mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method, comprising: receiving, to a certificate management service of a resource-provider environment , a request to deploy a certificate to a resource of the resource-provider environment, the certificate to be deployed on behalf of a customer of the resource-provider environment; causing the certificate to be deployed to the resource, information for the certificate being stored by the certificate management service; determining, using the information for the certificate, that the certificate is within a first determined period of time from an end of a validity period for the certificate; obtaining, from a certificate authority , a new certificate on behalf of the customer, the new certificate being stored by the certificate management service; providing, to the customer, a notification indicating availability of the new certificate to be deployed to the resource; determining, using the information for the certificate, that the certificate is within a second determined period of time from an end of the validity period and no instruction to deploy has been received on behalf of the customer; and causing the new certificate to be automatically deployed, via the certificate management service, to the resource. receiving, to a certificate management service of a resource-provider environment , a request to deploy a certificate to a resource of the resource-provider environment, the certificate to be deployed on behalf of a customer of the resource-provider environment; causing the certificate to be deployed to the resource, information for the certificate being stored by the certificate management service; determining, using the information for the certificate, that the certificate is within a first determined period of time from an end of a validity period for the certificate; obtaining, from a certificate authority , a new certificate on behalf of the customer, the new certificate being stored by the certificate management service; providing, to the customer, a notification indicating availability of the new certificate to be deployed to the resource; determining, using the information for the certificate, that the certificate is within a second determined period of time from an end of the validity period and no instruction to deploy has been received on behalf of the customer; and causing the new certificate to be automatically deployed, via the certificate management service, to the resource.
An uplink signal transmission method, comprising: transmitting , by a terminal device to a network device on a first time unit of an unlicensed spectrum, a first demodulation signal and uplink data that is obtained by rate matching of a first transmission block, wherein the first demodulation signal is used for demodulating the uplink data, and symbols occupied by the first demodulation signal do not comprise a first symbol; wherein the first symbol comprises a first one of symbols in the first time unit; wherein the symbols occupied by the first demodulation signal comprise a second one of the symbols in the first time unit; and the first demodulation signal comprises uplink control information, UCI, UCI, and the UCI comprises at least one piece of the following information: a hybrid automatic repeat request, HARQ, identifier corresponding to the first transmission block, an identifier of the terminal device, a starting symbol of the first time unit, and an ending symbol of the first time unit and an indication of a code block group, CBG, comprised in the first transmission block. transmitting , by a terminal device to a network device on a first time unit of an unlicensed spectrum, a first demodulation signal and uplink data that is obtained by rate matching of a first transmission block, wherein the first demodulation signal is used for demodulating the uplink data, and symbols occupied by the first demodulation signal do not comprise a first symbol; wherein the first symbol comprises a first one of symbols in the first time unit; wherein the symbols occupied by the first demodulation signal comprise a second one of the symbols in the first time unit; and the first demodulation signal comprises uplink control information, UCI, UCI, and the UCI comprises at least one piece of the following information: a hybrid automatic repeat request, HARQ, identifier corresponding to the first transmission block, an identifier of the terminal device, a starting symbol of the first time unit, and an ending symbol of the first time unit and an indication of a code block group, CBG, comprised in the first transmission block.
Pheromone composition with the appeasing effect of the mother hen pheromone for use in a method for producing chicks from hatching eggs, in which - the eggs are pre-incubated; - the eggs are further incubated and hatched in a hatcher incubator containing a predetermined volume of air; - the hatched chicks are taken out of the hatcher incubator ; - chicks of lesser quality are screened out; and - the remaining chicks are placed in transport containers that are intended to transfer the chicks to a barn, where they will be given feed for the first time, wherein at least during a final stage of the further incubating and hatching of the eggs in the hatcher incubator , an effective amount of the pheromone composition is provided in the air in the hatcher incubator . - the eggs are pre-incubated; - the eggs are further incubated and hatched in a hatcher incubator containing a predetermined volume of air; - the hatched chicks are taken out of the hatcher incubator ; - chicks of lesser quality are screened out; and - the remaining chicks are placed in transport containers that are intended to transfer the chicks to a barn, where they will be given feed for the first time, wherein at least during a final stage of the further incubating and hatching of the eggs in the hatcher incubator , an effective amount of the pheromone composition is provided in the air in the hatcher incubator .
