mhurhangee/patent-ind-claim-en huggingface dataset:
Transformer for a switched-mode power supply ; wherein the transformer comprises - a coil core ; - a primary coil and a secondary coil , which in each case surround a central region of the coil core ; and - a shielding layer , which is insulated multiple times as a shielding film, is arranged between the central region of the coil core and the primary coil and/or the secondary coil and is connected to the primary coil or the secondary coil in an electrically conductive manner, - wherein the shielding film comprises: - an electrically conductive central layer ; - a first insulation jacket , which fully surrounds the central layer ; - a second insulation jacket , which fully surrounds the first insulation jacket ; and - a third insulation jacket , which fully surrounds the second insulation jacket ; - wherein the primary coil and/or the secondary coil in each case have a layer width of windings about a central axis of the transformer ; and - the shielding film extends over the entire layer width of the primary coil and/or the secondary coil . - a coil core ; - a primary coil and a secondary coil , which in each case surround a central region of the coil core ; and - a shielding layer , which is insulated multiple times as a shielding film, is arranged between the central region of the coil core and the primary coil and/or the secondary coil and is connected to the primary coil or the secondary coil in an electrically conductive manner, - wherein the shielding film comprises: - an electrically conductive central layer ; - a first insulation jacket , which fully surrounds the central layer ; - a second insulation jacket , which fully surrounds the first insulation jacket ; and - a third insulation jacket , which fully surrounds the second insulation jacket ; - wherein the primary coil and/or the secondary coil in each case have a layer width of windings about a central axis of the transformer ; and - the shielding film extends over the entire layer width of the primary coil and/or the secondary coil . - an electrically conductive central layer ; - a first insulation jacket , which fully surrounds the central layer ; - a second insulation jacket , which fully surrounds the first insulation jacket ; and - a third insulation jacket , which fully surrounds the second insulation jacket ; - wherein the primary coil and/or the secondary coil in each case have a layer width of windings about a central axis of the transformer ; and - the shielding film extends over the entire layer width of the primary coil and/or the secondary coil .
Pipe insert for arrangement in a pipe for setting the volumetric flow rate of a fluid conducted within the pipe, comprising a base body and at least one closure element , wherein the base body comprises a plurality of connecting channels , and wherein the at least one closure element can be inserted into one of the connecting channels , characterized in that the closure element is formed from a fluid-permeable material, wherein a portion of the connecting channels are not closed off and a portion of the connecting channels are closed off by the at least one closure element.
A method of controlling a tape laying process, the method comprising: laying up tape on surface ; while laying up the tape, inspecting the surface on which it is laid up as well as the laid up tape using IR imaging ; reviewing the IR imaging for out of tolerance conditions ; and stopping the tape laying if an out of tolerance condition is detected . laying up tape on surface ; while laying up the tape, inspecting the surface on which it is laid up as well as the laid up tape using IR imaging ; reviewing the IR imaging for out of tolerance conditions ; and stopping the tape laying if an out of tolerance condition is detected .
A composition comprising an attenuated Pasteurella multocida ( P. multocida ) strain for use in providing a safe and effective immune response in bovine against P. multocida or diseases caused by P. multocida, characterized in that the strain is the strain deposited at the ATCC under the Patent Deposit Designation PTA-120624.
