mhurhangee/ep-ind-claims huggingface dataset:
A user equipment, comprising: a signaling receiving unit, configured to receive signaling from a base station carrying a target Ncs index indicating an Ncs value for calculating a cyclic shift value; and a processing unit, configured to: obtain the Ncs value indicated by the target Ncs index, according to the target Ncs index and a preset correspondence between a set of Ncs indexes and a set of Ncs values, wherein the set of Ncs values comprises {15, 18, 22, 26, 32, 38, 46, 55, 68, 82, 100, 118, 137}; calculate the cyclic shift value based on the Ncs value indicated by the target Ncs index; obtain a first logic root sequence number; determine a root sequence based on the first logic root sequence number; and generate a random access preamble sequence based on the root sequence and the cyclic shift value, wherein the random access preamble sequence is x u,v ( n), and wherein x u,v ( n) = x u (( n + C v)mod N ZC), x u n = e − j π un n + 1 N ZC, 0≤ n ≤ N ZC -1, C v is the cyclic shift value, u is a physical root sequence number, and N ZC = 839, and wherein the user equipment is configured to perform random access by using the random access preamble sequence generated based on the cyclic shift value and the root sequence. a signaling receiving unit, configured to receive signaling from a base station carrying a target Ncs index indicating an Ncs value for calculating a cyclic shift value; and a processing unit, configured to: obtain the Ncs value indicated by the target Ncs index, according to the target Ncs index and a preset correspondence between a set of Ncs indexes and a set of Ncs values, wherein the set of Ncs values comprises {15, 18, 22, 26, 32, 38, 46, 55, 68, 82, 100, 118, 137}; calculate the cyclic shift value based on the Ncs value indicated by the target Ncs index; obtain a first logic root sequence number; determine a root sequence based on the first logic root sequence number; and generate a random access preamble sequence based on the root sequence and the cyclic shift value, obtain the Ncs value indicated by the target Ncs index, according to the target Ncs index and a preset correspondence between a set of Ncs indexes and a set of Ncs values, wherein the set of Ncs values comprises {15, 18, 22, 26, 32, 38, 46, 55, 68, 82, 100, 118, 137}; calculate the cyclic shift value based on the Ncs value indicated by the target Ncs index; obtain a first logic root sequence number; determine a root sequence based on the first logic root sequence number; and generate a random access preamble sequence based on the root sequence and the cyclic shift value, wherein the random access preamble sequence is x u,v ( n), and wherein x u,v ( n) = x u (( n + C v)mod N ZC), x u n = e − j π un n + 1 N ZC, 0≤ n ≤ N ZC -1, C v is the cyclic shift value, u is a physical root sequence number, and N ZC = 839, and wherein the user equipment is configured to perform random access by using the random access preamble sequence generated based on the cyclic shift value and the root sequence.
A cow stable, comprising: a milking box having a first entrance fence and a first exit fence forming a first pair of fences positioned at a first side of the milking box, and a second entrance fence and a second exit fence forming a second pair of fences positioned at a second side opposite to the first side; a plurality of resting boxes placed at the first side of the milking box; a walking path placed between the resting boxes and the milking box; and a feeding trough placed at the second side of the milking box. a milking box having a first entrance fence and a first exit fence forming a first pair of fences positioned at a first side of the milking box, and a second entrance fence and a second exit fence forming a second pair of fences positioned at a second side opposite to the first side; a plurality of resting boxes placed at the first side of the milking box; a walking path placed between the resting boxes and the milking box; and a feeding trough placed at the second side of the milking box.
