mhurhangee/patent-ind-claim-en huggingface dataset:
Cooling device for an electrical machine , which cooling device is intended to be mounted in a mobile assembly, said cooling device comprising: - a casing for receiving said electrical machine , - a heat-transfer dielectric liquid reservoir having a bottom and two opposite ends , said reservoir being mounted directly below said casing , while said casing has at least one discharge hole for the heat-transfer dielectric liquid opening into said reservoir ; - means for circulating the heat-transfer dielectric liquid in order to suck the heat-transfer dielectric liquid in said bottom of said reservoir and to spray said heat-transfer dielectric liquid onto said electrical machine , while said heat-transfer dielectric liquid flows through said discharge hole ; said discharge hole opening at one of the two opposite ends of the reservoir ; characterized in that it further comprises a discharge conduit for the dielectric liquid extending into said reservoir , from said discharge hole toward the other of the two opposite ends of the reservoir . - a casing for receiving said electrical machine , - a heat-transfer dielectric liquid reservoir having a bottom and two opposite ends , said reservoir being mounted directly below said casing , while said casing has at least one discharge hole for the heat-transfer dielectric liquid opening into said reservoir ; - means for circulating the heat-transfer dielectric liquid in order to suck the heat-transfer dielectric liquid in said bottom of said reservoir and to spray said heat-transfer dielectric liquid onto said electrical machine , while said heat-transfer dielectric liquid flows through said discharge hole ; said discharge hole opening at one of the two opposite ends of the reservoir ;
Vehicle door handle assembly comprising : - a housing that sits flush against an outer panel of the vehicle, - a rotatable flap housed within said housing , said flap extending along and configured to rotate about a rotation axis (X-X) between a rest position and a door opening position, - a mechanical actuation switch generating an electrical signal to be sent to a vehicle door controller to release the vehicle door, wherein it also comprises a cam holder and a cam supported by the cam holder , said cam holder being connected to the flap such that the cam holder is rotatable about the rotation axis (X-X) and that rotation of the flap causes rotation of the cam holder , rotation of the cam holder causing the cam to activate said mechanical actuation switch . wherein the cam holder comprises a cam lever extending along a longitudinal direction, said lever comprising a first end hinged on the rotation axis (X-X) of the flap and a second end , opposite to the first, supporting the cam , wherein the rotatable flap is sensibly planar and is delimited, on the one hand, by two parallel rectilinear longitudinal sides extending along the rotation axis (X-X) and, on the hand, by two parallel rectilinear lateral sides extending along a direction that is sensibly perpendicular to the rotation axis (X-X), wherein the axis about which the cam holder is rotatable is a pin stemming from the first end of the cam lever configured to be inserted into a hole opened in the flap along the rotation axis (X-X), such that the cam lever is substantially parallel to a lateral side of the flap . - a housing that sits flush against an outer panel of the vehicle, - a rotatable flap housed within said housing , said flap extending along and configured to rotate about a rotation axis (X-X) between a rest position and a door opening position, - a mechanical actuation switch generating an electrical signal to be sent to a vehicle door controller to release the vehicle door, wherein it also comprises a cam holder and a cam supported by the cam holder , said cam holder being connected to the flap such that the cam holder is rotatable about the rotation axis (X-X) and that rotation of the flap causes rotation of the cam holder , rotation of the cam holder causing the cam to activate said mechanical actuation switch . wherein the cam holder comprises a cam lever extending along a longitudinal direction, said lever comprising a first end hinged on the rotation axis (X-X) of the flap and a second end , opposite to the first, supporting the cam , wherein the rotatable flap is sensibly planar and is delimited, on the one hand, by two parallel rectilinear longitudinal sides extending along the rotation axis (X-X) and, on the hand, by two parallel rectilinear lateral sides extending along a direction that is sensibly perpendicular to the rotation axis (X-X), wherein the axis about which the cam holder is rotatable is a pin stemming from the first end of the cam lever configured to be inserted into a hole opened in the flap along the rotation axis (X-X), such that the cam lever is substantially parallel to a lateral side of the flap .
