mhurhangee/ep-ind-claims huggingface dataset:
Method for evaluating coordinate measurement data of a test object, including the following steps: • providing a first coordinate measurement data record, wherein the first coordinate measurement data record represents first spatial coordinates, captured by a first sensor, of a plurality of evaluation measurement points of an evaluation region, wherein the evaluation region is at least one portion of a surface or of a volume of the test object; • providing a second coordinate measurement data record, wherein the second coordinate measurement data record represents second spatial coordinates, captured by a second sensor, of at least one measurement node within the evaluation region, wherein each measurement node is assignable to a specific evaluation measurement point and the evaluation measurement points have at least one specific evaluation measurement point; characterized by the following steps: • replacing the first spatial coordinates of at least one of the respective specific evaluation measurement points at least in a first dimension with the second spatial coordinates of the respective measurement node; • ascertaining a relationship between the evaluation measurement points of the first coordinate measurement data record at least in the first dimension such that a relationship between the at least one specific evaluation measurement point and at least one further evaluation measurement point is known; and • correcting the first spatial coordinates of the at least one further evaluation measurement point at least in the first dimension on the basis of the ascertained relationship. • providing a first coordinate measurement data record, wherein the first coordinate measurement data record represents first spatial coordinates, captured by a first sensor, of a plurality of evaluation measurement points of an evaluation region, wherein the evaluation region is at least one portion of a surface or of a volume of the test object; • providing a second coordinate measurement data record, wherein the second coordinate measurement data record represents second spatial coordinates, captured by a second sensor, of at least one measurement node within the evaluation region, wherein each measurement node is assignable to a specific evaluation measurement point and the evaluation measurement points have at least one specific evaluation measurement point; • replacing the first spatial coordinates of at least one of the respective specific evaluation measurement points at least in a first dimension with the second spatial coordinates of the respective measurement node; • ascertaining a relationship between the evaluation measurement points of the first coordinate measurement data record at least in the first dimension such that a relationship between the at least one specific evaluation measurement point and at least one further evaluation measurement point is known; and • correcting the first spatial coordinates of the at least one further evaluation measurement point at least in the first dimension on the basis of the ascertained relationship.
A method for data disaster tolerance preprocessing, characterized by comprising: setting a disaster tolerance database in a first Service Control Point, wherein the disaster tolerance database is used to perform disaster tolerance backup for an official database in a second SCP; wherein setting the disaster tolerance database in the first SCP, wherein the disaster tolerance database is used to perform disaster tolerance backup for the official database in the second SCP, comprises: establishing official databases on Compositive Management Platforms, CMPs, wherein the first SCP and the second SCP respectively comprise a first CMP and a second CMP, an official database of the first SCP is established in the first CMP and the official database of the second SCP is established in the second CMP; establishing disaster tolerance databases on Call Service Platforms, CSPs, wherein the first SCP and the second SCP respectively comprise a first CSP and a second CSP, a disaster tolerance database of the official database of the first SCP being established in the second CSP and the disaster tolerance database of the official database of the second SCP is established in the first CSP. setting a disaster tolerance database in a first Service Control Point, wherein the disaster tolerance database is used to perform disaster tolerance backup for an official database in a second SCP; wherein setting the disaster tolerance database in the first SCP, wherein the disaster tolerance database is used to perform disaster tolerance backup for the official database in the second SCP, comprises: establishing official databases on Compositive Management Platforms, CMPs, wherein the first SCP and the second SCP respectively comprise a first CMP and a second CMP, an official database of the first SCP is established in the first CMP and the official database of the second SCP is established in the second CMP; establishing disaster tolerance databases on Call Service Platforms, CSPs, wherein the first SCP and the second SCP respectively comprise a first CSP and a second CSP, a disaster tolerance database of the official database of the first SCP being established in the second CSP and the disaster tolerance database of the official database of the second SCP is established in the first CSP. establishing official databases on Compositive Management Platforms, CMPs, wherein the first SCP and the second SCP respectively comprise a first CMP and a second CMP, an official database of the first SCP is established in the first CMP and the official database of the second SCP is established in the second CMP; establishing disaster tolerance databases on Call Service Platforms, CSPs, wherein the first SCP and the second SCP respectively comprise a first CSP and a second CSP, a disaster tolerance database of the official database of the first SCP being established in the second CSP and the disaster tolerance database of the official database of the second SCP is established in the first CSP.
