mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus implementing an element manager, EM , for a 3GPP wireless network, the EM being one of plural 3GPP operation and management, OAM, entities that are arranged to work with ETSI management and orchestration, MANO, entities for network functions virtualizations, wherein the EM is configured to: receive first performance measurement, PM, data for a virtualized network function, VNF , directly from the VNF ; receive second PM data for network functions virtualization infrastructure, NFVI , arranged to support the VNF from a virtualized network function manager, VNFM being one of the ETSI MANO entities , coupled with a virtualized infrastructure manager, VIM being one of the ETSI MANO entities , wherein the VIM received the second PM data directly from the NFVI ; perform a PM data correlation and detection of threshold crossing function using the first and the second PM data , wherein the PM data correlation and detection threshold crossing function using the first and the second PM data includes use of a plurality of PMs from among the first and the second PM data to detect whether a given threshold has been crossed; and determine, based on a result of the PM data correlation and detection of threshold crossing function using the first and the second PM data , whether to initiate a VNF lifecycle management, LCM, operation to be performed VNFM . receive first performance measurement, PM, data for a virtualized network function, VNF , directly from the VNF ; receive second PM data for network functions virtualization infrastructure, NFVI , arranged to support the VNF from a virtualized network function manager, VNFM being one of the ETSI MANO entities , coupled with a virtualized infrastructure manager, VIM being one of the ETSI MANO entities , wherein the VIM received the second PM data directly from the NFVI ; perform a PM data correlation and detection of threshold crossing function using the first and the second PM data , wherein the PM data correlation and detection threshold crossing function using the first and the second PM data includes use of a plurality of PMs from among the first and the second PM data to detect whether a given threshold has been crossed; and determine, based on a result of the PM data correlation and detection of threshold crossing function using the first and the second PM data , whether to initiate a VNF lifecycle management, LCM, operation to be performed VNFM .
Method of producing dental composite blocks comprising the steps of - providing a substantially hollow cylindrical mold , - providing a curable composite material , - providing a focusable heat source , - placing the curable composite material into the substantially hollow cylindrical mold , - optionally: compressing the introduced curable composite material in the mold without air, - curing the introduced curable composite material by means of a heat transfer to the substantially hollow cylindrical mold , wherein the wall of the substantially hollow cylindrical mold is configured to have a thermal conductivity in the range of 0.05 to 12 W/(m x K). - providing a substantially hollow cylindrical mold , - providing a curable composite material , - providing a focusable heat source , - placing the curable composite material into the substantially hollow cylindrical mold , - optionally: compressing the introduced curable composite material in the mold without air, - curing the introduced curable composite material by means of a heat transfer to the substantially hollow cylindrical mold ,
A computer-implemented method of receiving data by a backend device from an Internet of Things device , the method comprising: decrypting by the backend device, an encrypted data stream received from the Internet of Things device, the encrypted data stream including unencrypted sensor data; identifying by the backend device, the unencrypted sensor data in the decrypted data stream based on a location provided by the Internet of Things device, said location being part of the data stream, or based on a predetermined location in the data stream; and encrypting by the backend device, the identified sensor data in the data stream . decrypting by the backend device, an encrypted data stream received from the Internet of Things device, the encrypted data stream including unencrypted sensor data; identifying by the backend device, the unencrypted sensor data in the decrypted data stream based on a location provided by the Internet of Things device, said location being part of the data stream, or based on a predetermined location in the data stream; and encrypting by the backend device, the identified sensor data in the data stream .
A method for conveying User Equipment, UE, information to an Application Function, AF, the method comprising: receiving, at an intermediate-User Plane Function, I-UPF, entity, User Equipment, UE, uplink data from a Radio Access Network, RAN, wherein the UE uplink data originated from a User Equipment, UE, device; determining, at the I-UPF entity, if sharing of location information or application information associated with the UE is restricted; encapsulating, by the I-UPF entity, first location metadata or application metadata in an SRv6 packet if the sharing of location information or application information is not restricted; and transmitting the SRv6 packet to an anchor-User Plane Function, A-UPF, entity for forwarding to a Data Network, DN,, wherein the SRv6 packet is configured to cause the DN to transmit a first location report to at least one Application Function, AF, entity associated with an application associated with the UE device. receiving, at an intermediate-User Plane Function, I-UPF, entity, User Equipment, UE, uplink data from a Radio Access Network, RAN, wherein the UE uplink data originated from a User Equipment, UE, device; determining, at the I-UPF entity, if sharing of location information or application information associated with the UE is restricted; encapsulating, by the I-UPF entity, first location metadata or application metadata in an SRv6 packet if the sharing of location information or application information is not restricted; and transmitting the SRv6 packet to an anchor-User Plane Function, A-UPF, entity for forwarding to a Data Network, DN,, wherein the SRv6 packet is configured to cause the DN to transmit a first location report to at least one Application Function, AF, entity associated with an application associated with the UE device.
