mhurhangee/ep-ind-claims huggingface dataset:
A pre-assembled, disposable fastener cartridge and suture snare subassembly for use with a reusable deployment tool, the deployment tool having a distal shaft terminating in a distal tip, the tool including an ejector movable within the distal shaft, the fastener cartridge and suture snare subassembly including: a cartridge having a lumen that receives a single suture fastener within a distal end thereof, a proximal end of the cartridge lumen being sized to engage the distal tip of the deployment tool distal shaft, the suture fastener having a clamping structure that can be flexed to an open condition through which a suture can pass, the clamping structure being biased toward a closed position which clamps onto a suture passed therethrough, and a suture snare (214; 224; 300) having an elongated flexible snare portion (220, 222; 226) sized to pass radially inward through aligned ports (244, 270) in the engaged cartridge and tool distal shaft and distally through the suture fastener in its open condition, the snare portion (220, 222; 226) being adapted to capture and pull a suture proximally through the suture fastener and out of the aligned ports (244, 270) in the cartridge and tool distal shaft, characterized in that the cartridge has at least one stop (264, 266) that maintains the suture fastener in its open condition, wherein when the cartridge is engaged with the deployment tool, movement of the ejector contacts and converts the suture fastener from its open condition to its closed condition to clamp onto a suture passed therethrough. a cartridge having a lumen that receives a single suture fastener within a distal end thereof, a proximal end of the cartridge lumen being sized to engage the distal tip of the deployment tool distal shaft, the suture fastener having a clamping structure that can be flexed to an open condition through which a suture can pass, the clamping structure being biased toward a closed position which clamps onto a suture passed therethrough, and a suture snare (214; 224; 300) having an elongated flexible snare portion (220, 222; 226) sized to pass radially inward through aligned ports (244, 270) in the engaged cartridge and tool distal shaft and distally through the suture fastener in its open condition, the snare portion (220, 222; 226) being adapted to capture and pull a suture proximally through the suture fastener and out of the aligned ports (244, 270) in the cartridge and tool distal shaft, characterized in that the cartridge has at least one stop (264, 266) that maintains the suture fastener in its open condition, wherein when the cartridge is engaged with the deployment tool, movement of the ejector contacts and converts the suture fastener from its open condition to its closed condition to clamp onto a suture passed therethrough.
A method for harvesting power in a passive RFID device comprising a passive biometric authentication engine, the method comprising: receiving, by the RFID device, a command from a powered RFID reader; receiving, by the RFID device, a non-pulsing continuous radio-frequency excitation field whilst the RFID reader waits for a response to the command; harvesting, by the RFID device, power from the excitation field; supplying the power extracted from the excitation field to the biometric authentication engine; performing a process in the biometric authentication engine, the process being one not required for responding to the command from the RFID reader; determining a period that the RFID device has been waiting for a response; and responsive to determining that the period exceeds a predetermined threshold, if the process has not been completed, sending, by the RFID device, a request for a wait time extension to the RFID reader. receiving, by the RFID device, a command from a powered RFID reader; receiving, by the RFID device, a non-pulsing continuous radio-frequency excitation field whilst the RFID reader waits for a response to the command; harvesting, by the RFID device, power from the excitation field; supplying the power extracted from the excitation field to the biometric authentication engine; performing a process in the biometric authentication engine, the process being one not required for responding to the command from the RFID reader; determining a period that the RFID device has been waiting for a response; and responsive to determining that the period exceeds a predetermined threshold, if the process has not been completed, sending, by the RFID device, a request for a wait time extension to the RFID reader.
A method used to test the glued joints between the articles of a bundle of articles connected immediately to each other by glued joints in at least one row and/or in at least one line of at least two articles each, wherein articles of the bundle, which articles are connected to each other by at least one glued joint, are exposed individually and/or groupwise to an application of force in opposite directions, wherein the application of force in opposite directions is carried out by at least one force couple, by which a first force acts upon a first article of articles connected to each other by at least one glued joint, and a second force directed oppositely to the first force acts upon a second article of articles connected to each other by a glued joint, said forces acting in suchlike opposite directions that at least one glued joint between the first and the second article undergoes a tensile stress and/or a shear stress and/or a moment stress, and at least the reactions to the application of force of those articles of the bundle that are in each instance momentarily exposed to the application of force in opposite directions are monitored, characterised in that the application of force takes place under simultaneous monitoring of the reactions of at least the articles that are in each instance exposed to the application of force during a transport of a bundle to a further handling of the bundle, said bundle having been previously completed, by the glued joints between the bundle's articles having been produced, in whole-for bundles designed free of an encompassment in the finished state-or in part-for bundles designed with an encompassment in the finished state.