An apparatus comprising: an interface that is configured to communicate with a plurality of network functions in a mobile communication network; and a processor that is configured to: receive a first request from a first TNGF, the first request containing a remote unit identity and an AMF identity, wherein the first TNGF initiated registration of the remote unit with the mobile communication network; select an AMF in the mobile communication network using the AMF identity; send a relocation notify message to the AMF, the relocation notify message containing the remote unit identity, wherein the relocation notify message indicates that the registration of the remote unit with the mobile communication network is to be resumed via the apparatus; receive a second request from the AMF containing a security key in response to sending the relocation notify message; send a first response to the first TNGF; and establish secure connectivity with the remote unit by applying the security key. an interface that is configured to communicate with a plurality of network functions in a mobile communication network; and a processor that is configured to: receive a first request from a first TNGF, the first request containing a remote unit identity and an AMF identity, wherein the first TNGF initiated registration of the remote unit with the mobile communication network; select an AMF in the mobile communication network using the AMF identity; send a relocation notify message to the AMF, the relocation notify message containing the remote unit identity, wherein the relocation notify message indicates that the registration of the remote unit with the mobile communication network is to be resumed via the apparatus; receive a second request from the AMF containing a security key in response to sending the relocation notify message; send a first response to the first TNGF; and establish secure connectivity with the remote unit by applying the security key. receive a first request from a first TNGF, the first request containing a remote unit identity and an AMF identity, wherein the first TNGF initiated registration of the remote unit with the mobile communication network; select an AMF in the mobile communication network using the AMF identity; send a relocation notify message to the AMF, the relocation notify message containing the remote unit identity, wherein the relocation notify message indicates that the registration of the remote unit with the mobile communication network is to be resumed via the apparatus; receive a second request from the AMF containing a security key in response to sending the relocation notify message; send a first response to the first TNGF; and establish secure connectivity with the remote unit by applying the security key.
A scheduled service processing method, comprising: within a time interval from t 1 to t 2 , if a second transport path that can satisfy a service demand is acquired based on an available network resource, reserving, by a network layer controller, the network resource for the second transport path, and reporting, by the network layer controller, the second transport path to an application layer controller, so that the application layer controller can select one path between the second transport path and a first transport path as a target transport path ; and receiving, by the network layer controller, the target transport path sent by the application layer controller, and transporting the service by using the target transport path , wherein t 1 is a time at which the application layer controller sends the service demand, t 2 is a time at which the service is started, and the first transport path is a transport path that satisfies the service demand and that is acquired before the second transport path. within a time interval from t 1 to t 2 , if a second transport path that can satisfy a service demand is acquired based on an available network resource, reserving, by a network layer controller, the network resource for the second transport path, and reporting, by the network layer controller, the second transport path to an application layer controller, so that the application layer controller can select one path between the second transport path and a first transport path as a target transport path ; and receiving, by the network layer controller, the target transport path sent by the application layer controller, and transporting the service by using the target transport path , wherein t 1 is a time at which the application layer controller sends the service demand, t 2 is a time at which the service is started, and the first transport path is a transport path that satisfies the service demand and that is acquired before the second transport path.
A super-cell handover method , wherein the method is applied to a no cell system , the no cell system comprises at least two super cells , each super cell refers to a cell cluster, wherein each cell of the cell cluster corresponds to one transmission point, TP , and each super cell corresponds to at least one logical entity, LE , wherein each LE controls the TP in the super cell, the at least two super cells comprise a first super cell and a second super cell , the first super cell is adjacent to the second super cell , the no cell system indicates that user equipment, UE , sends a reference signal, and an LE in a super cell in which the UE is located continually updates and maintains the reference signal, and provides the UE with a TP used for a data communication service, so that the UE does not sense a change of the TP as much as possible, and the method comprises: receiving (S306), by a first LE, measurement reports sent by a plurality of first TPs, wherein the measurement reports are measurement reports determined by the plurality of first TPs based on a reference signal sent by target user equipment, UE, in the second super cell, wherein data of the target UE is transmitted or a communication service is provided for the target UE by using a TP set formed by TPs in the second super cell, the first LE is an LE in the first super cell, and the plurality of first TPs are TPs in the first super cell; determining (S307), by the first LE, a first handover policy based on a first preset condition and the measurement reports, wherein the first handover policy indicates whether the first LE allows to hand over the target UE from the second super cell to the first super cell; and sending (S308), by the first LE, indication information of the first handover policy to a second LE, wherein the indication information is used to instruct the second LE to perform handover processing based on the first handover policy, and the second LE is an LE in the second super cell. receiving (S306), by a first LE, measurement reports sent by a plurality of first TPs, wherein the measurement reports are measurement reports determined by the plurality of first TPs based on a reference signal sent by target user equipment, UE, in the second super cell, wherein data of the target UE is transmitted or a communication service is provided for the target UE by using a TP set formed by TPs in the second super cell, the first LE is an LE in the first super cell, and the plurality of first TPs are TPs in the first super cell; determining (S307), by the first LE, a first handover policy based on a first preset condition and the measurement reports, wherein the first handover policy indicates whether the first LE allows to hand over the target UE from the second super cell to the first super cell; and sending (S308), by the first LE, indication information of the first handover policy to a second LE, wherein the indication information is used to instruct the second LE to perform handover processing based on the first handover policy, and the second LE is an LE in the second super cell.