Process for formation of a functional network of human neuronal and glial cells, in which the cells are introduced into and cultivated in a synthetic hydrogel system with the components polyethylene glycol (PEG) and heparin, wherein the cells are introduced into the PEG-heparin-hydrogel system together with a gel component, either PEG or heparin, with which the cells were also previously mixed, so that the cells are already located in the hydrogel system during formation of the three-dimensional hydrogel.
A method of streaming media data by a server device to a client device, the method performed by the server device and comprising the following steps: - receiving, from the client device, a request relating to first media data, - in response to said request, transmitting to said client device, data relating to said first media data, - transmitting in a header of a Hypertext Transfer Protocol, HTTP, frame to the client device push policy information describing a push policy, so that it becomes a shared push policy, the push policy being an algorithm enabling the server device and the client device to determine a same non-requested second media data from the first media data requested; - identifying using the shared push policy non-requested media data to be sent to the client device which sent the request relating to the first media data; and - pushing the identified non-requested media data to the client device. comprising the following steps: - receiving, from the client device, a request relating to first media data, - in response to said request, transmitting to said client device, data relating to said first media data, - transmitting in a header of a Hypertext Transfer Protocol, HTTP, frame to the client device push policy - receiving, from the client device, a request relating to first media data, - in response to said request, transmitting to said client device, data relating to said first media data, - transmitting in a header of a Hypertext Transfer Protocol, HTTP, frame to the client device push policy information describing a push policy, so that it becomes a shared push policy, the push policy being an algorithm enabling the server device and the client device to determine a same non-requested second media data from the first media data requested; - identifying using the shared push policy non-requested media data to be sent to the client device which sent the request relating to the first media data; and - pushing the identified non-requested media data to the client device. - identifying using the shared push policy non-requested media data to be sent to the client device which sent the request relating to the first media data; and - pushing the identified non-requested media data to the client device.
A method performed by a vehicle computer system of controlling a cruise control system of a vehicle, the method comprising, during operation of the vehicle: obtaining an adjustable cruise control deactivation setting for the vehicle, wherein the adjustable cruise control deactivation setting includes a threshold state of a windshield wiper system of the vehicle; receiving a first signal indicating a current state of the windshield wiper system; performing a comparison of the current state of the windshield wiper system with the threshold state; characterized by the following further steps: based at least in part on the comparison, activating an inclement driving condition function, wherein the inclement driving condition function includes: disabling functionality of the cruise control system if the cruise control system is in an inactive state; and initiating a process to deactivate functionality of the cruise control system if the cruise control system is in an active state. obtaining an adjustable cruise control deactivation setting for the vehicle, wherein the adjustable cruise control deactivation setting includes a threshold state of a windshield wiper system of the vehicle; receiving a first signal indicating a current state of the windshield wiper system; performing a comparison of the current state of the windshield wiper system with the threshold state; characterized by the following further steps: based at least in part on the comparison, activating an inclement driving condition function, wherein the inclement driving condition function includes: disabling functionality of the cruise control system if the cruise control system is in an inactive state; and initiating a process to deactivate functionality of the cruise control system if the cruise control system is in an active state. disabling functionality of the cruise control system if the cruise control system is in an inactive state; and initiating a process to deactivate functionality of the cruise control system if the cruise control system is in an active state.
