mhurhangee/ep-ind-claims huggingface dataset:
A brush seal (48a-48a"";48b) comprising: a top plate; a back plate; a bristle pack secured at a joint between the top plate and the back plate, the bristle pack comprising: a first bristle set extending from the joint; and a second bristle set extending from the joint characterised by a sliding backing plate (64;64';64") comprising: a sliding portion disposed between the back plate and the second bristle set; and a support portion having an inner face and a support face, the inner face contacting a distal end of the second bristle set, and the support face disposed below and configured to support at least a portion of the first bristle set; wherein the sliding backing plate (64;64';64") is configured to slide relative to the back plate. a top plate; a back plate; a bristle pack secured at a joint between the top plate and the back plate, the bristle pack comprising: a first bristle set extending from the joint; and a second bristle set extending from the joint characterised by a first bristle set extending from the joint; and a second bristle set extending from the joint characterised by a sliding backing plate (64;64';64") comprising: a sliding portion disposed between the back plate and the second bristle set; and a support portion having an inner face and a support face, the inner face contacting a distal end of the second bristle set, and the support face disposed below and configured to support at least a portion of the first bristle set; a sliding portion disposed between the back plate and the second bristle set; and a support portion having an inner face and a support face, the inner face contacting a distal end of the second bristle set, and the support face disposed below and configured to support at least a portion of the first bristle set; wherein the sliding backing plate (64;64';64") is configured to slide relative to the back plate.
A launch canister for ejection from a submerged launch platform, the launch canister being adapted for ejection in a direction substantially along a first axis of the launch canister and comprising: an enclosure for carrying a unmanned aerial vehicle, UAV; a nose cap releasably located in a launch opening of the enclosure; a launch mechanism for driving a UAV carried in the enclosure out of the enclosure through the launch opening in a direction substantially along said first axis; and characterized by comprising: a water surface sensor for detecting when the nose cap broaches the surface of the water; wherein the launch canister is configured to, on the water surface sensor detecting that the nose cap has broached the surface of the water, immediately release the nose cap and initiate the launch mechanism to drive a UAV carried in the enclosure out of the enclosure through the launch opening; wherein the launch canister further comprises a lanyard attached at one end in the enclosure and having its other end adapted for detachable connection to a UAV, wherein the length of the lanyard is selected such that, when a UAV connected to the lanyard is driven from the launch canister, the lanyard pulls taut and detaches from the UAV as the engine of the UAV passes through the launch opening; and wherein said other end of the lanyard is adapted to cause an engine of the UAV to power up on pulling taut and detaching from the UAV. an enclosure for carrying a unmanned aerial vehicle, UAV; a nose cap releasably located in a launch opening of the enclosure; a launch mechanism for driving a UAV carried in the enclosure out of the enclosure through the launch opening in a direction substantially along said first axis; and a water surface sensor for detecting when the nose cap broaches the surface of the water; wherein the launch canister is configured to, on the water surface sensor detecting that the nose cap has broached the surface of the water, immediately release the nose cap and initiate the launch mechanism to drive a UAV carried in the enclosure out of the enclosure through the launch opening; wherein the launch canister further comprises a lanyard attached at one end in the enclosure and having its other end adapted for detachable connection to a UAV, wherein the length of the lanyard is selected such that, when a UAV connected to the lanyard is driven from the launch canister, the lanyard pulls taut and detaches from the UAV as the engine of the UAV passes through the launch opening; and wherein said other end of the lanyard is adapted to cause an engine of the UAV to power up on pulling taut and detaching from the UAV.