An apparatus comprising: a first port configured to receive signals from a transceiver and to receive a first antenna, the first antenna being configured to operate in a first operational resonant frequency band; a second port configured to receive signals from a transceiver and to receive a second antenna, the second antenna being configured to operate in a second operational resonant frequency band; a first reactive component coupled to the first port; a second reactive component coupled to the first reactive component at a first junction and to the second port, wherein at least the first reactive component is configured to have an impedance that shifts the phase of a first signal, in the second operational resonant frequency band, received from the first antenna, and the second reactive component is configured to have an impedance that shifts the phase of a second signal, in the second operational resonant frequency band, received from the transceiver, to cause at least partial destructive interference between the first signal and the second signal at the first junction. a first port configured to receive signals from a transceiver and to receive a first antenna, the first antenna being configured to operate in a first operational resonant frequency band; a second port configured to receive signals from a transceiver and to receive a second antenna, the second antenna being configured to operate in a second operational resonant frequency band; a first reactive component coupled to the first port; a second reactive component coupled to the first reactive component at a first junction and to the second port, wherein at least the first reactive component is configured to have an impedance that shifts the phase of a first signal, in the second operational resonant frequency band, received from the first antenna, and the second reactive component is configured to have an impedance that shifts the phase of a second signal, in the second operational resonant frequency band, received from the transceiver, to cause at least partial destructive interference between the first signal and the second signal at the first junction.
A multi-material 3D object print method for printing a target object, comprising the following steps: a. randomly generating at least one group of area print data based on each group of area information of the target object, then correspondingly generating layer print data according to multiple groups of area information of each layer of the target object, and forming the multiple groups of layer print data into 3D object print data; wherein a randomness test is separately performed on the at least one group of area print data, and Y groups of area print data thereof that fail the randomness test are discarded, and Y groups of area print data are randomly generated, wherein Y≥0; b. performing layer-by-layer printing based on the 3D object print data; and c. stacking layer-by-layer printing results in the step b to form the target object. a. randomly generating at least one group of area print data based on each group of area information of the target object, then correspondingly generating layer print data according to multiple groups of area information of each layer of the target object, and forming the multiple groups of layer print data into 3D object print data; wherein a randomness test is separately performed on the at least one group of area print data, and Y groups of area print data thereof that fail the randomness test are discarded, and Y groups of area print data are randomly generated, wherein Y≥0; b. performing layer-by-layer printing based on the 3D object print data; and c. stacking layer-by-layer printing results in the step b to form the target object.
Occlusion element for unwanted openings in the heart or for atrial septal defects (ASDs), which is formed or braided from threads of biocompatible metal and/or plastic, from absorbable plastic, from memory-material threads, from memory-plastic threads, from nitinol wires or from wires or threads covered with plastic, wherein this occlusion element comprises two occlusion discs formed from the threads, and, between these discs, a region of smaller radial dimension which passes through the opening in the heart in the usage position, and the occlusion discs engage over the edges of the unwanted opening in the heart on both sides in the usage position, wherein the two occlusion discs comprise a respective holder (5, 6), which fixes the threads forming them on one side and beyond which the occlusion disc protrudes in the radial direction, these holders (5, 6) are connected to one another in the usage position to form a spacing between the two occlusion parts and to form the region with the reduced radial dimension, the holder of one occlusion disc has an axial outwardly extending opening or recess into which a projection of the holder of the second occlusion disc can be inserted and can be connected thereto in this position, and wherein the projection of one holder fits in a form-fit manner into the opening or recess or depression of the other holder, can be screwed and/or welded thereto, characterised in that one holder of the two holders (5, 6) comprises a coupling point or opening, facing away from the point of connection to the other holder, for releasable engagement of an insertion instrument, that the coupling point or opening has a thread with which a counter thread on the insertion instrument fits, wherein the threads or mesh width of the braiding of the occlusion disc opens or leaves free a passage for the delivery instrument, and that the coupling point or opening for the insertion instrument is provided on the holder which bears the projection for coupling to the holder of the other occlusion disc.