Mobile crane system comprising a mobile crane having a detachable attachment part , in particular a main boom, and an attachment part transport unit which is designed to receive the attachment part released from the mobile crane and has a movable transport device for transporting the attachment part , wherein at least one loading arm is arranged on the transport device , an attachment part , which is to be received or is already received, can be coupled on a free supporting end of the loading arm , and the loading arm is pivotably arranged on the transport device in such a way that an attachment part to be loaded or unloaded is movable on the transport device or downwards from the transport device ,comprising a deposition support which is arranged on the transport device and is designed for supporting the attachment part , in particular in the region of a head end of the attachment part , characterized in that the deposition support is arranged so as to be displaceable in parallel with a longitudinal direction (L) of the transport device .
A bi-specific asymmetric antibody which in vivo has less susceptibility to undergo exchange than wild type IgG4 antibodies, said antibody comprising: i. two light chains, and ii. two heavy chains or heavy chain fragments each comprising at least a variable region, a hinge region and a C H 1 domain, wherein a first heavy chain or fragment thereof is a class IgG4 and has: a. the inter-chain cysteine at position 127, numbered according to the Kabat numbering system, in the C H 1 domain is substituted with a non-thiol containing amino acid; and b. one of the amino acids positioned in the upper hinge region selected from S227, K228, Y229 and G230 is substituted with cysteine, and wherein the second heavy chain or fragment thereof is IgG4 wild type or IgG4 wild type with a S241G or S241A mutation, and wherein each heavy chain has a different variable region. i. two light chains, and ii. two heavy chains or heavy chain fragments each comprising at least a variable region, a hinge region and a C H 1 domain, wherein a first heavy chain or fragment thereof is a class IgG4 and has: a. the inter-chain cysteine at position 127, numbered according to the Kabat numbering system, in the C H 1 domain is substituted with a non-thiol containing amino acid; and b. one of the amino acids positioned in the upper hinge region selected from S227, K228, Y229 and G230 is substituted with cysteine, and a. the inter-chain cysteine at position 127, numbered according to the Kabat numbering system, in the C H 1 domain is substituted with a non-thiol containing amino acid; and b. one of the amino acids positioned in the upper hinge region selected from S227, K228, Y229 and G230 is substituted with cysteine, and
Device for processing keg barrels having a keg flange with a valve , said device comprising an upward-projecting processing head for over-head processing, e.g. filling, of the keg barrel , wherein an adapter with a guide cone for the keg flange is arranged at the upper end of the processing head , characterised in that the guide cone is mounted on the processing head or on the adapter such that it can rotate.
A method for a first node to establish a wireless connection with a second node , the method comprising: determining a reception time period of the second node during which a radio of the second node is turned on to receive signals, and an interval time period between commencements of reception periods of the second node; determining an event triggering a transmission of data by the first node; in response to determining the event, transmitting a message to the second node a predetermined number of times, wherein a first time between transmission of the message is equal to the reception time period up to the accuracy of the timing mechanism of the first node or the second node, or both, and the predetermined number of times that the message is transmitted is a positive integer that is equal to a quotient of the interval time period divided by the first time, rounded up to the next larger positive integer if the quotient includes a remainder. determining a reception time period of the second node during which a radio of the second node is turned on to receive signals, and an interval time period between commencements of reception periods of the second node; determining an event triggering a transmission of data by the first node; in response to determining the event, transmitting a message to the second node a predetermined number of times, wherein a first time between transmission of the message is equal to the reception time period up to the accuracy of the timing mechanism of the first node or the second node, or both, and the predetermined number of times that the message is transmitted is a positive integer that is equal to a quotient of the interval time period divided by the first time, rounded up to the next larger positive integer if the quotient includes a remainder.