An apparatus for obtaining ion energy distribution, IED, measurements in a plasma processing system comprising: a substrate for placement in the plasma processing system and exposed to the plasma; an ion energy analyser disposed in the substrate for measuring the ion energy distribution at the substrate surface during plasma processing, the analyser comprising a first conductive grid, G 0, a second conductive grid, G 1, a third conductive grid, G 2, a fourth conductive grid G 3, and a collection electrode, C, each grid separated by an insulation layer; wherein the apparatus further comprises: a battery power supply and control circuitry, integrated in the substrate, for supplying and controlling voltage to each of the grids and the collector of the ion energy analyser; and wherein at least one insulation layer includes a peripheral portion which is of reduced thickness with respect to the remaining portion of the insulation layer. a substrate for placement in the plasma processing system and exposed to the plasma; an ion energy analyser disposed in the substrate for measuring the ion energy distribution at the substrate surface during plasma processing, the analyser comprising a first conductive grid, G 0, a second conductive grid, G 1, a third conductive grid, G 2, a fourth conductive grid G 3, and a collection electrode, C, each grid separated by an insulation layer; wherein the apparatus further comprises: a battery power supply and control circuitry, integrated in the substrate, for supplying and controlling voltage to each of the grids and the collector of the ion energy analyser; and wherein at least one insulation layer includes a peripheral portion which is of reduced thickness with respect to the remaining portion of the insulation layer. a battery power supply and control circuitry, integrated in the substrate, for supplying and controlling voltage to each of the grids and the collector of the ion energy analyser; and wherein at least one insulation layer includes a peripheral portion which is of reduced thickness with respect to the remaining portion of the insulation layer.
Method for testing customer premises equipment comprising a DSL modem coupled with a telecommunication line, wherein the method comprises - determining (71, 95) at least one value (A DS, A US; P); and - detecting (77, 93; 105, 109, 115) depending on the value (A DS, Aus; P) that the DSL modem is coupled with the telecommunication line via a DSL splitter in such a way that the DSL modem is connected to a different connector of the DSL splitter than a modem connector of the DSL splitter, which modem connector is intended for being connected with the DSL modem, characterized in that the value (A DS, A US; P) corresponds to a received signal power of a signal including at least one activation tone (55a, 55b, 55c), the at least one activation tone (55a, 55b, 55c) being sent by the DSL modem over the telecommunication line. - determining (71, 95) at least one value (A DS, A US; P); and - detecting (77, 93; 105, 109, 115) depending on the value (A DS, Aus; P) that the DSL modem is coupled with the telecommunication line via a DSL splitter in such a way that the DSL modem is connected to a different connector of the DSL splitter than a modem connector of the DSL splitter, which modem connector is intended for being connected with the DSL modem, characterized in that the value (A DS, A US; P) corresponds to a received signal power of a signal including at least one activation tone (55a, 55b, 55c), the at least one activation tone (55a, 55b, 55c) being sent by the DSL modem over the telecommunication line.
A slidable charging transmitter position adjusting structure for a wireless charging device, comprising: a cover; a base, wherein the cover is mounted on the base so that the cover and the base define therebetween a receiving space, the base comprising a bottom plate; a slidable seat, which is slidably received in the receiving space; and a charging transmitter module, which comprises a permeable plate and a transmission coil, wherein the transmission coil is mounted on the permeable plate, the permeable plate and the transmission coil being mounted in the slidable seat with the transmission coil facing the cover; characterized in that the bottom plate of the base comprises at least one through slot formed in a location corresponding to the slidable seat and extending in a push direction and at least one guide section formed on the bottom plate; and the slidable seat comprises a push section that is formed at a location corresponding to the through slot and at least a pair of counterpart guide structures formed at locations corresponding to the guide section, the slidable seat being slidably coupled to the guide section of the base through the counterpart guide structures, the push section being operable by means of pushing to have the slidable seat moving in the receiving space of the base in the push direction. a cover; a base, wherein the cover is mounted on the base so that the cover and the base define therebetween a receiving space, the base comprising a bottom plate; a slidable seat, which is slidably received in the receiving space; and a charging transmitter module, which comprises a permeable plate and a transmission coil, wherein the transmission coil is mounted on the permeable plate, the permeable plate and the transmission coil being mounted in the slidable seat with the transmission coil facing the cover; the bottom plate of the base comprises at least one through slot formed in a location corresponding to the slidable seat and extending in a push direction and at least one guide section formed on the bottom plate; and the slidable seat comprises a push section that is formed at a location corresponding to the through slot and at least a pair of counterpart guide structures formed at locations corresponding to the guide section, the slidable seat being slidably coupled to the guide section of the base through the counterpart guide structures, the push section being operable by means of pushing to have the slidable seat moving in the receiving space of the base in the push direction.