A rare earth magnet having a composition represented by the formula: (Ce x La (1-x-w) R' w ) v (Co y Fe (1-y) ) (100-v-z) M z , wherein R' is one or more rare earth elements other than Ce and La, M represents one or more members selected from the group consisting of a transition metal element other than Co and Fe, Ga, Al, Zn, and In, and an unavoidable impurity element, 0<x<1.0, 0<y<1.0, 0≤w≤0.1, 7.1≤v≤20.9, and 0≤z≤8.0, and satisfying, in the formula, the relationship of y≥-3x+1.7. M represents one or more members selected from the group consisting of a transition metal element other than Co and Fe, Ga, Al, Zn, and In, and an unavoidable impurity element, 0<x<1.0, 0<y<1.0, 0≤w≤0.1, 7.1≤v≤20.9, and 0≤z≤8.0,
Method for controlling a series resonant converter , the series resonant converter comprising a primary circuit and a secondary circuit , the primary circuit or the secondary circuit comprising a series resonant oscillating circuit , the series resonant oscillating circuit comprising at least one capacitance C 1 and at least one inductance L i , a link voltage U dc being applied to the primary circuit , and the secondary circuit providing an average output current I out , characterized in that the control of the series resonant converter is carried out by adjusting an averaged value of the output current I out by using a transfer function, the transfer function being a function of the link voltage U dc, the output voltage U Cout , the inductance L i , a switching period t p and a duty cycle D, at least the switching period t p and/or the duty cycle D being adjusted.
A method for transmitting a signal, wherein the method comprises: determining , by a network device, transmission information of a synchronization signal block, wherein the transmission information comprises information on the number m of the synchronization signal block, and information on a time-domain resource set over which the m synchronization signal block is transmitted, wherein the time-domain resource set comprises m time-domain resource unit over which the m synchronization signal block is transmitted, the information on the time-domain resource set over which the m synchronization signal block is transmitted represents the m time-domain resource unit over which the m synchronization signal block is transmitted, and for different time-domain resource sets, locations of m time-domain resource units are not completely the same, wherein m is a positive integer; and transmitting , by the network device, the transmission information to a terminal device, so that the terminal device receives, according to the transmission information, the m synchronization signal block transmitted by the network device; wherein location of the m time-domain resource unit in each of the time-domain resource sets among multiple time-domain resource sets over which the m synchronization signal block is capable of being transmitted satisfies a first condition, and the first condition is agreed by the network device and the terminal device in advance. determining , by a network device, transmission information of a synchronization signal block, wherein the transmission information comprises information on the number m of the synchronization signal block, and information on a time-domain resource set over which the m synchronization signal block is transmitted, wherein the time-domain resource set comprises m time-domain resource unit over which the m synchronization signal block is transmitted, the information on the time-domain resource set over which the m synchronization signal block is transmitted represents the m time-domain resource unit over which the m synchronization signal block is transmitted, and for different time-domain resource sets, locations of m time-domain resource units are not completely the same, wherein m is a positive integer; and transmitting , by the network device, the transmission information to a terminal device, so that the terminal device receives, according to the transmission information, the m synchronization signal block transmitted by the network device; wherein location of the m time-domain resource unit in each of the time-domain resource sets among multiple time-domain resource sets over which the m synchronization signal block is capable of being transmitted satisfies a first condition, and the first condition is agreed by the network device and the terminal device in advance.
An implantable medical lead comprising: a lead body extending from a proximal portion of the implantable medical lead to a distal portion of the implantable medical lead; an electrode at the distal portion of the implantable medical lead; and a lead electrical connector at the proximal portion of the implantable medical lead, wherein the lead electrical connector is configured to establish electrical communication between a test device and the electrode; and a rotational electrical coupling , wherein at least a portion of the rotational electrical coupling is mechanically supported by the lead electrical connector, and wherein the rotational electrical coupling comprises: a first conductive component electrically connected to the electrode; and a second conductive component electrically connected to the first conductive component, wherein the second conductive component is configured to establish electrical communication with the test device, and wherein the first conductive component and the second conductive component are configured to rotate relative to each other. a lead body extending from a proximal portion of the implantable medical lead to a distal portion of the implantable medical lead; an electrode at the distal portion of the implantable medical lead; and a lead electrical connector at the proximal portion of the implantable medical lead, wherein the lead electrical connector is configured to establish electrical communication between a test device and the electrode; and a rotational electrical coupling , wherein at least a portion of the rotational electrical coupling is mechanically supported by the lead electrical connector, and wherein the rotational electrical coupling comprises: a first conductive component electrically connected to the electrode; and a second conductive component electrically connected to the first conductive component, wherein the second conductive component is configured to establish electrical communication with the test device, and wherein the first conductive component and the second conductive component are configured to rotate relative to each other. a first conductive component electrically connected to the electrode; and a second conductive component electrically connected to the first conductive component, wherein the second conductive component is configured to establish electrical communication with the test device, and wherein the first conductive component and the second conductive component are configured to rotate relative to each other.
