mhurhangee/patent-ind-claim-en huggingface dataset:
A radio communication terminal comprising: a receiving section configured to receive a control information, including an ACK/NACK index, using a physical resource block, PRB, set that forms an enhanced physical downlink control channel, E-PDCCH, the PRB set including one or more PRBs; a control section configured to monitor a PRB set out of defined PRB sets and to determine an ACK/NACK resource to be used for an ACK/NACK signal acknowledging downlink data based on both the monitored PRB set and the ACK/NACK index included in the E-PDCCH of the monitored PRB set, the ACK/NACK index indicating the ACK/NACK resource from among ACK/NACK resource candidates sets which are configured for each of the defined PRB set by radio resource control, RRC; wherein based on the configuration information of the E-PDCCH used for transmission or reception of the E-PDCCH and on the ACK/NACK index, the control section determines the ACK/NACK resource from among the ACK/NACK resource candidates, and determines a virtual cell ID to be used to generate a base sequence of a physical uplink control channel, PUCCH, for transmitting the ACK/NACK signal, a hopping pattern or cyclic shift, CS, hopping pattern, from among specified virtual cell IDs; and a transmitting section transmits the ACK/NACK signal using the selected ACK/NACK resource and the selected virtual cell ID. a receiving section configured to receive a control information, including an ACK/NACK index, using a physical resource block, PRB, set that forms an enhanced physical downlink control channel, E-PDCCH, the PRB set including one or more PRBs; a control section configured to monitor a PRB set out of defined PRB sets and to determine an ACK/NACK resource to be used for an ACK/NACK signal acknowledging downlink data based on both the monitored PRB set and the ACK/NACK index included in the E-PDCCH of the monitored PRB set, the ACK/NACK index indicating the ACK/NACK resource from among ACK/NACK resource candidates sets which are configured for each of the defined PRB set by radio resource control, RRC; wherein based on the configuration information of the E-PDCCH used for transmission or reception of the E-PDCCH and on the ACK/NACK index, the control section determines the ACK/NACK resource from among the ACK/NACK resource candidates, and determines a virtual cell ID to be used to generate a base sequence of a physical uplink control channel, PUCCH, for transmitting the ACK/NACK signal, a hopping pattern or cyclic shift, CS, hopping pattern, from among specified virtual cell IDs; and a transmitting section transmits the ACK/NACK signal using the selected ACK/NACK resource and the selected virtual cell ID.
An input module for an industrial controller, comprising: a plurality of input terminals configured to receive an input signal from a remote device ; a memory device configured to store a series of instructions and a plurality of configuration parameters, wherein the configuration parameters define a pattern of input signals; a processor configured to execute the series of instructions to: read the pattern from the memory device, and generate an event signal if the input signals match the pattern; a first interface configured to transmit a state of each input terminal to a central processor of the industrial controller; and a second interface configured to transmit the state of at least one input signal to an output module of the industrial controller, wherein the second interface is adapted to interface directly with the output module. a plurality of input terminals configured to receive an input signal from a remote device ; a memory device configured to store a series of instructions and a plurality of configuration parameters, wherein the configuration parameters define a pattern of input signals; a processor configured to execute the series of instructions to: read the pattern from the memory device, and generate an event signal if the input signals match the pattern; read the pattern from the memory device, and generate an event signal if the input signals match the pattern; a first interface configured to transmit a state of each input terminal to a central processor of the industrial controller; and a second interface configured to transmit the state of at least one input signal to an output module of the industrial controller, wherein the second interface is adapted to interface directly with the output module.
A purge flow delivery system for turbine wheel space cooling comprising: a mixing chamber comprising a first sidewall , a second sidewall , and a cover plate ; a first inlet tube positioned about the first sidewall , the first inlet tube configured to deliver a first fluid to the mixing chamber ; a second inlet tube positioned about the second sidewall , the second inlet tube configured to deliver a second fluid to the mixing chamber ; a baffle plate attached to the cover plate and positioned to direct the first fluid at a first angle and the second fluid at a second angle; and characterized in that the purge flow delivery system is configured to be positioned at a wheel space of a rotor . a mixing chamber comprising a first sidewall , a second sidewall , and a cover plate ; a first inlet tube positioned about the first sidewall , the first inlet tube configured to deliver a first fluid to the mixing chamber ; a second inlet tube positioned about the second sidewall , the second inlet tube configured to deliver a second fluid to the mixing chamber ; a baffle plate attached to the cover plate and positioned to direct the first fluid at a first angle and the second fluid at a second angle; and characterized in that the purge flow delivery system is configured to be positioned at a wheel space of a rotor .