A method for a wireless access terminal to synchronize to system times in a wireless communication system, the method comprising: using a first timing hierarchy in a first wireless communication network to operate the wireless access terminal, the first wireless communication network having a first radio access technology, operating with the first timing hierarchy including determining a frame cycle for the first wireless communication network, the frame cycle having a frame cycle boundary; Characterised by: receiving from the first wireless communication network broadcast parameters for a second wireless communication network having a second radio access technology different from the first radio access technology, the broadcast parameters including a system time of the second wireless communication network; aligning, from the perspective of the wireless access terminal, the system time of second wireless communication network with the frame cycle boundary; and engaging in a communication session using the second wireless communication network. using a first timing hierarchy in a first wireless communication network to operate the wireless access terminal, the first wireless communication network having a first radio access technology, operating with the first timing hierarchy including determining a frame cycle for the first wireless communication network, the frame cycle having a frame cycle boundary; Characterised by: receiving from the first wireless communication network broadcast parameters for a second wireless communication network having a second radio access technology different from the first radio access technology, the broadcast parameters including a system time of the second wireless communication network; aligning, from the perspective of the wireless access terminal, the system time of second wireless communication network with the frame cycle boundary; and engaging in a communication session using the second wireless communication network. receiving from the first wireless communication network broadcast parameters for a second wireless communication network having a second radio access technology different from the first radio access technology, the broadcast parameters including a system time of the second wireless communication network; aligning, from the perspective of the wireless access terminal, the system time of second wireless communication network with the frame cycle boundary; and engaging in a communication session using the second wireless communication network.
Canister steam and vacuum cleaner, comprising a main body, said main body comprising vacuum and filtering means together with steam generation means, wherein said main body has height, width and length dimensions such that at least one of said dimensions is equal to or less than 300 mm, preferably equal to or less than 280 mm, more preferably equal to or less than 270 mm, wherein the vacuum and filtering means comprise: an engine, a fan, activated by said engine, and one or more filtering section(s), wherein the fan and the engine are placed over the one or more filtering section(s), along the prosecution of the longitudinal axis of the one or more filtering section(s). a fan, activated by said engine, and one or more filtering section(s), wherein the fan and the engine are placed over the one or more filtering section(s), along the prosecution of the longitudinal axis of the one or more filtering section(s).
A method wherein a memory region of a memory device is accessed during a first memory operation by using a channel portion of a channel having a channel depth, the method comprising: adjusting the channel depth of the channel portion of the channel, responsive to the memory region being allocated to a second memory operation, wherein the channel depth of the channel portion includes a number of bytes that can be accessed using the channel portion before using a next channel portion during a memory operation.