An aircraft landing gear assembly comprising: a bogie beam including a bogie mounting bearing via which the bogie beam is arranged to be pivotally coupled to an aircraft landing gear main strut so as to pivot about a bogie pivot axis; first and second wheel assemblies mounted on the bogie beam on longitudinally opposite sides of the bogie beam with respect to the bogie mounting bearing, the first and second wheel assemblies being rotatable around respective first and second wheel axes , the first and second wheel axes defining an axle plane (AP); a jacking dome mounted on the bogie beam to face a ground plane (GP) which is tangential to a wheel of the first wheel assembly and tangential to a wheel of the second wheel assembly, the jacking dome projecting towards the ground plane by a first distance (DD), defined from the axle plane to the point on the jacking dome closest to the ground plane; and a guard distinct from the jacking dome and being configured to be removably coupled to the bogie beam on an opposite side of the jacking dome with respect to the bogie mounting bearing, the guard being sized to extend from the bogie beam towards the ground plane by a second distance (SD) which is at least 0.9times the first distance, the second distance being defined from the axle plane to the point on the guard closest to the ground plane, wherein an overly elevated jack (J) is inhibited from striking the jacking dome by the guard. a bogie beam including a bogie mounting bearing via which the bogie beam is arranged to be pivotally coupled to an aircraft landing gear main strut so as to pivot about a bogie pivot axis; first and second wheel assemblies mounted on the bogie beam on longitudinally opposite sides of the bogie beam with respect to the bogie mounting bearing, the first and second wheel assemblies being rotatable around respective first and second wheel axes , the first and second wheel axes defining an axle plane (AP); a jacking dome mounted on the bogie beam to face a ground plane (GP) which is tangential to a wheel of the first wheel assembly and tangential to a wheel of the second wheel assembly, the jacking dome projecting towards the ground plane by a first distance (DD), defined from the axle plane to the point on the jacking dome closest to the ground plane; and a guard distinct from the jacking dome and being configured to be removably coupled to the bogie beam on an opposite side of the jacking dome with respect to the bogie mounting bearing, the guard being sized to extend from the bogie beam towards the ground plane by a second distance (SD) which is at least 0.9times the first distance, the second distance being defined from the axle plane to the point on the guard closest to the ground plane, wherein an overly elevated jack (J) is inhibited from striking the jacking dome by the guard.
A service routing packet processing method, comprising: receiving, by a service node, SN, a first service routing packet encapsulated in a first underlay network packet sent by a first service router, SR via an underlay network, wherein the first service routing packet comprises path identification information and identification information of the SN; performing, by the SN, service processing on the first service routing packet, to obtain a second service routing packet, wherein the second service routing packet comprises the path identification information and identification information of a destination SN, and the identification information of the destination SN is obtained based on the identification information of the SN; and sending, by the SN, the second service routing packet encapsulated in a second underlay network packet to the first SR via the underlay network. receiving, by a service node, SN, a first service routing packet encapsulated in a first underlay network packet sent by a first service router, SR via an underlay network, wherein the first service routing packet comprises path identification information and identification information of the SN; performing, by the SN, service processing on the first service routing packet, to obtain a second service routing packet, wherein the second service routing packet comprises the path identification information and identification information of a destination SN, and the identification information of the destination SN is obtained based on the identification information of the SN; and sending, by the SN, the second service routing packet encapsulated in a second underlay network packet to the first SR via the underlay network.