A computer implemented system for intra-application connectivity of distributed applications over a wide area network, comprising: a plurality of servers operating as a peer-to-peer server cluster wherein each server includes a tunnel gateway application (225, 540) and wherein each tunnel gateway application includes a plurality of Terminal Control Protocol, TCP, listeners; a distributed application wherein a separate instance of the distributed application is instantiated on each of the plurality of servers and each instantiation is communicatively coupled with the tunnel gateway application (225, 540) resident on that server through a direct layer-4 TCP network route wherein the direct layer-4 TCP network route includes a unique TCP connector/listener pair, whereby client application data is conveyed to the tunnel gateway application from the distributed application instantiation using a TCP transport suitable format and wherein each instantiation of the distributed application is communicatively coupled to each other instantiation of the distributed application via the tunnel gateway application (225, 540) using the unique TCP connector/listener pair through a loopback port assigned to the distributed application instance on each server; and a User Datagram Protocol, UDP, datagram-orientated communication channel between each tunnel gateway application whereby each instance of the distributed application can thereafter access the distributed application instance on each peer in the peer-to-peer server cluster. a plurality of servers operating as a peer-to-peer server cluster wherein each server includes a tunnel gateway application (225, 540) and wherein each tunnel gateway application includes a plurality of Terminal Control Protocol, TCP, listeners; a distributed application wherein a separate instance of the distributed application is instantiated on each of the plurality of servers and each instantiation is communicatively coupled with the tunnel gateway application (225, 540) resident on that server through a direct layer-4 TCP network route wherein the direct layer-4 TCP network route includes a unique TCP connector/listener pair, whereby client application data is conveyed to the tunnel gateway application from the distributed application instantiation using a TCP transport suitable format and wherein each instantiation of the distributed application is communicatively coupled to each other instantiation of the distributed application via the tunnel gateway application (225, 540) using the unique TCP connector/listener pair through a loopback port assigned to the distributed application instance on each server; and a User Datagram Protocol, UDP, datagram-orientated communication channel between each tunnel gateway application whereby each instance of the distributed application can thereafter access the distributed application instance on each peer in the peer-to-peer server cluster.
A method of reading from and writing to a plurality of spin-torque magnetoresistive memory cells, the method comprising: identifying a data storage state of each spin-torque magnetoresistive memory cell of the plurality of spin-torque magnetoresistive memory cells, wherein each spin-torque magnetoresistive memory cell is configured to store data in one of a first data storage state or a second data storage state; wherein identifying the data storage state of each spin-torque magnetoresistive memory cell includes performing a self-referenced read of the plurality of spin-torque magnetoresistive memory cells, and wherein the self-referenced read causes each spin-torque magnetoresistive memory cell to be selectively reset to a first state; storing the identified data storage state of each spin-torque magnetoresistive memory cell into a cache; characterized by determining, using an error correcting code, whether the identified data storage state of at least one spin-torque magnetoresistive memory cell of the plurality of spin-torque magnetoresistive memory cells includes an error; and storing data from the cache into the plurality of spin-torque magnetoresistive memory cells, wherein storing includes storing an inverted state of the data, if the identified data storage state of the at least one spin-torque magnetoresistive memory cell includes an error based on the determination using the error correcting code and if said error corresponds to a data state which is the same as the data state to be restored from the cache. identifying a data storage state of each spin-torque magnetoresistive memory cell of the plurality of spin-torque magnetoresistive memory cells, wherein each spin-torque magnetoresistive memory cell is configured to store data in one of a first data storage state or a second data storage state; wherein identifying the data storage state of each spin-torque magnetoresistive memory cell includes performing a self-referenced read of the plurality of spin-torque magnetoresistive memory cells, and wherein the self-referenced read causes each spin-torque magnetoresistive memory cell to be selectively reset to a first state; storing the identified data storage state of each spin-torque magnetoresistive memory cell into a cache; characterized by determining, using an error correcting code, whether the identified data storage state of at least one spin-torque magnetoresistive memory cell of the plurality of spin-torque magnetoresistive memory cells includes an error; and storing data from the cache into the plurality of spin-torque magnetoresistive memory cells, wherein storing includes storing an inverted state of the data, if the identified data storage state of the at least one spin-torque magnetoresistive memory cell includes an error based on the determination using the error correcting code and if said error corresponds to a data state which is the same as the data state to be restored from the cache.
A seal assembly for a gas turbine, the seal assembly comprising: a seal element secured by a retention assembly (310,320,340), the seal element comprising at least one leaf seal, the at least one leaf seal comprising a plurality of tabs in series with a plurality of slots; the retention assembly being attachable when in use to a transition piece and including a retaining member configured to be disposed around a portion of the transition piece, a spring seal attached to the etaining member and a retaining plate securing the seal element to the retaining member; wherein the seal assembly forms when in use a flexible seal between the transition piece and a first stage nozzle, the retaining plate is between the seal element and the first stage nozzle and the spring seal is configured to apply a compressive force to a portion of the retaining member and a portion of the transition piece so that leakage flow between the transition piece and the first stage nozzle is reduced. a seal element secured by a retention assembly (310,320,340), the seal element comprising at least one leaf seal, the at least one leaf seal comprising a plurality of tabs in series with a plurality of slots; the retention assembly being attachable when in use to a transition piece and including a retaining member configured to be disposed around a portion of the transition piece, a spring seal attached to the etaining member and a retaining plate securing the seal element to the retaining member; wherein the seal assembly forms when in use a flexible seal between the transition piece and a first stage nozzle, the retaining plate is between the seal element and the first stage nozzle and the spring seal is configured to apply a compressive force to a portion of the retaining member and a portion of the transition piece so that leakage flow between the transition piece and the first stage nozzle is reduced.