A method for a user equipment, UE, operating in a wireless communication system, the method comprising: starting a timer for a first Quality of Service, QoS, flow when a data radio bearer, DRB, which is mapped to the first QoS flow is changed from a first DRB to a second DRB; while the timer is running, by a Service Data Adaptation Protocol, SDAP, layer, delivering packets of the first QoS flow received from the first DRB to an upper layer, wherein packets of the first QoS flow received from the second DRB are stored while the timer is running, wherein the SDAP layer is a higher layer than a Packet Data Convergence Protocol, PDCP, layer of the UE, wherein 1) a QoS flow to DRB mapping rule and 2) a maximum value of the timer for change of mapping of the first QoS flow from the first DRB to the second DRB are received via a SDAP Protocol Data Unit, PDU, wherein the timer is configured only for the first QoS flow, not for a QoS flow other than the first QoS flow, by a configuration that one timer is configured for one QoS flow, wherein the packets of the first QoS flow received from the second DRB are stored in a temporary buffer in the SDAP layer while the timer is running, by a configuration that one temporary buffer is configured for one QoS flow, when the timer expires, by the SDAP layer, discarding the packets of the first QoS flow received from the first DRB which are not delivered until the timer expires, and starting to deliver the packets of the first QoS flow stored in the temporary buffer to the upper layer. starting a timer for a first Quality of Service, QoS, flow when a data radio bearer, DRB, which is mapped to the first QoS flow is changed from a first DRB to a second DRB; while the timer is running, by a Service Data Adaptation Protocol, SDAP, layer, delivering packets of the first QoS flow received from the first DRB to an upper layer, wherein packets of the first QoS flow received from the second DRB are stored while the timer is running, wherein the SDAP layer is a higher layer than a Packet Data Convergence Protocol, PDCP, layer of the UE, wherein 1) a QoS flow to DRB mapping rule and 2) a maximum value of the timer for change of mapping of the first QoS flow from the first DRB to the second DRB are received via a SDAP Protocol Data Unit, PDU, wherein the timer is configured only for the first QoS flow, not for a QoS flow other than the first QoS flow, by a configuration that one timer is configured for one QoS flow, wherein the packets of the first QoS flow received from the second DRB are stored in a temporary buffer in the SDAP layer while the timer is running, by a configuration that one temporary buffer is configured for one QoS flow, when the timer expires, by the SDAP layer, discarding the packets of the first QoS flow received from the first DRB which are not delivered until the timer expires, and starting to deliver the packets of the first QoS flow stored in the temporary buffer to the upper layer.
A compound of Formula: wherein X is selected from a covalent bond, S, or O; Y is S or O; - - - - - W - - - - - represents a group selected from -CH=, -CH 2 -, -CH 2 -CH 2 -,-CH 2 -CH=, and -CH=CH-; Z is selected from O, CH, and CH 2, provided when Y is O, Z is O; R 1 and R 2 are independently selected from H, C 1-3 alkyl, C 1-3 alkoxy, halo, and NR a R b wherein R a and R b are independently H or C 1-3 alkyl; R 3 and R 4 are independently selected from H, halo, cyano, hydroxy, acetyl, C 1-5 alkyl, C 1-4 alkoxy, and NR c R d wherein R c and R d are independently H or C 1-3 alkyl, provided that R 3 and R 4 are not both H; R 5 and R 6 are independently selected from H, C 1-8 alkyl and substituted C 1-8 alkyl, provided that R 5 and R 6 are not both H; R 7 is selected from C 1-7 alkyl, C 1-6 alkoxy, C 2-7 alkenyl, C 2-7 alkenyloxy, C 1-6 alkoxy-C 1-6 alkyl, and C 1-5 alkoxy-C 1-5 alkoxy; R 8 is H; and n is 1 or 2; or a pharmaceutically acceptable salt thereof, wherein "alkyl" and "alkoxy" are optionally substituted with one or more substituents independently selected from: halogen; hydroxy; amino; alkoxyl; nitro; alkyl; cyano; phenyl; heteroaryl; heterocyclyl; phenoxy; heteroaryloxy; heterocyclyloxy; thioalkyl; thiophenyl; and carboxyl; "alkenyl" is optionally substituted with one or more substituents independently selected from cyano- and thio-; and "aryl" is optionally substituted with one to three substituents independently selected from C 1 -C 8 alkyl; C 1 -C 8 alkoxy; fluorinated C 1 -C 8 alkyl; fluorinated C 1 -C 8 alkoxy; halogen; cyano; C 1 -C 8 alkylcarbonyl; carboxyl; hydroxy; amino; nitro; C 1 -C 4 alkylamino; C 1 -C 4 dialkylamino; and unsubstituted, mono-, di- or tri-substituted phenyl wherein the substituents on the phenyl are independently selected from C 1 -C 8 alkyl; C 1 -C 8 alkoxy; fluorinated C 1 -C 8 alkyl; fluorinated C 1 -C 8 alkoxy; halogen; cyano; acetyl; carboxyl; hydroxy; amino; nitro; alkylamino; dialkylamino and five or six membered heteroaryl having 1-3 heteroatoms selected from N, O and S; "heteroaryl" is optionally substituted with one to three substituents selected from C 1 -C 8 alkyl; halogen; and aryl. halogen; hydroxy; amino; alkoxyl; nitro; alkyl; cyano; phenyl; heteroaryl; heterocyclyl; phenoxy; heteroaryloxy; heterocyclyloxy; thioalkyl; thiophenyl; and carboxyl;
