mhurhangee/patent-ind-claim-en huggingface dataset:
A method implemented by a network node (104-118, 1500) supporting fast reroute, FRR, in a Bit Index Explicit Replication, BIER, domain , comprising: obtaining , by a control plane of the network node (104-118, 1500), an internet protocol, IP, loop-free alternate, LFA, from a forwarding information base , FIB, or a routing information base, RIB, through a first interface (Ib, Ib'); using , by the control plane of the network node (104-118, 1500), the IP LFA to build an enhanced bit index forwarding table , BIFTe, when the IP LFA is an expected type, the expected type comprises a basic LFA or a topology independent, TI, LFA; accessing , by the control plane of the network node (104-118, 1500), a BIER network topology in a link state database , LSDB, through a second interface (Ia, Ia') different from the first interface (Ib, Ib'), computing an LFA of the expected type, and using the LFA to build the BIFTe when the IP LFA is not of the expected type; updating , by the control plane of the network node (104-118, 1500), the BIFTe in a data plane of the network node (104-118, 1500) through a third interface (Ic, Ic') different from the first interface (Ib, Ib') and the second interface (Ia, Ia'); and forwarding , by the data plane of the network node (104-118, 1500), BIER packets using the BIFTe to get around a failure in the BIER domain . obtaining , by a control plane of the network node (104-118, 1500), an internet protocol, IP, loop-free alternate, LFA, from a forwarding information base , FIB, or a routing information base, RIB, through a first interface (Ib, Ib'); using , by the control plane of the network node (104-118, 1500), the IP LFA to build an enhanced bit index forwarding table , BIFTe, when the IP LFA is an expected type, the expected type comprises a basic LFA or a topology independent, TI, LFA; accessing , by the control plane of the network node (104-118, 1500), a BIER network topology in a link state database , LSDB, through a second interface (Ia, Ia') different from the first interface (Ib, Ib'), computing an LFA of the expected type, and using the LFA to build the BIFTe when the IP LFA is not of the expected type; updating , by the control plane of the network node (104-118, 1500), the BIFTe in a data plane of the network node (104-118, 1500) through a third interface (Ic, Ic') different from the first interface (Ib, Ib') and the second interface (Ia, Ia'); and forwarding , by the data plane of the network node (104-118, 1500), BIER packets using the BIFTe to get around a failure in the BIER domain .
Sheet processing machine , comprising at least one sensor device , the at least one sensor device comprising at least two sensors , wherein the at least two sensors are configured as a camera , the sheet processing machine comprising at least one infeed system , the at least one sensor device being configured to control by open-loop control and/or closed-loop control at least one servo drive (218; 231; 237) of the infeed system as a function of at least one sheet of sheets being detected by the at least two sensors , the at least two sensors being configured to selectively detect at least one edge (07; 08; 09) and/or printing mark of sheets , characterized in that the at least two sensors of the sensor device are arranged next to one another in the transport direction (T) at an alignment position (PA), and that the alignment position (PA) is established by at least two front lay marks of the infeed system of the sheet processing machine which are arranged horizontally to the transport direction (T) and parallel next to one another.
A method comprising: at a first device having a plurality of antennas to facilitate multi-user multiple-input multiple-output, MU-MIMO, communication, wirelessly transmitting multiple series of test packets to a second device having one or more antennas, each series of test packets being transmitted with a different level of interference imposed on the test packets; determining a packet error rate for each series of test packets transmitted by the first device; deriving an estimate of an interference cancellation capability of the second device based on the packet error rate for different levels of interference, wherein the transmitting , determining and deriving are performed at the first device with respect to each of a plurality of second devices in order to determine the interference cancellation capability of each of the plurality of second devices; and applying transmit precoding to streams for the plurality of second devices, the transmit precoding being prioritized according to the interference cancellation capability of each of the plurality of second devices. at a first device having a plurality of antennas to facilitate multi-user multiple-input multiple-output, MU-MIMO, communication, wirelessly transmitting multiple series of test packets to a second device having one or more antennas, each series of test packets being transmitted with a different level of interference imposed on the test packets; determining a packet error rate for each series of test packets transmitted by the first device; deriving an estimate of an interference cancellation capability of the second device based on the packet error rate for different levels of interference, wherein the transmitting , determining and deriving are performed at the first device with respect to each of a plurality of second devices in order to determine the interference cancellation capability of each of the plurality of second devices; and applying transmit precoding to streams for the plurality of second devices, the transmit precoding being prioritized according to the interference cancellation capability of each of the plurality of second devices.