A seal assembly (176; 276; 676) for a gas turbine engine , comprising: a seal (169; 269; 669), wherein the seal is a blade outer air seal (BOAS) and including a sealing portion that extends circumferentially between first and second mate faces and an engagement portion along the first mate face ; and a support (180; 280; 680) including an interface portion extending from a mounting portion , the interface portion abutting the engagement portion to limit relative movement, and the mounting portion defining an aperture (188; 288; 688) that receives a fastener (190; 290; 690) to mechanically attach the mounting portion to an engine static structure , wherein at least a portion of the fastener (190; 290; 690) is circumferentially aligned with the first mate face , characterized in that the fastener (190; 290; 690) defines a first cooling passage (193; 293) that delivers cooling flow (F) at a location adjacent to the first mate face . a seal (169; 269; 669), wherein the seal is a blade outer air seal (BOAS) and including a sealing portion that extends circumferentially between first and second mate faces and an engagement portion along the first mate face ; and a support (180; 280; 680) including an interface portion extending from a mounting portion , the interface portion abutting the engagement portion to limit relative movement, and the mounting portion defining an aperture (188; 288; 688) that receives a fastener (190; 290; 690) to mechanically attach the mounting portion to an engine static structure , wherein at least a portion of the fastener (190; 290; 690) is circumferentially aligned with the first mate face , characterized in that the fastener (190; 290; 690) defines a first cooling passage (193; 293) that delivers cooling flow (F) at a location adjacent to the first mate face .
An exhaust aftertreatment unit configured to be sealingly arranged in a fluid passage of an exhaust aftertreatment system for treating exhaust from an internal combustion engine, said exhaust aftertreatment unit comprising an exhaust aftertreatment element confined by an outer wall of said exhaust aftertreatment unit , characterized in that a leakage treatment member is arranged to an outer periphery of the outer wall of the exhaust aftertreatment unit , said leakage treatment member being configured to be arranged between an inner perimeter of the fluid passage of the exhaust aftertreatment system and the outer wall of the exhaust aftertreatment unit, the leakage treatment member further comprising an exhaust aftertreatment component for aftertreatment of any leakage of exhaust gases past said aftertreatment unit in said fluid passage .
A method comprising contacting an organic substrate having at least one alcohol moiety with a mixture of (a) at least one hydrosilane (b) sodium hydroxide and/or potassium hydroxide, in (c) a polar aprotic solvent selected from tetrahydrofuran, 1,2-dimethoxyethane, and dimethyl formamide, acetonitrile, dimethylacetamide (DMA), dimethyl formamide (DMF), dimethylsulfoxide, glycols and polyglycols optionally substituted dioxanes, dialkyl ethers (e.g., diethyl, dimethyl ether), hexamethylphosphoramide (HMPA), optionally substituted tetrahydrofurans (e.g., 2-methyltetrahydrofuran), furans, N-methylpyrrolidone or mixture thereof, the contacting resulting in the formation of a dehydrogenatively coupled silyl ether, wherein the contacting is done in the absence of a crown ether, and wherein the hydrosilane has a structure of Formula (I) or of Formula (II): (R) 3-m Si(H) m+1 (I) (R) 2-m (H) m+1 Si-Si(R) 3-m (H) m (II) wherein m is independently 0, 1, or 2; and each R is independently an optionally substituted C 1-24 alkyl or heteroalkyl, an optionally substituted linear or branched C 2-24 alkenyl, an optionally substituted C 2-24 alkynyl, an optionally substituted 6 to 18 ring membered aryl or 5 to 18 ring membered heteroaryl, an optionally substituted 6 to 18 ring-membered alkaryl or 5 to 18 ring-membered heteroalkaryl, an optionally substituted 6 to 