A hybrid electric system for a rotorcraft, comprising: a first thermal engine ; a second thermal engine ; and an electrical machine , wherein the first thermal engine is sized to produce a maximum first thermal engine power that is below a one-or-more-engine-inoperative (OEI) requirement power, the second thermal engine is sized to produce a maximum second thermal engine power that is below the OEI requirement power, and the electrical machine is sized to provide at least a remaining power needed to reach the OEI requirement power in an OEI state, characterised in that the hybrid electric system further comprises: one or more control modules operatively connected to the first thermal engine , the second thermal engine , and the electrical machine to control power output therefrom, wherein: in a normal take-off mode, the one or more control modules are configured to cause output power only from the first thermal engine and the second thermal engine ; and in a performance take-off mode, the one or more control modules are configured to additionally cause output power from the electrical machine . a first thermal engine ; a second thermal engine ; and an electrical machine , wherein the first thermal engine is sized to produce a maximum first thermal engine power that is below a one-or-more-engine-inoperative (OEI) requirement power, the second thermal engine is sized to produce a maximum second thermal engine power that is below the OEI requirement power, and the electrical machine is sized to provide at least a remaining power needed to reach the OEI requirement power in an OEI state, characterised in that the hybrid electric system further comprises: one or more control modules operatively connected to the first thermal engine , the second thermal engine , and the electrical machine to control power output therefrom, wherein: in a normal take-off mode, the one or more control modules are configured to cause output power only from the first thermal engine and the second thermal engine ; and in a performance take-off mode, the one or more control modules are configured to additionally cause output power from the electrical machine . in a normal take-off mode, the one or more control modules are configured to cause output power only from the first thermal engine and the second thermal engine ; and in a performance take-off mode, the one or more control modules are configured to additionally cause output power from the electrical machine .
A method of managing virtual nodes (120-124) in a computing environment comprising a plurality of hosts (110-112), the method comprising: identifying a transition event for a first version of a virtual node (120-124) executing on a first host (110-112) of the plurality of hosts (110-112), wherein the first version of the virtual node (120-124) comprises non-persistent storage on the first host (110-112) and a persistent storage portion on a remote second storage element (160; 441); in response to the transition event, identifying a second host (110-112) in the plurality of hosts (110-112) for a second version of the virtual node (120-124); deploying an image of the non-persistent storage to the second host; and initiating execution of the second version of the virtual node (120-124) on the second host (110-112), wherein the second version of the virtual node (120-124) comprises non-persistent storage on the second host (110-112) and the same persistent storage portion on the second storage element, wherein the image includes addressing data directing the second host to either obtain data from the non-persistent storage on the second host (420; 850) or from the remote second storage element (422; 851), and wherein the remote second storage element is accessible by multiple hosts of the computing environment. identifying a transition event for a first version of a virtual node (120-124) executing on a first host (110-112) of the plurality of hosts (110-112), wherein the first version of the virtual node (120-124) comprises non-persistent storage on the first host (110-112) and a persistent storage portion on a remote second storage element (160; 441); in response to the transition event, identifying a second host (110-112) in the plurality of hosts (110-112) for a second version of the virtual node (120-124); deploying an image of the non-persistent storage to the second host; and initiating execution of the second version of the virtual node (120-124) on the second host (110-112), wherein the second version of the virtual node (120-124) comprises non-persistent storage on the second host (110-112) and the same persistent storage portion on the second storage element, wherein the image includes addressing data directing the second host to either obtain data from the non-persistent storage on the second host (420; 850) or from the remote second storage element (422; 851), and wherein the remote second storage element is accessible by multiple hosts of the computing environment.
An article formed from a thermoplastic elastomer compound, the compound comprising: (a) styrenic block copolymer having a Copolymer Tan Delta Peak Temperature; and (b) tackifier having a softening point of at least 80 °C according to ASTM 6493; wherein the compound has a Compound Tan Delta Peak Temperature, and the Compound Tan Delta Peak Temperature is greater than the Copolymer Tan Delta Peak Temperature; and wherein the article has a compression set of less than 50 % at 70 °C for 22 hours according to ASTM D395. (a) styrenic block copolymer having a Copolymer Tan Delta Peak Temperature; and (b) tackifier having a softening point of at least 80 °C according to ASTM 6493;
Support frame for a pump station for holding vacuum pumps for a coating device of containers by means of a coating process comprising a rack, - on which support struts are formed, on which at least two support devices are arranged by means of detachable connections, on each of which a vacuum pump can be attached in a detachable manner, and - comprising feet extending downwards from the lowest support struts , thereby comprising detachable fastening devices for connecting to a main support frame of the coating device; wherein the support devices have a rectangular cross-section slightly larger than the cross-section of a fork of a pallet truck or a forklift truck and which are sufficiently spaced apart in the horizontal direction in such a way that the forks of a pallet truck or a fork of a forklift truck can be retracted into them with little play, characterized in that at least one vacuum pump is arranged on the support devices in a detachable manner. - on which support struts are formed, on which at least two support devices are arranged by means of detachable connections, on each of which a vacuum pump can be attached in a detachable manner, and - comprising feet extending downwards from the lowest support struts , thereby comprising detachable fastening devices for connecting to a main support frame of the coating device; wherein the support devices have a rectangular cross-section slightly larger than the cross-section of a fork of a pallet truck or a forklift truck and which are sufficiently spaced apart in the horizontal direction in such a way that the forks of a pallet truck or a fork of a forklift truck can be retracted into them with little play, characterized in that at least one vacuum pump is arranged on the support devices in a detachable manner.