A formed article comprising a copolymer, the copolymer comprising a structural unit of a cyclic olefin monomer (A) derived from norbornene, and a structural unit of a monomer (B) derived from at least one of C 4 to C 12 α-olefins, and the copolymer having a Tg of 200°C or more and an Al content of 50 ppm or less, wherein the copolymer is obtained by using a co-catalyst including alkylaluminoxane. a structural unit of a monomer (B) derived from at least one of C 4 to C 12 α-olefins, and the copolymer having a Tg of 200°C or more and an Al content of 50 ppm or less, wherein the copolymer is obtained by using a co-catalyst including alkylaluminoxane.
A method for generating a motion sequence of an animation, comprising the steps of: (a) generating a movement path indicating a path along which a character moves, with reference to a first user operation being inputted with respect to a reference plane; (b) specifying at least one of at least one section included in the movement path and at least one point included in the movement path after the movement path is generated, with reference to a second user operation being distinguished from the first user operation and inputted with respect to the reference plane such that at least one of a boundary of the section included in the movement path and a location of the point included in the movement path is specified; and (c) assigning at least one motion to at least one of the movement path, the at least one section, and the at least one point, with reference to a third user operation being distinguished from the first or second user operation and inputted with respect to the reference plane such that the at least one of the movement path, the at least one section, and the at least one point corresponds to the motion, to generate a motion sequence by which the character carries out the at least one assigned motion when the character is located at the at least one of the movement path, the at least one section, and the at least one point to which the at least one motion has been assigned, wherein in the step (a), the first user operation is an operation to draw a virtual line extending from a first point to a second point on the reference plane, and wherein in the step (b), the at least one section and the at least one point are specified with reference to at least one of an operation to draw a virtual line intersecting the movement path and an operation to select the movement path. (a) generating a movement path indicating a path along which a character moves, with reference to a first user operation being inputted with respect to a reference plane; (b) specifying at least one of at least one section included in the movement path and at least one point included in the movement path after the movement path is generated, with reference to a second user operation being distinguished from the first user operation and inputted with respect to the reference plane such that at least one of a boundary of the section included in the movement path and a location of the point included in the movement path is specified; and (c) assigning at least one motion to at least one of the movement path, the at least one section, and the at least one point, with reference to a third user operation being distinguished from the first or second user operation and inputted with respect to the reference plane such that the at least one of the movement path, the at least one section, and the at least one point corresponds to the motion, to generate a motion sequence by which the character carries out the at least one assigned motion when the character is located at the at least one of the movement path, the at least one section, and the at least one point to which the at least one motion has been assigned,
A communication method, comprising: receiving, by a distributed unit, DU, of a radio access network, a first request from a terminal, the first request is used to request first system information; transparently transmitting, by the DU, the first request to a central unit, CU, of the radio access network, such that the CU determines whether to broadcast the first system information; when the CU determines to broadcast the first system information, receiving, by the DU, a first indicator from the CU, wherein the first indicator is used to indicate that the first system information is to be broadcast; modifying, by the DU, based on the first indicator, a second indicator, wherein the second indicator indicates that the first system information is being broadcast; and broadcasting, by the DU, the modified second indicator and the first system information, wherein, the DU directly broadcasts the first system information, if the DU has obtained the first system information from the CU and stored the first system information in the DU locally, and, if the DU does not locally store the first system information, the DU sends a second request to the CU, wherein the second request is used to request the first system information, the CU sends the first system information to the DU, and then the DU broadcasts the first system information. receiving, by a distributed unit, DU, of a radio access network, a first request from a terminal, the first request is used to request first system information; transparently transmitting, by the DU, the first request to a central unit, CU, of the radio access network, such that the CU determines whether to broadcast the first system information; when the CU determines to broadcast the first system information, receiving, by the DU, a first indicator from the CU, wherein the first indicator is used to indicate that the first system information is to be broadcast; modifying, by the DU, based on the first indicator, a second indicator, wherein the second indicator indicates that the first system information is being broadcast; and broadcasting, by the DU, the modified second indicator and the first system information, wherein, the DU directly broadcasts the first system information, if the DU has obtained the first system information from the CU and stored the first system information in the DU locally, and, if the DU does not locally store the first system information, the DU sends a second request to the CU, wherein the second request is used to request the first system information, the CU sends the first system information to the DU, and then the DU broadcasts the first system information.
