mhurhangee/patent-ind-claim-en huggingface dataset:
Method for operating a vacuum cleaner , with a fan which has a fan motor and which generates an air flow (Q, Q1, Q2) through a suction nozzle of the vacuum cleaner , and with a control device which controls the fan as a function of a flooring category (K1, K2) to be processed, wherein - the vacuum cleaner is designed to process at least a first flooring category (K1) and a second flooring category (K2), - the flooring category (K1, K2) is signalled to the control device , and - the flooring of the category (K1, K2), for which flooring the vacuum cleaner is designed, is processed, characterised in that the control device controls a power consumption of the fan motor based on the signalled flooring category (K1, K2), such that during the processing of the first flooring category (K1) both a first fan power (P1) and a first air flow (Q1) are higher than a second fan power (P2) and a second air flow (Q2) during the processing of the second flooring category (K2), and in that the first flooring category (K1) is assigned floorings which have a flow resistance during processing with the suction nozzle which is greater than that which floorings which are assigned to the second flooring category (K2) have during processing with the suction nozzle , and/or carpet floorings are assigned to the first flooring category (K1) and hard floorings are assigned to the second flooring category (K2). - the vacuum cleaner is designed to process at least a first flooring category (K1) and a second flooring category (K2), - the flooring category (K1, K2) is signalled to the control device , and - the flooring of the category (K1, K2), for which flooring the vacuum cleaner is designed, is processed,
A resin composition comprising polyarylene sulfide having 0.4 to 0.7 of α (branch ratio) in Mark-Houwink equation, a glass fiber and a compatibilizer wherein the polyarylene sulfide is prepared by melt polymerization of reactants comprising a diiodo aromatic compound and a sulfur element, and the reactants further comprise triiodobenzene, triiodobiphenyl, ortho-diiodobenzene, meta-diiodobenzene or a combination thereof.
A human machine interface apparatus for operating in an industrial facility comprising: a data store ; a plurality of automation devices communicatively coupled to the data store via a network, wherein the automation devices are configured to store data in the data store; and a browser comprising an embedded interactive program and an execution engine for executing the embedded interactive program, the browser being configured to access data concerning one or more of the plurality of automation devices over the network and presenting such data with multimedia effects to a user, the multimedia effects being incorporated in the browser via the embedded interactive program , wherein one of the multimedia effects is an interactive graph that controls an output of an automation device, wherein a user can click and drag points on the interactive graph to effectuate changes in a production schedule, wherein the embedded interactive program includes bindings configured to bind program variables to device data such that a change in device data is immediately reflected in the program variable bound thereto. a data store ; a plurality of automation devices communicatively coupled to the data store via a network, wherein the automation devices are configured to store data in the data store; and a browser comprising an embedded interactive program and an execution engine for executing the embedded interactive program, the browser being configured to access data concerning one or more of the plurality of automation devices over the network and presenting such data with multimedia effects to a user, the multimedia effects being incorporated in the browser via the embedded interactive program , wherein one of the multimedia effects is an interactive graph that controls an output of an automation device, wherein a user can click and drag points on the interactive graph to effectuate changes in a production schedule, wherein the embedded interactive program includes bindings configured to bind program variables to device data such that a change in device data is immediately reflected in the program variable bound thereto.
A method for per-function downstream port containment, which is performed by a downstream Peripheral Component Interconnect Express, PCIe, interface , the method comprising: • snooping configuration space access packets communicated to a first function of an end-point device to identify a device type associated with a first routing identifier, RID, and to identify an address or an address range associated with the first RID, wherein the first RID is further associated with the first function of the end-point device, • writing the address or the address range associated with the first RID into an address table, • receiving a read or write request, the read or write request comprising the first RID, • detecting a non-fatal error of the first function of the end-point device; • identifying the address or the address range associated with the first RID in the address table by searching the address table for entries associated with the first RID; and • filtering packets carrying the first RID or the identified address or addresses within the identified address range without de-activating a link between the PCIe interface and the end-point device. • snooping configuration space access packets communicated to a first function of an end-point device to identify a device type associated with a first routing identifier, RID, and to identify an address or an address range associated with the first RID, wherein the first RID is further associated with the first function of the end-point device, • writing the address or the address range associated with the first RID into an address table, • receiving a read or write request, the read or write request comprising the first RID, • detecting a non-fatal error of the first function of the end-point device; • identifying the address or the address range associated with the first RID in the address table by searching the address table for entries associated with the first RID; and • filtering packets carrying the first RID or the identified address or addresses within the identified address range without de-activating a link between the PCIe interface and the end-point device.