An electric straddle-type vehicle comprising: a vehicle body frame of the electric straddle-type vehicle ; and a battery , to be fixed inside the vehicle body frame , the battery comprises: a battery module to which electric power for traveling is charged; a circuit component connected to the battery module ; and a battery case accommodating the battery module and the circuit component , wherein the battery case is formed with an opening that exposes the circuit component to an outside, and a cover member that covers the opening is detachably attached to the battery case , the opening is formed at a position avoiding the vehicle body frame in a side view of the electric straddle-type vehicle , characterized in that the thr vehicle body frame includes an upper side frame and a lower side frame that extend at a side of the battery case , and the opening is positioned between the upper side frame and the lower side frame . a vehicle body frame of the electric straddle-type vehicle ; and a battery , to be fixed inside the vehicle body frame , the battery comprises: a battery module to which electric power for traveling is charged; a circuit component connected to the battery module ; and a battery case accommodating the battery module and the circuit component , wherein a battery module to which electric power for traveling is charged; a circuit component connected to the battery module ; and a battery case accommodating the battery module and the circuit component , wherein the battery case is formed with an opening that exposes the circuit component to an outside, and a cover member that covers the opening is detachably attached to the battery case , the opening is formed at a position avoiding the vehicle body frame in a side view of the electric straddle-type vehicle , characterized in that the thr vehicle body frame includes an upper side frame and a lower side frame that extend at a side of the battery case , and the opening is positioned between the upper side frame and the lower side frame .
A device adapted for the thoracoscopic placement of a lead at a target site on an epicardial surface of a heart, the device comprising: (a) an inner tubular lead conduit having a flexible inner tubular lead conduit distal end comprising an inner suction foot portion, said inner tubular lead conduit adapted to conduct a vacuum to said inner suction foot portion; (b) a lead drive head having a flexible distal end and inserted within said inner tubular lead conduit so as to extend to said flexible inner tubular lead conduit distal end; (c) a lead extending through said lead drive head and having a lead distal end portion, said lead distal end portion extending from said distal end of said lead drive head for contact with the epicardial surface of the heart; (d) an outer tubular lead conduit having a flexible outer lead conduit distal end comprising an outer suction foot portion, said outer tubular lead conduit adapted to conduct a vacuum to said outer suction foot portion while being adapted to slidingly conduct said inner tubular lead conduit, so as to permit said inner tubular lead conduit to be extended from said outer lead conduit distal end; (e) an elongated sheath body having a longitudinal axis, a proximal end portion and a distal end portion, and having a proximal inlet and a distal lead outlet for extending said inner and outer lead conduits therethrough, said elongated sheath body comprising a lead receiving passageway for receiving and conducting said inner and outer tubular lead conduits between said proximal inlet and said distal lead outlet; said lead drive head adapted to releasably engage said lead distal end portion such that said engagement is releasable such that said lead drive head may be released from said lead distal end portion once said lead is attached to said epicardial surface of a heart; (f) a first actuator adapted to articulate said inner suction foot portion and said outer suction foot portion while said inner suction foot portion is disposed within said outer suction foot portion; and (g) a second actuator adapted to articulate said inner suction foot portion when said inner suction foot portion is extended from said outer suction foot portion.
A nosecone component for a gas turbine engine, the component comprising: at least one injection moulded polymeric substrate forming the nosecone component and having at least one exposed surface; and at least one metallic plating layer deposited on the at least one exposed surface of the at least one polymeric substrate , wherein the at least one polymeric substrate is formed into one of an attachment ring , a spinner and a unitary forward cone having a plurality of circumferential ribs and a plurality of axial ribs . at least one injection moulded polymeric substrate forming the nosecone component and having at least one exposed surface; and at least one metallic plating layer deposited on the at least one exposed surface of the at least one polymeric substrate , wherein the at least one polymeric substrate is formed into one of an attachment ring , a spinner and a unitary forward cone having a plurality of circumferential ribs and a plurality of axial ribs .