An apparatus for measuring a bore diameter of a hole as a function of hole depth, comprising: a diametric probe, for generating first measured bore diameter data along a diametric probe sensitive axis; a foot arranged to be placed flush with the surface surrounding the hole, the foot for positioning the diametric probe sensitive axis in a plane substantially parallel to the surface through which the hole extends; a linear distance probe, coupled to the diametric probe, for measuring the position of the foot relative to the diametric probe to generate first measured depth data describing the depth of the diametric probe sensitive axis within the hole; and a data acquisition system, for recording first measured bore diameter data from the diametric probe and first measured depth data from the linear distance probe of an insertion of the diametric probe into the hole. a diametric probe, for generating first measured bore diameter data along a diametric probe sensitive axis; a foot arranged to be placed flush with the surface surrounding the hole, the foot for positioning the diametric probe sensitive axis in a plane substantially parallel to the surface through which the hole extends; a linear distance probe, coupled to the diametric probe, for measuring the position of the foot relative to the diametric probe to generate first measured depth data describing the depth of the diametric probe sensitive axis within the hole; and a data acquisition system, for recording first measured bore diameter data from the diametric probe and first measured depth data from the linear distance probe of an insertion of the diametric probe into the hole.
A tire comprising a fiber-rubber composite including polyamide 4 fiber that contains polyamide 4, wherein the polyamide 4 fiber has a fiber strength of at least 920 MPa, and a content of the polyamide 4 in the polyamide 4 fiber is 90mass% to 100mass%.
A dispensing nozzle assembly for mixing a first fluid and a second fluid, comprising: a target assembly (520, 550, 570); the target assembly comprising a plurality of twisted fins; and an injector ring assembly surrounding the target assembly in whole or in part; the injector ring assembly comprising a plurality of first tubes directed towards the target assembly for the first fluid; the plurality of first tubes comprising one or more threads therein; and the injector ring assembly comprising a plurality of second tubes directed towards the target assembly for the second fluid such that the first fluid and the second fluid mix along the twisted fins of the target assembly. a target assembly (520, 550, 570); the target assembly comprising a plurality of twisted fins; and an injector ring assembly surrounding the target assembly in whole or in part; the injector ring assembly comprising a plurality of first tubes directed towards the target assembly for the first fluid; the plurality of first tubes comprising one or more threads therein; and the injector ring assembly comprising a plurality of second tubes directed towards the target assembly for the second fluid such that the first fluid and the second fluid mix along the twisted fins of the target assembly.
A turbine rotor device, comprising: a turbine rotor body, the turbine rotor body comprises: a rotor disc; a blade disposed on a periphery of the rotor disc; a shroud disposed on a periphery of the blade; and a prestressed fiber-winding layer disposed on a periphery of the turbine rotor body for exerting a predetermined pre-loading force on the turbine rotor body, and characterized in that the prestressed fiber-winding layer is disposed on a periphery of the shroud, the prestressed fiber-winding layer comprises: a receiving trough disposed on the periphery of the turbine rotor body and defining a receiving groove extended in a circumferential direction of the receiving trough; prestressed fibers wound within the receiving trough layer by layer under a tensile stress ranging from 0 to 10.0GPa and having a thickness in a radial direction of the turbine rotor body ranging from 0.5mm to 100mm. a rotor disc; a blade disposed on a periphery of the rotor disc; a shroud disposed on a periphery of the blade; and a prestressed fiber-winding layer disposed on a periphery of the turbine rotor body for exerting a predetermined pre-loading force on the turbine rotor body, and characterized in that the prestressed fiber-winding layer is disposed on a periphery of the shroud, the prestressed fiber-winding layer comprises: a receiving trough disposed on the periphery of the turbine rotor body and defining a receiving groove extended in a circumferential direction of the receiving trough; prestressed fibers wound within the receiving trough layer by layer under a tensile stress ranging from 0 to 10.0GPa and having a thickness in a radial direction of the turbine rotor body ranging from 0.5mm to 100mm. a receiving trough disposed on the periphery of the turbine rotor body and defining a receiving groove extended in a circumferential direction of the receiving trough; prestressed fibers wound within the receiving trough layer by layer under a tensile stress ranging from 0 to 10.0GPa and having a thickness in a radial direction of the turbine rotor body ranging from 0.5mm to 100mm.
An application tip for dispensing a dental material, having a tubular dispensing end made of a plastic material, the dispensing end being formed of a circumferential wall having a thickness T 1 and which forms a dispensing opening of a diameter D i1, the dispensing end having a diameter-to-thickness-ratio D i1: T 1 at the opening which is at least 13 or greater, wherein the wall thickness increases in a direction away from the opening.