18 ring-membered aralkyl or 5 to 18 ring-membered heteroaralkyl, an optionally substituted -O-C 1-24 alkyl or heteroalkyl, an optionally substituted 6 to 18 ring-membered aryloxy or 5 to 18 ring-membered heteroaryloxy, an optionally substituted 6 to 18 ring-membered alkaryloxy or 5 to 18 ring-membered heteroalkaryloxy, or an optionally substituted 6 to 18 ring-membered aralkoxy or 5 to 18 ring-membered heteroaralkoxy, and, if substituted, the substituents may be phosphonato, phosphoryl, phosphanyl, phosphino, sulfonato, C 1 -C 20 alkylsulfanyl, C 5 -C 20 arylsulfanyl , C 1 -C 20 alkylsulfonyl, C 5 -C 20 arylsulfonyl, C 1 -C 20 alkylsulfinyl, 5 to 12 ring-membered arylsulfinyl, sulfonamido, amino, amido, imino, nitro, nitroso, hydroxyl, C 1 -C 20 alkoxy, C 5 -C 20 aryloxy, C 2 -C 20 alkoxycarbonyl, C 5 -C 20 aryloxycarbonyl, carboxyl, carboxylato, mercapto, formyl, C 1 -C 20 thioester, cyano, cyanato, thiocyanato, isocyanate, thioisocyanate, carbamoyl, epoxy, styrenyl, silyl, silyloxy, silanyl, siloxazanyl, boronato, boryl, or halogen, or a metal-containing or metalloid-containing group, where the metalloid is Sn or Ge, where the substituents optionally provide a tether to an insoluble or sparingly soluble support media comprising alumina, silica, or carbon.
Controller for reducing the rotor vibrations, in particular the variability thereof, in shafting, in particular turbine shafting, in which the temperature of the bearing of the shaft is measured, wherein the bearing is provided by a generator bearing, the oil supplied to the bearing is adjusted to a temperature as is assigned as the output variable in an allocation for minimised rotor vibrations with the measured temperature of the bearing as the input variable, wherein an oil circuit is provided, comprising the bearing , a bearing oil tank , a pump , an oil cooler , a bypass having a valve to the oil cooler and a mixing valve which combines the output of the oil cooler and the bypass, wherein the temperature of the oil supplied to the bearing is adjusted with the aid of the valve , wherein for initial assignment with different temperatures of the bearing , the rotor vibrations occurring in the process are measured and the respective bearing oil temperatures for minimising the rotor vibrations are calculated, the respective temperatures of the bearing are stored as input variables and the associated, calculated bearing oil temperatures are stored as output variables in the assignment, wherein the assignment contains empirical values as output variables, said empirical values being obtained from the operating history of the shafting, whereby damping at an early stage is enabled and the inertia of the system is compensated. the temperature of the bearing of the shaft is measured, wherein the bearing is provided by a generator bearing, the oil supplied to the bearing is adjusted to a temperature as is assigned as the output variable in an allocation for minimised rotor vibrations with the measured temperature of the bearing as the input variable, wherein an oil circuit is provided, comprising the bearing , a bearing oil tank , a pump , an oil cooler , a bypass having a valve to the oil cooler and a mixing valve which combines the output of the oil cooler and the bypass, wherein the temperature of the oil supplied to the bearing is adjusted with the aid of the valve , wherein for initial assignment with different temperatures of the bearing , the rotor vibrations occurring in the process are measured and the respective bearing oil temperatures for minimising the rotor vibrations are calculated, the respective temperatures of the bearing are stored as input variables and the associated, calculated bearing oil temperatures are stored as output variables in the assignment, wherein the assignment contains empirical values as output variables, said empirical values being obtained from the operating history of the shafting, whereby damping at an early stage is enabled and the inertia of the system is compensated.