A copper base alloy having an improved combination of yield strength, electrical conductivity, stress relaxation resistance, consisting of: between 3.5 and 3.9 weight percent Ni; between 0.8 and 1.0 weight percent Co; between 1.0 and 1.2 weight percent Si; between 0.05 and 0.15 weight percent Mg; up to 0.1 weight percent Cr; up to 1.0 weight percent Sn, and up to 1.0 weight percent Mn, the balance being copper and impurities, wherein the ration of Ni/Co is between 3 and 5, the alloy processed to have a yield strength of at least 140 ksi, and an electrical conductivity of at least 30% IACS. between 3.5 and 3.9 weight percent Ni; between 0.8 and 1.0 weight percent Co; between 1.0 and 1.2 weight percent Si; between 0.05 and 0.15 weight percent Mg; up to 0.1 weight percent Cr; up to 1.0 weight percent Sn, and up to 1.0 weight percent Mn, the balance being copper and impurities, wherein the ration of Ni/Co is between 3 and 5, the alloy processed to have a yield strength of at least 140 ksi, and an electrical conductivity of at least 30% IACS.
A fiber structure comprising a blank portion formed as a single part by three-dimensional weaving between a first plurality of yarn layers and a second plurality of yarn layers, said blank portion corresponding to all or part of a fiber reinforcement preform for a part made of composite material, the structure being characterized in that it comprises one or more two-dimensional fabric layers (220a, 220b), each two-dimensional fabric layer grouping together yarns of a single layer forming part at least of the first plurality of yarn layers after they have exited the blank portion, and in that each two-dimensional fabric layer extends outside the blank portion in the direction of the yarns of the layer of the first plurality of yarn layers grouped together in said two-dimensional fabric layer.
A method of wireless communication, comprising: determining (700, 900), by a transmitter, a current permutation of a plurality of transmission slot assignments of a transmission frame for a plurality of transmission slots shared by two or more radio access networks, RANs, on a same frequency; selecting (701, 901), by the transmitter, an assigned transmission slot of the plurality of transmission slot assignments in the current permutation according to an index associated with the transmitter; and initiating, by the transmitter, transmissions on the assigned transmission slot, wherein initiating transmissions includes: performing a clear channel assessment, CCA, on the assigned transmission slot, wherein the same frequency is an unlicensed frequency; and transmitting a channel usage beacon signal, CUBS, in response to the CCA being detected by the transmitter as clear. determining (700, 900), by a transmitter, a current permutation of a plurality of transmission slot assignments of a transmission frame for a plurality of transmission slots shared by two or more radio access networks, RANs, on a same frequency; selecting (701, 901), by the transmitter, an assigned transmission slot of the plurality of transmission slot assignments in the current permutation according to an index associated with the transmitter; and initiating, by the transmitter, transmissions on the assigned transmission slot, wherein initiating transmissions includes: performing a clear channel assessment, CCA, on the assigned transmission slot, wherein the same frequency is an unlicensed frequency; and transmitting a channel usage beacon signal, CUBS, in response to the CCA being detected by the transmitter as clear. performing a clear channel assessment, CCA, on the assigned transmission slot, wherein the same frequency is an unlicensed frequency; and transmitting a channel usage beacon signal, CUBS, in response to the CCA being detected by the transmitter as clear.
Extendable table comprising a frame, a main plane, a first extension plane and at least a second extension plane, each of said extension planes (13, 14) being movable between a hidden position, in which said extension plane (13, 14) is below said main plane, and at least one extended position, in which said extension plane (13, 14) is adjacent and coplanar to said main plane, wherein said frame comprises a main part, a first lateral part and a second lateral part, with which said main plane, said first extension plane and said second extension plane are respectively associated, said first lateral part and said second lateral part being translatable linearly along a longitudinal axis during the passage of said extension planes (13, 14) from said hidden position to said extended position, and vice versa, wherein a second clamping/unclamping member is associated with said main part and with said second lateral part, and wherein a third clamping/unclamping member is associated with at least said main part and with said first lateral part characterized in that a first clamping/ unclamping member is associated with said first lateral part and with said second lateral part, and in that said clamping/unclamping members (36, 37, 38) being configured to clamp or allow the translation along said longitudinal axis of said first lateral part and said second lateral part.