Method for identifying, diagnosing, servicing and repairing a vehicle in a workshop, comprising the steps: connecting a first vehicle test device at a first workstation; setting up a communication link to a first vehicle test device and a central diagnostic server device arranged on a central workshop server and a data acquisition software component; connecting a mobile communication interface to the vehicle; setting up a communication link at the first workstation to a first vehicle test device and the mobile communication interface; acquiring clear identification data for the vehicle with the first vehicle test device and storing identification data for the vehicle in the mobile communication interface via the central diagnostic server device which is arranged on the central workshop server; carrying out first tests on the vehicle with the first vehicle test device and/or the mobile communication interface; disconnecting the first vehicle test device from the vehicle; connecting a second vehicle test device to the vehicle and reading out the identification data from the mobile communication interface via the central diagnostic server device into the second vehicle test device at a second workstation; and carrying out second tests at the vehicle with the second vehicle test device and/or the mobile communication interface which is connected to the vehicle. connecting a first vehicle test device at a first workstation; setting up a communication link to a first vehicle test device and a central diagnostic server device arranged on a central workshop server and a data acquisition software component; connecting a mobile communication interface to the vehicle; setting up a communication link at the first workstation to a first vehicle test device and the mobile communication interface; acquiring clear identification data for the vehicle with the first vehicle test device and storing identification data for the vehicle in the mobile communication interface via the central diagnostic server device which is arranged on the central workshop server; carrying out first tests on the vehicle with the first vehicle test device and/or the mobile communication interface; disconnecting the first vehicle test device from the vehicle; connecting a second vehicle test device to the vehicle and reading out the identification data from the mobile communication interface via the central diagnostic server device into the second vehicle test device at a second workstation; and carrying out second tests at the vehicle with the second vehicle test device and/or the mobile communication interface which is connected to the vehicle.
A method for fabricating an electronic component (100, 200, 300, 400, 500, 600, 700), comprising: - providing a substrate that exhibits a substrate surface step-contour; - depositing a van-der-Waals functional layer on the substrate, including forming a surface step contour (3.1) by depositing the van-der-Waals functional layer conformally on the substrate maintaining the substrate surface step contour; - depositing a graphene layer on the van-der-Waals functional layer, including seeding growth of the graphene layer at the surface step contour, wherein the van-der-Waals functional layer provides that either only a van-der-Waals force or a van-der-Waals force and a force contribution weaker than a covalent force contribute to binding carbon atoms of the graphene layer to the van-der-Waals functional layer. - providing a substrate that exhibits a substrate surface step-contour; - depositing a van-der-Waals functional layer on the substrate, including forming a surface step contour (3.1) by depositing the van-der-Waals functional layer conformally on the substrate maintaining the substrate surface step contour; - depositing a graphene layer on the van-der-Waals functional layer, including seeding growth of the graphene layer at the surface step contour, wherein the van-der-Waals functional layer provides that either only a van-der-Waals force or a van-der-Waals force and a force contribution weaker than a covalent force contribute to binding carbon atoms of the graphene layer to the van-der-Waals functional layer.
A vehicle control system, which is configured to change an index for setting driving characteristics of a vehicle, wherein the index is changed according to acceleration of the vehicle; a manner of changing the index is differentiated depending on a detail of an operation for changing acceleration executed by a driver; characterized in that: the index determined on the basis of a large absolute value of the acceleration is inhibited to be lowered to the index to be determined on the basis of a small absolute value of the acceleration, in case an amount of the operation or a change rate of the amount of the operation is large; and the index determined on the basis of a large absolute value of the acceleration is facilitated to be lowered to the index to be determined on the basis of a small absolute value of the acceleration, in case an amount of the operation or a change rate of amount of the operation is small. the index determined on the basis of a large absolute value of the acceleration is inhibited to be lowered to the index to be determined on the basis of a small absolute value of the acceleration, in case an amount of the operation or a change rate of the amount of the operation is large; and the index determined on the basis of a large absolute value of the acceleration is facilitated to be lowered to the index to be determined on the basis of a small absolute value of the acceleration, in case an amount of the operation or a change rate of amount of the operation is small.