A method performed by a network node (BS-n) for carrier selection from a set of unlicensed candidate carriers for a telecommunications system, the telecommunications system comprising at least two network nodes (BS-1, BS-2), the method comprising: receiving estimated numbers of devices per candidate carrier from each of the at least two network nodes, wherein the estimated numbers of devices per candidate carrier are obtained from the at the least two network nodes respectively; ranking the candidate carriers based on a consensus, overall estimate of the estimated numbers of devices per candidate carrier; receiving a predicted traffic load from at least one of the network nodes in the telecommunications system; and assigning a carrier to the at least one network node based on the ranking of the candidate carriers and on the predicted traffic load, wherein each of the candidate carriers is an unlicensed candidate carrier, and wherein the telecommunications system is a Licensed Assisted Access, LAA, telecommunications system, and wherein the at least two network nodes are at least two LAA network nodes. receiving estimated numbers of devices per candidate carrier from each of the at least two network nodes, wherein the estimated numbers of devices per candidate carrier are obtained from the at the least two network nodes respectively; ranking the candidate carriers based on a consensus, overall estimate of the estimated numbers of devices per candidate carrier; receiving a predicted traffic load from at least one of the network nodes in the telecommunications system; and assigning a carrier to the at least one network node based on the ranking of the candidate carriers and on the predicted traffic load, wherein each of the candidate carriers is an unlicensed candidate carrier, and wherein the telecommunications system is a Licensed Assisted Access, LAA, telecommunications system, and wherein the at least two network nodes are at least two LAA network nodes.
A resin additive composition comprising two or more selected from aromatic metal phosphates (H) represented by the following Formula or in an amount of 0.001 to 50 parts by mass with respect to 100 parts by mass of a polymer compound (E), wherein said polymer compound (E) has a structure in which a diol, an aliphatic dicarboxylic acid, an aromatic dicarboxylic acid, a compound (B) which comprises at least one group represented by the following Formula and has hydroxyl groups at both ends, and an epoxy compound (D) having two or more epoxy groups are bound via ester bonds: (wherein, R 1 to R 4 each independently represent a hydrogen atom or a linear or branched alkyl group having 1 to 9 carbon atoms; R 5 represents an alkylidene group having 1 to 4 carbon atoms; and M 2 represents an alkali metal) (wherein, R 1 to R 4 each independently represent a hydrogen atom or a linear or branched alkyl group having 1 to 9 carbon atoms; and R 5 represents an alkylidene group having 1 to 4 carbon atoms).
A communication connection method, applied to a vehicle-mounted device, wherein the method comprises: detecting (S301) a wireless signal sent by at least one terminal (A, B, C, D) in a vehicle ; determining (S302) position information of the at least one terminal (A, B, C, D) relative to the vehicle-mounted device based on the wireless signal; and determining (S303) a driver terminal (D) in the at least one terminal based on the position information of the at least one terminal relative to the vehicle-mounted device, wherein the determining (S303) a driver terminal (D) in the at least one terminal (A, B, C, D) based on the position information of the at least one terminal relative to the vehicle-mounted device comprises: determining, based on the position information of the at least one terminal (A, B, C, D ) relative to the vehicle-mounted device, whether the terminal is in a driver position area, wherein the terminal is determined to be in a driver position area when it is determined that it has moved from the driver's side front door to the driver position; and if the terminal is determined to be in the driver position area, determining the terminal as the driver terminal (D), and establishing a communication connection to the determined driver terminal (D). detecting (S301) a wireless signal sent by at least one terminal (A, B, C, D) in a vehicle ; determining (S302) position information of the at least one terminal (A, B, C, D) relative to the vehicle-mounted device based on the wireless signal; and determining (S303) a driver terminal (D) in the at least one terminal based on the position information of the at least one terminal relative to the vehicle-mounted device, wherein the determining (S303) a driver terminal (D) in the at least one terminal (A, B, C, D) based on the position information of the at least one terminal relative to the vehicle-mounted device comprises: determining, based on the position information of the at least one terminal (A, B, C, D ) relative to the vehicle-mounted device, whether the terminal is in a driver position area, wherein the terminal is determined to be in a driver position area when it is determined that it has moved from the driver's side front door to the driver position; and if the terminal is determined to be in the driver position area, determining the terminal as the driver terminal (D), and determining, based on the position information of the at least one terminal (A, B, C, D ) relative to the vehicle-mounted device, whether the terminal is in a driver position area, wherein the terminal is determined to be in a driver position area when it is determined that it has moved from the driver's side front door to the driver position; and if the terminal is determined to be in the driver position area, determining the terminal as the driver terminal (D), and establishing a communication connection to the determined driver terminal (D).