An antenna system for a mobile device , comprising: a first trough antenna element formed by: a first planar conductive member ; a second conductive member spaced apart from the first planar conductive member ; and a back wall member disposed between the first planar conductive member and the second conductive member ; and a first slot antenna formed in the first planar conductive member and the second conductive member adjacent to the first trough antenna element ; wherein the first slot antenna is defined by a first boundary edge member , a second boundary edge member and a rear boundary edge member , and wherein the first boundary edge member of the first slot antenna is coincident with an edge of the first trough antenna element and the second boundary edge member of the first slot antenna is coincident with an edge of a second trough antenna element , wherein the second trough antenna element is formed between the first slot antenna and a second slot antenna adjacent to the second trough antenna element ; and wherein a shape of the first slot antenna is tapered inward from the rear boundary edge member towards a front outer edge of the first trough antenna element and a width of the first trough antenna element is narrowed from the back wall member towards the front outer edge of the first trough antenna element . a first trough antenna element formed by: a first planar conductive member ; a second conductive member spaced apart from the first planar conductive member ; and a back wall member disposed between the first planar conductive member and the second conductive member ; and a first planar conductive member ; a second conductive member spaced apart from the first planar conductive member ; and a back wall member disposed between the first planar conductive member and the second conductive member ; and a first slot antenna formed in the first planar conductive member and the second conductive member adjacent to the first trough antenna element ; wherein the first slot antenna is defined by a first boundary edge member , a second boundary edge member and a rear boundary edge member , and wherein the first boundary edge member of the first slot antenna is coincident with an edge of the first trough antenna element and the second boundary edge member of the first slot antenna is coincident with an edge of a second trough antenna element , wherein the second trough antenna element is formed between the first slot antenna and a second slot antenna adjacent to the second trough antenna element ; and wherein a shape of the first slot antenna is tapered inward from the rear boundary edge member towards a front outer edge of the first trough antenna element and a width of the first trough antenna element is narrowed from the back wall member towards the front outer edge of the first trough antenna element .
A method, performed by a user equipment, UE, to monitor for wake-up signals, WUS, transmitted by a network node in a radio access network, RAN, the method comprising: determining a second WUS resource for use during a first monitoring occasion associated with a WUS group assigned to the UE, based on the following: an identifier of a first WUS resource, wherein the first and second WUS resources are part of a first number of configured WUS resources for transmission of WUS; the first number of configured WUS resources; and a system frame number, SFN, or hyper-SFN, HSFN, associated with the RAN; and monitoring for a WUS, from the network node, in the second WUS resource during the first monitoring occasion. determining a second WUS resource for use during a first monitoring occasion associated with a WUS group assigned to the UE, based on the following: an identifier of a first WUS resource, wherein the first and second WUS resources are part of a first number of configured WUS resources for transmission of WUS; the first number of configured WUS resources; and a system frame number, SFN, or hyper-SFN, HSFN, associated with the RAN; and an identifier of a first WUS resource, wherein the first and second WUS resources are part of a first number of configured WUS resources for transmission of WUS; the first number of configured WUS resources; and a system frame number, SFN, or hyper-SFN, HSFN, associated with the RAN; and monitoring for a WUS, from the network node, in the second WUS resource during the first monitoring occasion.