A computer implemented method comprising: identifying a thermal management setting in a computing system, wherein the thermal management setting includes one or more of a fan speed, a sensor threshold, a thermal offset, and a forced throttling state; comparing the identified thermal management setting to valid configuration information; and if the thermal management setting does not comply with the valid configuration information, modifying the thermal management setting, wherein modifying the thermal management setting causes the thermal management setting to comply with the valid configuration information, and initiating a threat risk notification via one or more of a system event log entry and a network alert, characterized in that the thermal management setting is identified in response to determining that a thermal throttling condition is present and the valid configuration information is part of a controller firmware image that is digitally signed and only modifiable by loading a different controller firmware image onto the computing system. identifying a thermal management setting in a computing system, wherein the thermal management setting includes one or more of a fan speed, a sensor threshold, a thermal offset, and a forced throttling state; comparing the identified thermal management setting to valid configuration information; and if the thermal management setting does not comply with the valid configuration information, modifying the thermal management setting, wherein modifying the thermal management setting causes the thermal management setting to comply with the valid configuration information, and initiating a threat risk notification via one or more of a system event log entry and a network alert, characterized in that the thermal management setting is identified in response to determining that a thermal throttling condition is present and the valid configuration information is part of a controller firmware image that is digitally signed and only modifiable by loading a different controller firmware image onto the computing system.
A method for preventing regulation failure of a fuel regulator during a non-motoring operating mode of an internal combustion engine when no fuel is introduced into a combustion chamber, said fuel regulator employing a first fuel to regulate pressure of a second fuel, said first fuel communicated to said fuel regulator through a first fuel circuit, the method comprising actuating a fuel injector that introduces said first fuel and said second fuel into a combustion chamber of said internal combustion engine during said non-motoring operating mode, said first fuel communicated to said fuel injector through said first fuel circuit, said fuel injector actuated with an injection command signal having a pulse width below a predetermined maximum value whereby no fuel is injected into said combustion chamber and said first fuel drains from said first fuel circuit through said fuel injector to a supply tank; characterized by monitoring said first fuel pressure and said second fuel pressure; and adjusting said pulse width as a function of said first fuel pressure and said second fuel pressure. actuating a fuel injector that introduces said first fuel and said second fuel into a combustion chamber of said internal combustion engine during said non-motoring operating mode, said first fuel communicated to said fuel injector through said first fuel circuit, said fuel injector actuated with an injection command signal having a pulse width below a predetermined maximum value whereby no fuel is injected into said combustion chamber and said first fuel drains from said first fuel circuit through said fuel injector to a supply tank; characterized by monitoring said first fuel pressure and said second fuel pressure; and adjusting said pulse width as a function of said first fuel pressure and said second fuel pressure.
An insulating resin composition comprising: an epoxy resin; an amine-based curing agent containing a first amine compound represented by Formula (A-1) and a second amine compound represented by Formula (A-2), wherein, in the amine-based curing agent, a ratio (M 2 /M 1) of a total number M 2 of -NHR 1 's to a total number M 1 of -NH 2 's is 0.05 to 0.30; and an inorganic filler having a thermal conductivity of 20 W/mK or higher, wherein a content of the inorganic filler is 30 to 80 volume%, wherein the content of components other than the epoxy resin, the amine-based curing agent and the inorganic filler is 2 mass% or less based on the total amount of the insulating resin composition, [in Formula (A-1), n 1 represents an integer of 0 to 4, and X 1 represents an alkanediyl group, an oxygen atom, or a sulfur atom; and when n 1 is 1 or more, plural X 1 's may be the same as or different from each other,] [in Formula (A-2), n 2 represents an integer of 0 to 4, X 2 represents an alkanediyl group, an oxygen atom, or a sulfur atom, and Y represents a group represented by -NH 2 or -NHR 1 (R 1 represents a group represented by Formula (Y-1)); plural Y's may be the same as or different from each other, provided that at least one of Y's is -NHR 1; and when n 2 is 1 or more, plural X 2 's may be the same as or different from each other, and] [in Formula (Y-1), R 2 represents an alkyl group]. an epoxy resin; an amine-based curing agent containing a first amine compound represented by Formula (A-1) and a second amine compound represented by Formula (A-2), wherein, in the amine-based curing agent, a ratio (M 2 /M 1) of a total number M 2 of -NHR 1 's to a total number M 1 of -NH 2 's is 0.05 to 0.30; and an inorganic filler having a thermal conductivity of 20 W/mK or higher, wherein a content of the inorganic filler is 30 to 80 volume%, wherein the content of components other than the epoxy resin, the amine-based curing agent and the inorganic filler is 2 mass% or less based on the total amount of the insulating resin composition, [in Formula (A-1), n 1 represents an integer of 0 to 4, and X 1 represents an alkanediyl group, an oxygen atom, or a sulfur atom; and when n 1 is 1 or more, plural X 1 's may be the same as or different from each other,] [in Formula (A-2), n 2 represents an integer of 0 to 4, X 2 represents an alkanediyl group, an oxygen atom, or a sulfur atom, and Y represents a group represented by -NH 2 or -NHR 1 (R 1 represents a group represented by Formula (Y-1)); plural Y's may be the same as or different from each other, provided that at least one of Y's is -NHR 1; and when n 2 is 1 or more, plural X 2 's may be the same as or different from each other, and] [in Formula (Y-1), R 2 represents an alkyl group].