A control system for controlling an electrical power plant that comprises: - at least one electric machine, - at least one prime mover for operating the electric machine as a generator, - a signal modifier for suppressing at least one oscillating signal component from a speed signal indicative of rotation speed of the prime mover, and - a controller for controlling the prime mover at least partly based on the speed signal from which the at least one oscillating signal component has been suppressed, characterized in that the control system comprises: - a frequency detection section for detecting at least one oscillation frequency of the rotation speed in response to a situation in which a torque change excites the rotation speed to oscillate, and - an adaptation section for adapting the signal modifier to suppress the oscillating signal component so that frequency of the oscillating signal component is substantially the detected oscillation frequency. - at least one electric machine, - at least one prime mover for operating the electric machine as a generator, - a signal modifier for suppressing at least one oscillating signal component from a speed signal indicative of rotation speed of the prime mover, and - a controller for controlling the prime mover at least partly based on the speed signal from which the at least one oscillating signal component has been suppressed, - a frequency detection section for detecting at least one oscillation frequency of the rotation speed in response to a situation in which a torque change excites the rotation speed to oscillate, and - an adaptation section for adapting the signal modifier to suppress the oscillating signal component so that frequency of the oscillating signal component is substantially the detected oscillation frequency.
A cooling path structure for concentrated cooling of a seal area (SA) in a duct assembly of a gas turbine combustor , the duct assembly having a double-wall structure in which a flow sleeve surrounds a liner and a transition piece and defines an inner annular space for flow of compressed cooling air to cool the liner and the transition piece , wherein the liner and the transition piece are connected by means of a ring-type elastic support , the seal area (SA) being in proximity to the elastic support and including rear and front sides of the liner and the transition piece , respectively, the cooling path structure comprising: a concentrated cooling guide plate facing the seal area (SA) to introduce compressed cooling air into the seal area (SA) through a plurality of first cooling holes and a plurality of second cooling holes respectively formed in the guide plate , wherein the compressed cooling air flows upstream through the inner annular space and sequentially reaches the first cooling holes and then the second cooling holes ; wherein the first cooling holes are formed along a first inlet axis (x1) such that the introduced cooling air approaches a central axis (xm) of the seal area (SA) in a forward direction with respect to a direction of flow of the compressed cooling air in the inner annular space , and the second cooling holes are formed along a second inlet axis (x2) such that the introduced cooling air approaches the central axis (xm) of the seal area (SA) in a backward direction with respect to the direction of flow of the compressed cooling air in the inner annular space ; the cooling path structure further comprising first and second cooling hole guides protruding from the guide plate proximate to the first and second cooling holes , respectively, wherein the second cooling hole guide protrudes higher than the first cooling hole guide . a concentrated cooling guide plate facing the seal area (SA) to introduce compressed cooling air into the seal area (SA) through a plurality of first cooling holes and a plurality of second cooling holes respectively formed in the guide plate , wherein the compressed cooling air flows upstream through the inner annular space and sequentially reaches the first cooling holes and then the second cooling holes ; wherein the first cooling holes are formed along a first inlet axis (x1) such that the introduced cooling air approaches a central axis (xm) of the seal area (SA) in a forward direction with respect to a direction of flow of the compressed cooling air in the inner annular space , and the second cooling holes are formed along a second inlet axis (x2) such that the introduced cooling air approaches the central axis (xm) of the seal area (SA) in a backward direction with respect to the direction of flow of the compressed cooling air in the inner annular space ; the cooling path structure further comprising first and second cooling hole guides protruding from the guide plate proximate to the first and second cooling holes , respectively, wherein the second cooling hole guide protrudes higher than the first cooling hole guide .
A construction machine control method, comprising a step of projecting a laser beam in rotary irradiation at constant speed and forming a reference plane by a laser surveying instrument installed at a known point, a step of detecting said laser beam by at least three beam detectors which are installed at known positions of a construction machine operated within a photodetection range of said laser beam and each of which has a photodetector to receive said laser beam, a step of obtaining photodetection timing of each of said beam detectors based on results of detection of said laser beam by said at least three beam detectors, a step of calculating a direction of said construction machine with respect to said laser surveying instrument based on at least three photodetection timings as obtained, characterized in that the method further comprises a step of projecting a distance measuring light and a tracking light towards a target provided at a known point with respect to a device reference position of said construction machine, measuring a three-dimensional coordinate of said target based on a reflected distance measuring light from said target and an elevation angle and a horizontal angle of said target measured by an angle measuring unit and tracking said target based on a reflected tracking light from said target, a step of calculating a three-dimensional coordinate of said device reference position based on said three-dimensional coordinate of said target and said direction as calculated, and a step of controlling a working unit based on said device reference position and said direction and controlling said direction of said construction machine and said device reference position to a condition as required.