Bipolar RF-surgical effector , comprising a first effector element and a second effector element , wherein the first effector element is connected to the second effector element by a joint that allows movement of the first effector element with respect to the second effector element only in a first plane, wherein the effector can be moved between an open state and a closed state, and in the closed state between several positions, wherein a resilient element (x) is arranged between the joint and at least one of the effector elements , the first effector element has an electrically conductive cutting ridge in the first plane with at least one electrically conductive coagulation flank ) arranged along the cutting ridge, the second effector element comprises an electrically conductive cutting path arranged opposite the cutting ridge , and in an open state the cutting ridge is electrically insulated from the cutting path , and characterized in that in a closed state there is an electrical short circuit between the cutting ridge and the cutting path .
A system, comprising: a first computing system comprising a first processor unit in communication with a first data storage, wherein the first processor unit is programmed to perform operations comprising: executing a first combining routine to generate first composite data based at least in part on first system receiving data and at least in part on second system sending data received from a second computing system ; executing a first testing routine to determine that the first composite data is consistent with first composite reference data; executing a first tagging routine to generate first tag data based at least in part on the first composite data; sending a request message comprising the first tag data to the second computing system; receiving from the second computing system, a reply message comprising second tag data; and executing a first tag test routine to determine that the second tag data is consistent with first system tag reference data. executing a first combining routine to generate first composite data based at least in part on first system receiving data and at least in part on second system sending data received from a second computing system ; executing a first testing routine to determine that the first composite data is consistent with first composite reference data; executing a first tagging routine to generate first tag data based at least in part on the first composite data; sending a request message comprising the first tag data to the second computing system; receiving from the second computing system, a reply message comprising second tag data; and executing a first tag test routine to determine that the second tag data is consistent with first system tag reference data.
A medical device, comprising: a sensing circuit configured to: sense a cardiac electrical signal comprising T-waves attendant to ventricular myocardial repolarizations; and sense R-waves attendant to ventricular myocardial depolarizations from the cardiac electrical signal; a control circuit configured to: detect a first T-wave template condition associated with non-pathological changes in T-wave morphology; generate a first T-wave template from at least one T-wave sensed by the sensing circuit during the detected first T-wave template condition; after generating the first T-wave template, acquire a first T-wave signal from the cardiac electrical signal sensed by the sensing circuit; compare the acquired first T-wave signal to the first T-wave template; determine that the first T-wave signal does not match the first T-wave template; detect a pathological event in response to at least the acquired first T-wave signal not matching the first T-wave template; and adjust a ventricular sensing control parameter used to sense the R-waves in response to detecting the pathological event. a sensing circuit configured to: sense a cardiac electrical signal comprising T-waves attendant to ventricular myocardial repolarizations; and sense R-waves attendant to ventricular myocardial depolarizations from the cardiac electrical signal; sense a cardiac electrical signal comprising T-waves attendant to ventricular myocardial repolarizations; and sense R-waves attendant to ventricular myocardial depolarizations from the cardiac electrical signal; a control circuit configured to: detect a first T-wave template condition associated with non-pathological changes in T-wave morphology; generate a first T-wave template from at least one T-wave sensed by the sensing circuit during the detected first T-wave template condition; after generating the first T-wave template, acquire a first T-wave signal from the cardiac electrical signal sensed by the sensing circuit; compare the acquired first T-wave signal to the first T-wave template; determine that the first T-wave signal does not match the first T-wave template; detect a pathological event in response to at least the acquired first T-wave signal not matching the first T-wave template; and adjust a ventricular sensing control parameter used to sense the R-waves in response to detecting the pathological event. detect a first T-wave template condition associated with non-pathological changes in T-wave morphology; generate a first T-wave template from at least one T-wave sensed by the sensing circuit during the detected first T-wave template condition; after generating the first T-wave template, acquire a first T-wave signal from the cardiac electrical signal sensed by the sensing circuit; compare the acquired first T-wave signal to the first T-wave template; determine that the first T-wave signal does not match the first T-wave template; detect a pathological event in response to at least the acquired first T-wave signal not matching the first T-wave template; and adjust a ventricular sensing control parameter used to sense the R-waves in response to detecting the pathological event.