A cleaning tool comprising: - a support structure; - a cleaning element connected to the support structure; - an impact protector connected laterally to the support structure; characterised in that said impact protector is at least partly spaced from said support structure to define a closed interspace between said impact protector and said support structure. - a support structure; - a cleaning element connected to the support structure; - an impact protector connected laterally to the support structure;
A fan-assisted face mask comprising: a mask body which is adapted to enclose a mask volume against the face of a wearer; a fan arrangement comprising at least one fan; and a controller adapted to control the at least one fan with a fan drive signal which causes the at least one fan to operate with a fan speed, wherein the controller is further adapted to: process a fan speed signal and compare the fan speed signal with reference data which relates to a no leakage condition, thereby to provide an indication of a level of leakage to or from the mask volume. a mask body which is adapted to enclose a mask volume against the face of a wearer; a fan arrangement comprising at least one fan; and a controller adapted to control the at least one fan with a fan drive signal which causes the at least one fan to operate with a fan speed, wherein the controller is further adapted to: process a fan speed signal and compare the fan speed signal with reference data which relates to a no leakage condition, thereby to provide an indication of a level of leakage to or from the mask volume.
A system for improving routing of a commodity through a network, comprising: a processor; a main memory in communication with the processor via a communication infrastructure characterised in that the main memory storing instructions that, when executed by the processor, cause the processor to: recognize two or more nodes (A, B, C, D) in the network; ascertain one or more links (54, 56) between the two or more nodes; compute a price value for each of the one or more links in the network using link-state information of the one or more links; receive request for routing at least one unit of the commodity from a source node to a destination node in the network; compute at each node during each iteration an optimal subsequent node for each commodity using the link-state information of the iteration; and repeat the compute step at each subsequent node until the destination node is reached, and accordingly, optimizing an entire pathway between the source node and the destination node by adapting the routing of each commodity at each node during each iteration. a processor; a main memory in communication with the processor via a communication infrastructure characterised in that the main memory storing instructions that, when executed by the processor, cause the processor to: recognize two or more nodes (A, B, C, D) in the network; ascertain one or more links (54, 56) between the two or more nodes; compute a price value for each of the one or more links in the network using link-state information of the one or more links; receive request for routing at least one unit of the commodity from a source node to a destination node in the network; compute at each node during each iteration an optimal subsequent node for each commodity using the link-state information of the iteration; and repeat the compute step at each subsequent node until the destination node is reached, and accordingly, optimizing an entire pathway between the source node and the destination node by adapting the routing of each commodity at each node during each iteration. recognize two or more nodes (A, B, C, D) in the network; ascertain one or more links (54, 56) between the two or more nodes; compute a price value for each of the one or more links in the network using link-state information of the one or more links; receive request for routing at least one unit of the commodity from a source node to a destination node in the network; compute at each node during each iteration an optimal subsequent node for each commodity using the link-state information of the iteration; and repeat the compute step at each subsequent node until the destination node is reached, and accordingly, optimizing an entire pathway between the source node and the destination node by adapting the routing of each commodity at each node during each iteration.
Cosmetic use of an effective amount of at least one oral agent for treating greasy scalp disorders, characterized in that said agent is a probiotic microorganism of the Lactobacillus paracasei species, or a lysate thereof.