A method for a home gateway configured to control home devices in a home network system , the method comprising: receiving , from a control station, a request message for executing an operation mode of the home network system; and broadcasting the request message to home devices in the home network system for at least one of the home devices to execute at least one function associated with the operation mode when it is determined that the at least one home device is associated with the operation mode of the home network system. receiving , from a control station, a request message for executing an operation mode of the home network system; and broadcasting the request message to home devices in the home network system for at least one of the home devices to execute at least one function associated with the operation mode when it is determined that the at least one home device is associated with the operation mode of the home network system.
Fastening device for pivotably fastening a lid device to the container body of a waste collection container , comprising a first fastening element adapted to be fastened to the container body , in particular releasably, a second fastening element adapted to be fastened to the lid device , in particular releasably, or formed on the lid device , wherein the first fastening element and the second fastening element are pivotable relative to each other about a common pivot axis , further comprising the fastening device having a stopper device provided so as to be capable of stopping and fixing the pivotal movement of the first and second fastening elements relative to each other in at least one defined pivot position , in that the stopper device has, for this purpose, a first stopper element with a spring element , which is assigned to the first fastening element , and a second stopper element with an abutment element for the first stopper element , which is assigned to the second fastening element , which interact with each other in the defined pivot position , characterized in the second fastening element comprises at least one, preferably two, cam element(s) , in that the first fastening element comprises at least one, preferably two, sliding surface(s) , which correspond(s) with the at least one cam element , in such a way that the at least one cam element is capable, for initiating a pivoting movement due to the gravitational forces, to slide along the corresponding sliding surface .
A vehicle comprising: an engine ; an engine room ; and an air intake device comprising an intake duct configured to introduce air in the engine room into a combustion chamber of the engine , and a heat storage cover provided in the engine room , which covers the engine from above and at least partially surrounds a periphery of the engine to internally store, through a medium of air, heat dissipated from the engine and block at least a part of upward heat dissipation, wherein the intake duct comprises an air inlet for introducing, into the combustion chamber, high temperature air obtained by the heat storage cover blocking the upward heat dissipation, the engine room is provided as a recess having an opening on an upper side and configured to accommodate the engine and peripherals of the engine , the opening on the upper side is blocked by a bonnet , the intake duct includes an outside air introduction duct portion configured to introduce outside air which is air outside the engine room and an inside air introduction duct portion configured to introduce air inside the engine room , and is a composite duct in which both duct portions are connected to one downstream duct portion , characterized in that the air inlet provided at an upstream end of the inside air introduction duct portion is open upward and has a horizontally long rectangular shape, and a part of the inside air inlet is covered with the outside air introduction duct portion from a top with a gap. an engine ; an engine room ; and an air intake device comprising an intake duct configured to introduce air in the engine room into a combustion chamber of the engine , and a heat storage cover provided in the engine room , which covers the engine from above and at least partially surrounds a periphery of the engine to internally store, through a medium of air, heat dissipated from the engine and block at least a part of upward heat dissipation, wherein the intake duct comprises an air inlet for introducing, into the combustion chamber, high temperature air obtained by the heat storage cover blocking the upward heat dissipation, the engine room is provided as a recess having an opening on an upper side and configured to accommodate the engine and peripherals of the engine , the opening on the upper side is blocked by a bonnet , the intake duct includes an outside air introduction duct portion configured to introduce outside air which is air outside the engine room and an inside air introduction duct portion configured to introduce air inside the engine room , and is a composite duct in which both duct portions are connected to one downstream duct portion , characterized in that the air inlet provided at an upstream end of the inside air introduction duct portion is open upward and has a horizontally long rectangular shape, and a part of the inside air inlet is covered with the outside air introduction duct portion from a top with a gap.