A method implemented by a Proxy-Call Serving Control Function, P-CSCF, node in an Internet Protocol based Multimedia Subsystem, IMS, network, for registering a User Equipment, UE, operating in a telecommunication network with the IMS, network, said method comprising the steps of: receiving from the UE a Session Initiation Protocol, SIP, Register message for registering said UE in said IMS network; determining that said SIP Register message comprises an indication that said UE is using a low access priority, wherein said low access priority indicates at least a reduced priority for said UE for accessing network resources in the telecommunication network; responsive to said SIP Register message, requesting a Policy and Charging Rules Function, PCRF, node in the telecommunication network whether said UE is using said low access priority; receiving, from said PCRF node, an acknowledgement that said UE is using said low access priority; and establishing said registration of said UE with said determined low access priority indication. receiving from the UE a Session Initiation Protocol, SIP, Register message for registering said UE in said IMS network; determining that said SIP Register message comprises an indication that said UE is using a low access priority, wherein said low access priority indicates at least a reduced priority for said UE for accessing network resources in the telecommunication network; responsive to said SIP Register message, requesting a Policy and Charging Rules Function, PCRF, node in the telecommunication network whether said UE is using said low access priority; receiving, from said PCRF node, an acknowledgement that said UE is using said low access priority; and establishing said registration of said UE with said determined low access priority indication.
A process for preparing a compound of formula, or salt thereof, wherein R1 is hydrogen or a nitrogen protecting group; said process comprising A) reacting a compound of formula, or salt thereof, wherein R1 is hydrogen or a nitrogen protecting group; with a transition metal catalyst, optionally in the presence of a base, to obtain the compound of formula, or salt thereof, or B) i) reacting a compound of formula, or salt thereof, wherein R1 is hydrogen or a nitrogen protecting group; with a selenide in the presence of a base, to obtain a compound of formula, or salt thereof, wherein R1 is hydrogen or a nitrogen protecting group; and R is aryl; and ii) treating the compound of formula with an oxidizing agent, to obtain the compound of formula. A) reacting a compound of formula, or salt thereof, wherein R1 is hydrogen or a nitrogen protecting group; with a transition metal catalyst, optionally in the presence of a base, to obtain the compound of formula, or salt thereof, or B) i) reacting a compound of formula, or salt thereof, wherein R1 is hydrogen or a nitrogen protecting group; with a selenide in the presence of a base, to obtain a compound of formula, or salt thereof, wherein R1 is hydrogen or a nitrogen protecting group; and R is aryl; and ii) treating the compound of formula with an oxidizing agent, to obtain the compound of formula. i) reacting a compound of formula, or salt thereof, wherein R1 is hydrogen or a nitrogen protecting group; with a selenide in the presence of a base, to obtain a compound of formula, or salt thereof, wherein R1 is hydrogen or a nitrogen protecting group; and R is aryl; and wherein R1 is hydrogen or a nitrogen protecting group; and R is aryl; and ii) treating the compound of formula with an oxidizing agent, to obtain the compound of formula.
A radio frequency system, wherein the radio frequency system comprises a detection device, at least one antenna line device, and an antenna that are sequentially connected in series in a radio frequency network, and each of the at least one antenna line device is configured to: a) receive (204, 303, 503) a detection signal from the detection device or a previous antenna line device connected in series to the antenna line device; and b) add device information of the antenna line device to the received detection signal, and send, to the antenna or a next antenna line device connected in series to the antenna line device, the detection signal to which the device information is added; and c) wherein the antenna line device is further configured to: c1) receive (309, 310, 521, 522) a feedback signal from the antenna, wherein the feedback signal comprises device information of the at least one antenna line device and device information of the antenna; and c2) send (311, 312, 523, 524) the feedback signal to the detection device; and d) wherein the device information of the antenna line device comprises port information of the antenna line device, or comprises port information of the antenna line device and device type information of the antenna line device; and e) wherein the port information of the antenna line device comprises a port number of a port used by the antenna line device to receive the detection signal, and a port number of a port used by the antenna line device to send the detection signal. a) receive (204, 303, 503) a detection signal from the detection device or a previous antenna line device connected in series to the antenna line device; and b) add device information of the antenna line device to the received detection signal, and send, to the antenna or a next antenna line device connected in series to the antenna line device, the detection signal to which the device information is added; and c) wherein the antenna line device is further configured to: c1) receive (309, 310, 521, 522) a feedback signal from the antenna, wherein the feedback signal comprises device information of the at least one antenna line device and device information of the antenna; and c2) send (311, 312, 523, 524) the feedback signal to the detection device; and c1) receive (309, 310, 521, 522) a feedback signal from the antenna, wherein the feedback signal comprises device information of the at least one antenna line device and device information of the antenna; and c2) send (311, 312, 523, 524) the feedback signal to the detection device; and d) wherein the device information of the antenna line device comprises port information of the antenna line device, or comprises port information of the antenna line device and device type information of the antenna line device; and e) wherein the port information of the antenna line device comprises a port number of a port used by the antenna line device to receive the detection signal, and a port number of a port used by the antenna line device to send the detection signal.