream end of each combustion chamber segment (58, 60) being mounted on the downstream ring structure (54, 56), wherein the downstream edge of the frame structure at the downstream end of each combustion chamber segment (58, 60) having a circumferentially and axially upstream extending groove, the downstream ring structure (54, 56) having an annular axially upstream extending hook locating in the axially upstream extending groove of each combustion chamber segment (58, 60) and the downstream ring structure (54, 56) having a portion abutting a surface of the frame structure at the downstream end of each combustion chamber segment (58, 60), and each combustion chamber segment (58, 60) being removably secured to the downstream ring structure (54, 56), the surface at the downstream end of the frame structure of each combustion chamber segment (58, 60) having a plurality of circumferentially spaced radially extending holes, the downstream ring structure (54, 56) having a plurality of circumferentially spaced holes extending radially through the portion abutting the surface of the frame structure and each combustion chamber segment (58, 60) being removably secured to the downstream ring structure (54, 56) by a plurality of fasteners locatable in the holes in the combustion chamber segment (58, 60) and corresponding holes in the downstream ring structure (54, 56), wherein each combustion chamber segment (58, 60) being removably secured to the downstream ring structure (54, 56) to allow differential thermal expansion and/or contraction between the combustion chamber segments (58, 60) and the downstream ring structure (54, 56).