An alumina sintered body which comprises; an inner layer in which alumina crystal grains contained have an average aspect ratio of 1.0 to 2.0; and an outer layer which covers at least a part of the inner layer from outside and in which alumina crystal grains contained have an average aspect ratio of more than 2.0, wherein the outer layer has a thickness of 1 to 100 μm, a coverage (%) of the outer layer based on the inner layer in the alumina sintered body defined by the area fraction of the alumina crystal grains in the outer layer on the surface of the alumina sintered body is 25% or more, the alumina sintered body comprises at least one element selected from group consisting of calcium, strontium, and barium, and the alumina sintered body is free from silicon except unavoidable impurities, wherein the average aspect ratio of the alumina crystal grains contained in the outer layer is 1.5 times or more the average aspect ratio of the alumina crystal grains contained in the inner layer.
A composition of matter comprising viable electrically excitable cells seeded on a scaffold, wherein an outer surface of said scaffold comprises a coating of metal nanoparticles and wherein more than 50 % of said metal nanoparticles are positioned on said outer surface of said scaffold, wherein said coating is between 2-20 nm in thickness.
A battery-powered device for use with a configurable battery pack , comprising a consumer control unit , a device interface and at least one electrical consumer , wherein the device interface is designed for the electrical supply of the consumer for an electrically and mechanically releasable connection with a battery pack interface, the battery-powered device having a configuration interface that can be electrically connected to a data interface of the battery pack and is set up to determine at least one battery charging parameter of the battery pack in accordance with a specification of the consumer control unit , taking into account a user specification and/or electrical requirements of the electrical consumer , via the data interface of the battery pack , wherein a usable total capacity of the battery pack can be configured via the input at the data interface , characterized in that the usable total capacity is smaller than a maximum achievable, hardware-based total capacity of the battery pack , and the electrical load being in the form of an electric motor, the battery-powered appliance having an electrical recuperation device for feeding electrical energy back into the configurable battery pack when the electric motor slows down.
A vertical take-off and/or landing aircraft comprising: - a fuselage having a longitudinal axis (D); - a pair of semi-wings protruding from said fuselage in a transversal direction with respect to said longitudinal axis (D); - a pair of predetermined breaking areas of said semi-wings defining respective preferred rupture sections at which the respective semi-wings are designed to break, in use, in a controlled way moving, in use, along a preferred collapse trajectory in the event of impact; and - at least one fluidic line configured to convey at least one service fluid from and/or towards at least one said semi-wing and crossing at least one of said preferred rupture sections ; characterised in that it comprises a self-sealing coupling movable between a first configuration in which it enables the flow of said service fluid from and/or towards said at least one semi-wing , and a second configuration in which it prevents said flow and a spilling of said service fluid from said fluidic line ; said self-sealing coupling being movable from said first configuration to said second configuration through the movement of said semi-wing along said preferred collapse trajectory. - a fuselage having a longitudinal axis (D); - a pair of semi-wings protruding from said fuselage in a transversal direction with respect to said longitudinal axis (D); - a pair of predetermined breaking areas of said semi-wings defining respective preferred rupture sections at which the respective semi-wings are designed to break, in use, in a controlled way moving, in use, along a preferred collapse trajectory in the event of impact; and - at least one fluidic line configured to convey at least one service fluid from and/or towards at least one said semi-wing and crossing at least one of said preferred rupture sections ;
A downhole communication system for communication between a first and second location in a subsea oil and/or gas well installation, the oil and/or gas well installation comprising: out of hole metallic structure comprising a riser running upwards away from the mudline, and downhole metallic structure running down into the well, wherein the communication system is arranged so that at least part of a signal path for communications between the first and second locations is provided by the downhole metallic structure such that, in use, data to be communicated between the first and second locations is carried by electrical signals in the downhole metallic structure ; characterised in that the communication system further comprises a first noise cancellation arrangement arranged for sensing a noise signal generated in the out of hole metallic structure and arranged for applying a corresponding noise cancelling signal to the out of hole metallic structure or the downhole metallic structure to inhibit introduction of electrical noise into the downhole metallic structure from the riser . out of hole metallic structure comprising a riser running upwards away from the mudline, and downhole metallic structure running down into the well, wherein the communication system is arranged so that at least part of a signal path for communications between the first and second locations is provided by the downhole metallic structure such that, in use, data to be communicated between the first and second locations is carried by electrical signals in the downhole metallic structure ; characterised in that the communication system further comprises a first noise cancellation arrangement arranged for sensing a noise signal generated in the out of hole metallic structure and arranged for applying a corresponding noise cancelling signal to the out of hole metallic structure or the downhole metallic structure to inhibit introduction of electrical noise into the downhole metallic structure from the riser .