A fuel injector for a hydrogen combusting aircraft gas turbine engine having at least one air through-passage (44, 52) extending axially from a front face to a rear face; a fuel manifold in communication with a hydrogen fuel feed line; wherein a plurality of fuel outlets is provided surrounding the or each air passage (44, 52) and an annular fuel gallery is provided around each air through passage (44, 52) configured to supply the fuel outlets, the annular fuel gallery communicating with the fuel manifold; characterised in that: the injector comprises an injector front plate which forms the front face of the injector, and an injector rear plate which forms the rear face of the injector, the injector front plate and injector rear plate being coupled together, wherein the injector comprises a feed plate located between the injector front plate and the injector rear plate comprising a plurality of air through-holes, wherein the injector front plate comprises the fuel manifold and comprises a plurality of axially extending air through-holes, wherein the injector rear plate comprises a plurality of axially extending air through-holes, and wherein, when assembled, the axially extending air-through holes of the injector rear plate, injector feed plate and injector front plate align to form a plurality of air through-passages. the injector comprises an injector front plate which forms the front face of the injector, and an injector rear plate which forms the rear face of the injector, the injector front plate and injector rear plate being coupled together, wherein the injector comprises a feed plate located between the injector front plate and the injector rear plate comprising a plurality of air through-holes, wherein the injector front plate comprises the fuel manifold and comprises a plurality of axially extending air through-holes, wherein the injector rear plate comprises a plurality of axially extending air through-holes, and wherein, when assembled, the axially extending air-through holes of the injector rear plate, injector feed plate and injector front plate align to form a plurality of air through-passages.
A EUV light source comprising; a droplet generator producing droplets of target material; a sensor providing an intercept time signal when one of said droplets reaches a preselected location; a delay circuit (84, 94) coupled with said sensor, the delay circuit generating, responsive to at least burst timing input from an exposure tool control system, a laser trigger signal delayed from the intercept time signal; a laser source responsive to the trigger signal to produce a plurality of laser pulses; and a system controlling said delay circuit to provide a first trigger signal delayed from the intercept time by a first delay time to generate a plurality of first laser pulses that are focused on a first plurality of droplets to produce an EUV output during a burst period and a second trigger signal delayed from the intercept time by a second delay time to generate a plurality of second laser pulses which miss a second plurality of droplets to maintain the temperature of one or more optics and reducing thermal transients without producing plasma-generated debris during an intervening period t between burst periods. a droplet generator producing droplets of target material; a sensor providing an intercept time signal when one of said droplets reaches a preselected location; a delay circuit (84, 94) coupled with said sensor, the delay circuit generating, responsive to at least burst timing input from an exposure tool control system, a laser trigger signal delayed from the intercept time signal; a laser source responsive to the trigger signal to produce a plurality of laser pulses; and a system controlling said delay circuit to provide a first trigger signal delayed from the intercept time by a first delay time to generate a plurality of first laser pulses that are focused on a first plurality of droplets to produce an EUV output during a burst period and a second trigger signal delayed from the intercept time by a second delay time to generate a plurality of second laser pulses which miss a second plurality of droplets to maintain the temperature of one or more optics and reducing thermal transients without producing plasma-generated debris during an intervening period t between burst periods.