A harvester, suitable for automatically coupling and uncoupling a harvesting header drivetrain, comprising: - a feederhouse mounted to a harvester main frame ; - a tilt frame mounted to a front side of the feederhouse to permit movement of the tilt frame relative to the feederhouse when in operation; - a header being releasably mounted to the tilt frame; - a drivetrain comprising a harvester driveline supported for rotation at an inboard end on the feederhouse and at an outboard end on the tilt frame when the header is detached from the tilt frame, and a header driveshaft driven by the harvester driveline and supplying power to the header, the header driveshaft being mounted for rotation on the header; Characterised in that : - the outboard end of the harvester driveline is supported on the tilt frame by a sliding support assembly which comprises a bearing housing which is slideably mounted to the tilt frame to permit linear movement of the bearing housing with respect to the tilt frame in a direction generally parallel to the axis (x) of the header driveshaft, the bearing housing holding a first bearing which supports said outboard end in rotation; - the header driveshaft and the outboard end of the harvester driveline each comprise a respective coupling which mutually engage when brought together; - the harvester driveline comprises a telescopic driveshaft and a pair of universal joints; and, - there is provided an actuator arranged to move the bearing housing with respect to the tilt frame to selectively engage and disengage the couplings. - a feederhouse mounted to a harvester main frame ; - a tilt frame mounted to a front side of the feederhouse to permit movement of the tilt frame relative to the feederhouse when in operation; - a header being releasably mounted to the tilt frame; - a drivetrain comprising a harvester driveline supported for rotation at an inboard end on the feederhouse and at an outboard end on the tilt frame when the header is detached from the tilt frame, and a header driveshaft driven by the harvester driveline and supplying power to the header, the header driveshaft being mounted for rotation on the header; - the outboard end of the harvester driveline is supported on the tilt frame by a sliding support assembly which comprises a bearing housing which is slideably mounted to the tilt frame to permit linear movement of the bearing housing with respect to the tilt frame in a direction generally parallel to the axis (x) of the header driveshaft, the bearing housing holding a first bearing which supports said outboard end in rotation; - the header driveshaft and the outboard end of the harvester driveline each comprise a respective coupling which mutually engage when brought together; - the harvester driveline comprises a telescopic driveshaft and a pair of universal joints; and, - there is provided an actuator arranged to move the bearing housing with respect to the tilt frame to selectively engage and disengage the couplings.
A thermally conductive silicone composition comprising: (A) 100 parts by mass of an organopolysiloxane having at least two alkenyl groups per each molecule; (B) an organohydrogenpolysiloxane having, per each molecule, at least two hydrogen atoms directly bonded to silicon atoms, the component (B) being in an amount where the number of the hydrogen atoms directly bonded to the silicon atoms is 0.2 to 2.0 times larger than the number of the alkenyl groups in the component (A); (C) 2,500 to 5,000 parts by mass of a thermally conductive filler containing magnesium oxide, aluminum oxide and aluminum hydroxide; (D) 100 to 300 parts by mass of a surface treatment agent of the thermally conductive filler, which is a dimethylpolysiloxane with one end of the molecular chain thereof being blocked by a trialkoxy group, as represented by the following general formula : wherein R 5 independently represents an alkyl group having 1 to 6 carbon atoms, and c is an integer of 5 to 100; (E) a platinum group metal-based curing catalyst in an amount of 0.1 to 1,000 ppm in terms of mass of platinum group metal elements with respect to the component (A); and (F) an effective amount of an addition reaction control agent, wherein the thermally conductive filler as the component (C) is such that the magnesium oxide is contained by an amount of 20 to 40% by mass per the total amount of the component (C), the aluminum oxide is contained by an amount of 40 to 60% by mass per the total amount of the component (C), and the aluminum hydroxide is contained by an amount of 10 to 30% by mass per the total amount of the component (C). (A) 100 parts by mass of an organopolysiloxane having at least two alkenyl groups per each molecule; (B) an organohydrogenpolysiloxane having, per each molecule, at least two hydrogen atoms directly bonded to silicon atoms, the component (B) being in an amount where the number of the hydrogen atoms directly bonded to the silicon atoms is 0.2 to 2.0 times larger than the number of the alkenyl groups in the component (A); (C) 2,500 to 5,000 parts by mass of a thermally conductive filler containing magnesium oxide, aluminum oxide and aluminum hydroxide; (D) 100 to 300 parts by mass of a surface treatment agent of the thermally conductive filler, which is a dimethylpolysiloxane with one end of the molecular chain thereof being blocked by a trialkoxy group, as represented by the following general formula : wherein R 5 independently represents an alkyl group having 1 to 6 carbon atoms, and c is an integer of 5 to 100; (E) a platinum group metal-based curing catalyst in an amount of 0.1 to 1,000 ppm in terms of mass of platinum group metal elements with respect to the component (A); and (F) an effective amount of an addition reaction control agent,
A mounting bracket for a door actuator , namely a door closer or door drive, comprising • at least one first mounting element and a second mounting element , wherein one of the two mounting elements is designed for fastening to a mounting surface , in particular a door, frame or wall, and the other mounting element is designed for receiving the door actuator , • at least one connecting arrangement which holds the two mounting elements together in a holding position and does not hold the two mounting elements together in a release position, • and at least one shape memory arrangement with at least one shape memory element made of shape memory material, wherein the shape memory arrangement moves the connecting arrangement into the release position upon thermal activation. • at least one first mounting element and a second mounting element , wherein one of the two mounting elements is designed for fastening to a mounting surface , in particular a door, frame or wall, and the other mounting element is designed for receiving the door actuator , • at least one connecting arrangement which holds the two mounting elements together in a holding position and does not hold the two mounting elements together in a release position, • and at least one shape memory arrangement with at least one shape memory element made of shape memory material, wherein the shape memory arrangement moves the connecting arrangement into the release position upon thermal activation.