A battery anode electrode comprising: one or more silicon-comprising nanostructures grown on and attached to a carbon-based powder comprising graphite particles of 5 μm to 50 μm in size, wherein the nanostructures are nanowires having a core-shell structure, and wherein the nanowires have a diameter of 20 nm to 200 nm and a length of 0.1 μm to 50 μm, and wherein the nanowires comprise Li inserted in the nanowires, a carbon-based material, and a conductive polymer that is disposed on the nanostructures, wherein the electrode comprises 1 weight % to 80 weight % of the nanostructures disposed on the carbon-based powder. one or more silicon-comprising nanostructures grown on and attached to a carbon-based powder comprising graphite particles of 5 μm to 50 μm in size, wherein the nanostructures are nanowires having a core-shell structure, and wherein the nanowires have a diameter of 20 nm to 200 nm and a length of 0.1 μm to 50 μm, and wherein the nanowires comprise Li inserted in the nanowires, a carbon-based material, and a conductive polymer that is disposed on the nanostructures,
A method, comprising: generating a transmission control protocol, TCP, flow; marking a plurality of packets of the TCP flow with one of two differentiated services code points, DSCPs, according to a proportion that is selected to control a throughput associated with the TCP flow; and communicating at least a portion of the plurality of packets to a network; wherein the marking comprises: when it is determined that a round-trip time, RTT, value for the TCP flow is less than or equal to a threshold value, marking all of the plurality of packets with a first DSCP of the two DSCPs, and when it is determined that the RTT value for the TCP flow is greater than the threshold value, marking only a fraction of the plurality of packets with the first DSCP of the two DSCPs, and marking the rest of the plurality of packets with a second DSCP of the two DSCPs; wherein the first DSCP reflects a HiDrop priority and the second DSCP reflects a LoDrop priority within a Diffserv priority, whereby packets marked with the first DSCP have a higher probability of being dropped than packets marked with the second DSCP. generating a transmission control protocol, TCP, flow; marking a plurality of packets of the TCP flow with one of two differentiated services code points, DSCPs, according to a proportion that is selected to control a throughput associated with the TCP flow; and communicating at least a portion of the plurality of packets to a network; wherein the marking comprises: when it is determined that a round-trip time, RTT, value for the TCP flow is less than or equal to a threshold value, marking all of the plurality of packets with a first DSCP of the two DSCPs, and when it is determined that the RTT value for the TCP flow is greater than the threshold value, marking only a fraction of the plurality of packets with the first DSCP of the two DSCPs, and marking the rest of the plurality of packets with a second DSCP of the two DSCPs; wherein the first DSCP reflects a HiDrop priority and the second DSCP reflects a LoDrop priority within a Diffserv priority, whereby packets marked with the first DSCP have a higher probability of being dropped than packets marked with the second DSCP. when it is determined that a round-trip time, RTT, value for the TCP flow is less than or equal to a threshold value, marking all of the plurality of packets with a first DSCP of the two DSCPs, and when it is determined that the RTT value for the TCP flow is greater than the threshold value, marking only a fraction of the plurality of packets with the first DSCP of the two DSCPs, and marking the rest of the plurality of packets with a second DSCP of the two DSCPs; wherein the first DSCP reflects a HiDrop priority and the second DSCP reflects a LoDrop priority within a Diffserv priority, whereby packets marked with the first DSCP have a higher probability of being dropped than packets marked with the second DSCP.
A method performed by a target user equipment, UE, comprising: • transmitting , using device-to-device, D2D, communication, a request message inviting at least one other UE to be part of a D2D group with the target UE; and • receiving a confirmation message from a base station of a network, the confirmation message indicating that a neighbour UE is in the D2D group with the target UE, characterized in that the confirmation message includes a D2D group ID assigned by the network to the D2D group, and the confirmation message is addressed to the D2D group in response to a report message to the base station indicating that the neighbour UE will be part of the D2D group with the target UE. • transmitting , using device-to-device, D2D, communication, a request message inviting at least one other UE to be part of a D2D group with the target UE; and • receiving a confirmation message from a base station of a network, the confirmation message indicating that a neighbour UE is in the D2D group with the target UE,