A generally disk-shaped open device (64; 80; 100) for securing at least one suture, comprising: an outer body (66; 102), a first arm (68; 84; 104) and a second arm (70; 86; 106) within an outer perimeter of the outer body (66; 102), the first and second arms (68, 70; 84, 86; 104, 106) separated by a first slit (72; 108) that extends inwardly from the outer perimeter of the outer body (66; 102), thereby allowing the at least one suture to be slid laterally into the first slit (72; 108), the first slit (72; 108) extending to a second slit (74; 110) that extends at a right angle from the first slit (72; 108) to an open region (76; 112) within the outer perimeter of the outer body (66; 102), wherein the open region (76; 112) is configured to allow the first and second arms (68, 70; 84, 86; 104, 106) to be separated to receive the at least one suture, wherein, in use, the first slit (72; 108) is configured to hold the at least one suture within the first slit (72; 108) by a pinching force of the first and second arms (68, 70; 84, 86; 104, 106), characterised in that the width of the second slit (74; 110) is smaller than the width of the first slit (72; 108). an outer body (66; 102), a first arm (68; 84; 104) and a second arm (70; 86; 106) within an outer perimeter of the outer body (66; 102), the first and second arms (68, 70; 84, 86; 104, 106) separated by a first slit (72; 108) that extends inwardly from the outer perimeter of the outer body (66; 102), thereby allowing the at least one suture to be slid laterally into the first slit (72; 108), the first slit (72; 108) extending to a second slit (74; 110) that extends at a right angle from the first slit (72; 108) to an open region (76; 112) within the outer perimeter of the outer body (66; 102), wherein the open region (76; 112) is configured to allow the first and second arms (68, 70; 84, 86; 104, 106) to be separated to receive the at least one suture, wherein, in use, the first slit (72; 108) is configured to hold the at least one suture within the first slit (72; 108) by a pinching force of the first and second arms (68, 70; 84, 86; 104, 106), characterised in that the width of the second slit (74; 110) is smaller than the width of the first slit (72; 108).
system for improving quality of electrical energy composed of an active parallel compensator system comprising a LCLR coupling filter in each phase conductor and an AC/DC power electronic converter , and of a dynamic voltage restorer system comprising in each phase conductor a transformer (Tr1, Tr2, Tr3) and a LCLR coupling filter and AC/DC power electronic converters , as well as an energy storage in the form of a storage capacitor (C1) included at DC terminals of said power electronic converters (6; 10, 11, 12), characterised in that in each phase conductor (L1, L2, L3) in the LCLR type coupling filters of the active parallel compensator system and the LCLR type coupling filters of the dynamic voltage restorer system, each of resistors is replaced by an energy recovery system, wherein each of these energy recovery systems is composed of a half-bridge system of power electronic switches (16, 17, 18; 26, 27, 28) connected by means of a choke (D1, D2, D3; D4, D5, D6) and a voltage and current measurement block (13, 14, 15; 23, 24, 25) to the coupling filter (3, 4, 5; 7, 8, 9) in place of a replaced resistor and signal conductors of the voltage and current measurement block (13, 14, 15; 23, 24, 25) are connected to the power electronic switch (16, 17, 18; 26, 27, 28) in each energy recovery system respectively; moreover, in the active parallel compensator system, capacitors (C2, C3) connected in series are coupled to the two remaining outputs of each of the power electronic switches so as to form an intermediate energy storage, wherein the latter, by means of a power electronic converter , with an input circuit being galvanically isolated from a DC/DC output circuit, is connected to terminals of the storage capacitor (C1), and a common point of the capacitors (C2, C3) is connected to a neutral conductor (N) of a power network and by means of the voltage and current measurement blocks to one of the outputs of the coupling filters , wherein in the dynamic voltage restorer system circuit, separately for each phase, capacitors connected in series (C4, C5; C6, C7; C8, C9) are coupled to the two remaining outputs of each of the power electronic switches so as to form intermediate energy storage elements which by means of individual power electronic converters , with an input circuit being galvanically isolated from a DC/DC output circuit, are connected to the storage capacitor (C1), and wherein a common point of the capacitors (C4, C5; C6, C7; C8, C9), for each phase respectively, is connected by means of the voltage and current measurement block to one of the outputs of the coupling filter .