Angle grinder having at least one electromotive direct drive acting on an output shaft , in particular an electronically commutated motor , which is intended to drive a tool spindle , having at least one first housing that consists of at least one first housing half shell and comprises at least one first housing part , which accommodates the electromotive direct drive , and a second housing part , which serves as a handle , and having a rechargeable battery serving as energy source, characterized in that a ratio of a length 1 of the angle grinder to a height h of the first housing part is between 1.5 and 2.8, but in particular 2.25, wherein the length 1 of the angle grinder is defined inclusive of a length 11 of the rechargeable battery , wherein the electromotive direct drive forms with the first housing part a first common axis , wherein the rechargeable battery forms with the second housing part a second common axis , wherein the two axes are at an angle a to one another of between 60° and 120°, particularly between 80° and 100°, but preferably approximately 90°.
A method, performed on a server , of translating between languages, the method comprising: receiving first audio data for a first language from a mobile device ; translating the first audio data to produce second audio data for a second language ; wherein translating comprises: generating first text in the first language based on the first audio data ; translating the first text to second text in the second language ; and generating the second audio data from the second text; receiving an indication that the mobile device has moved between two locations; and sending the second audio data to the mobile device in response to the indication. receiving first audio data for a first language from a mobile device ; translating the first audio data to produce second audio data for a second language ; wherein translating comprises: generating first text in the first language based on the first audio data ; translating the first text to second text in the second language ; and generating the second audio data from the second text; receiving an indication that the mobile device has moved between two locations; and sending the second audio data to the mobile device in response to the indication. generating first text in the first language based on the first audio data ; translating the first text to second text in the second language ; and generating the second audio data from the second text; receiving an indication that the mobile device has moved between two locations; and sending the second audio data to the mobile device in response to the indication.
A method comprising: obtaining a packet on a first Intercloud Fabric Switch, ICS, that is part of an Intercloud Fabric, ICF, the first ICS being part of an cluster which includes a plurality of ICSes, wherein the first ICS is included in a first public cloud; determining whether the packet is obtained from a site-to-site link, wherein the site-to-site link allows the first ICS to communicate with an enterprise datacenter; if it is determined that the packet is obtained from the site-to-site link, determining, by comparing a packet destination address to an address table, whether the packet is an unknown unicast packet, wherein if the address table does not contain the packet destination address the packet is determined as being an unknown unicast packet; if it is determined that the packet is an unknown unicast packet, dropping the packet; if it is determined that the packet is not an unknown unicast packet, providing the packet to at least one access link, the at least one access link being arranged to allow the first ICS to communicate with at least one virtual machine; if it is determined that the packet is not obtained from the site-to-site link, determining whether the packet is obtained from an inter-ICS link, wherein the inter-ICS link is arranged to allow the first ICS to communicate with the ICS cluster; and if it is determined that the packet is obtained from the inter-ICS link, determining whether the packet is an unknown unicast packet and dropping the packet if it is determined that the packet is the unknown unicast packet. obtaining a packet on a first Intercloud Fabric Switch, ICS, that is part of an Intercloud Fabric, ICF, the first ICS being part of an cluster which includes a plurality of ICSes, wherein the first ICS is included in a first public cloud; determining whether the packet is obtained from a site-to-site link, wherein the site-to-site link allows the first ICS to communicate with an enterprise datacenter; if it is determined that the packet is obtained from the site-to-site link, determining, by comparing a packet destination address to an address table, whether the packet is an unknown unicast packet, wherein if the address table does not contain the packet destination address the packet is determined as being an unknown unicast packet; if it is determined that the packet is an unknown unicast packet, dropping the packet; if it is determined that the packet is not an unknown unicast packet, providing the packet to at least one access link, the at least one access link being arranged to allow the first ICS to communicate with at least one virtual machine; if it is determined that the packet is not obtained from the site-to-site link, determining whether the packet is obtained from an inter-ICS link, wherein the inter-ICS link is arranged to allow the first ICS to communicate with the ICS cluster; and if it is determined that the packet is obtained from the inter-ICS link, determining whether the packet is an unknown unicast packet and dropping the packet if it is determined that the packet is the unknown unicast packet.