An antenna apparatus comprising: a coil conductor having a loop shape or a spiral shape and including a coil aperture at a winding center; a conductive layer including a conductor aperture and a slit for connecting the conductor aperture and an outer edge of the conductive layer; and a radiation plate (5, 5A, 5B), and wherein the coil conductor and the conductive layer are coupled to each other via an electromagnetic field, and wherein the conductive layer and the radiation plate (5, 5A, 5B) are coupled to each other via an electromagnetic field or a magnetic field, wherein the coil aperture and the conductor aperture at least partly overlap in plan view of the coil conductor, the conductive layer is disposed in a position which overlaps the radiation plate (5, 5A, 5B) only partly at the adjacent area of an outer edge of the radiation plate (5, 5A, 5B) in a plan view of the conductive layer, and the radiation plate (5, 5A, 5B) is arranged at a first surface of the conductive layer, and the coil conductor is arranged at a second surface of the conductive layer, the second surface of the conductive layer being opposite to the first surface of the conductive layer. a coil conductor having a loop shape or a spiral shape and including a coil aperture at a winding center; a conductive layer including a conductor aperture and a slit for connecting the conductor aperture and an outer edge of the conductive layer; and a radiation plate (5, 5A, 5B), and wherein the coil conductor and the conductive layer are coupled to each other via an electromagnetic field, and wherein the conductive layer and the radiation plate (5, 5A, 5B) are coupled to each other via an electromagnetic field or a magnetic field, wherein the coil aperture and the conductor aperture at least partly overlap in plan view of the coil conductor, the conductive layer is disposed in a position which overlaps the radiation plate (5, 5A, 5B) only partly at the adjacent area of an outer edge of the radiation plate (5, 5A, 5B) in a plan view of the conductive layer, and the radiation plate (5, 5A, 5B) is arranged at a first surface of the conductive layer, and the coil conductor is arranged at a second surface of the conductive layer, the second surface of the conductive layer being opposite to the first surface of the conductive layer.
A rail vehicle with a first pull-push rod and a second pull-push rod, whereby the second pull-push rod is articulated at one end to a headstock of a first bogie and at the other end to a pin on the main frame-body of the rail vehicle or locomotive in the longitudinal axis so as to transfer longitudinal forces between the first bogie and the body of the rail vehicle, whereby the first pull-push rod is articulated at one end to a headstock of a second bogie and at the other end to a pin on the main frame-body of the rail vehicle or locomotive in the longitudinal axis so as to transfer longitudinal forces between the second bogie and the body of the rail vehicle or locomotive, wherein the both ends of the both pull-push rods lie in a common vertical plane including the longitudinal axis, characterized in that the first and second pull-push rods (1, 2) intersect in a projection into the common vertical plane, the second pull-push rod being performed as a simple curved bar contained in the common vertical plane, wherein the first pull-push rod has a shape of a loop with an opening, wherein a surface in which the loop and the opening lie is curved about a transversal axis perpendicular to the common vertical plane, and wherein the second pull-push rod passes through the opening of the loop.
A method for configuring a network path, the method being performed in a routing control device of a software defined network and characterized by: receiving a first node packet originating from a first node of the software defined network, the first node packet forming part of an ARP, Address Resolution Protocol, exchange between an ARP requester and an ARP responder, the first node packet comprising a request for network properties, the request being encoded in a first address, being a source address, of the first node packet, and the network properties comprising any one or more of: bandwidth, latency, network slice and one or more service nodes to pass; determining a network path through the software defined network between the first node and a second node based on the request for network properties, the network path being identified by a second address; changing a source address of a packet to the ARP requester to be the second address; configuring all switches (6a, 6b, 6c) forming part of the network path, to route packets in accordance with the network path for packets comprising a destination address equal to the second address; and configuring an edge switch, being a switch closest to the ARP responder, to replace, for all packets having a destination address being equal to the second address, the destination address with an address of the ARP responder. receiving a first node packet originating from a first node of the software defined network, the first node packet forming part of an ARP, Address Resolution Protocol, exchange between an ARP requester and an ARP responder, the first node packet comprising a request for network properties, the request being encoded in a first address, being a source address, of the first node packet, and the network properties comprising any one or more of: bandwidth, latency, network slice and one or more service nodes to pass; determining a network path through the software defined network between the first node and a second node based on the request for network properties, the network path being identified by a second address; changing a source address of a packet to the ARP requester to be the second address; configuring all switches (6a, 6b, 6c) forming part of the network path, to route packets in accordance with the network path for packets comprising a destination address equal to the second address; and configuring an edge switch, being a switch closest to the ARP responder, to replace, for all packets having a destination address being equal to the second address, the destination address with an address of the ARP responder.
A method of preparing a compound of Formula I: comprising contacting LiN(CH 3) 2 with a compound of Formula F: or a salt thereof, to form the compound of Formula I, wherein the compound of Formula F or a salt thereof is prepared by contacting a compound of Formula D: with a compound of Formula E: to form the compound of Formula F or a salt thereof.
Use of a kit in the in vitro detection or diagnosis of breast cancer, comprising nucleic acid(s) capable of specifically binding to a polynucleotide of a breast cancer markers: miR-4783-3p.