A production mold for a rotor blade of a wind turbine, having two mold half-shells each with an open side and each arranged in a retaining device , wherein the two retaining devices are connected to one another in an articulated manner and can be swung back and forth from an open position, in which the two mold half-shells are arranged one beside the other with their open sides oriented upward, into a closed position, in which the two mold half-shells are arranged one above the other with their open sides oriented toward one another, wherein a plurality of two-component closures is provided, of which a one component is arranged on the one retaining device and of which another component is arranged on the other retaining device , and wherein the two components can be closed and opened again by means of at least one actuator , by way of at least two decoupled movements of one of the components or of the two components and wherein the two mould half-shells , in the closed state, form a gap which runs along between their peripheries and the both retaining devices are provided with spacers and the two mould half-shells , in the closed state, are spaced apart from each other by the spacers for forming the gap and the gap extends both along the width and along the longitudinal direction of the peripheries over the whole extension of the peripheries of the mould half-shells being arranged one upon the other.
An electromagnetic coil assembly of a control rod drive mechanism, including a coil and a yoke for mounting the coil , an insertion hole disposed on the yoke , wherein the coil is installed in the insertion hole , the yoke includes a first yoke and a second yoke , and the insertion hole is set on the first yoke ; the first yoke is connected to the second yoke , and the second yoke is further disposed with a through hole for matching with a sealing shell assembly; characterized in that amongst the first yoke and the second yoke , a thermal conductivity of the first yoke is stronger than a thermal conductivity of the second yoke . the first yoke is connected to the second yoke , and the second yoke is further disposed with a through hole for matching with a sealing shell assembly; characterized in that amongst the first yoke and the second yoke , a thermal conductivity of the first yoke is stronger than a thermal conductivity of the second yoke .
Tyre, the tread of which comprises a rubber composition comprising at least: - from 50 to 100 phr of a copolymer based on styrene and butadiene showing a glass transition temperature comprised between -80°C and 0°C; - optionally from 0 to 50 phr of another diene elastomer; - from 100 to 150 phr of a reinforcing inorganic filler; - a plasticizing system comprising: - according to a content A of between 10 and 60 phr, a thermoplastic hydrocarbon resin exhibiting a Tg of greater than 20°C; - according to a content B of between 10 and 60 phr, a liquid plasticizing agent; - it being understood that the total content A+B is greater than 50 phr. - from 50 to 100 phr of a copolymer based on styrene and butadiene showing a glass transition temperature comprised between -80°C and 0°C; - optionally from 0 to 50 phr of another diene elastomer; - from 100 to 150 phr of a reinforcing inorganic filler; - a plasticizing system comprising: - according to a content A of between 10 and 60 phr, a thermoplastic hydrocarbon resin exhibiting a Tg of greater than 20°C; - according to a content B of between 10 and 60 phr, a liquid plasticizing agent; - it being understood that the total content A+B is greater than 50 phr. - according to a content A of between 10 and 60 phr, a thermoplastic hydrocarbon resin exhibiting a Tg of greater than 20°C; - according to a content B of between 10 and 60 phr, a liquid plasticizing agent; - it being understood that the total content A+B is greater than 50 phr.
A vehicle luminaire comprising: a flange ; a mount portion provided on one side of the flange ; a light-emitting unit that is provided on an end of the mount portion opposite to the flange side and includes at least one light-emitting element ; a holder which is provided on another side of the flange and into which a connector is insertable; and at least one first thermal radiation fin that is provided on the another side of the flange and extends from a peripheral edge of the flange toward the holder ; and at least one second thermal radiation fin that is provided on the another side of the flange and extends along the peripheral edge of the flange and is provided in a direction intersecting a direction in which the first thermal radiation fin and the holder are aligned, characterized by : the luminaire satisfying the following expression: L1 > L2, and L1 ≤ L3a, wherein L1 represents a distance between a surface of the flange and the end face of the holder opposite to the flange side, L2 represents a distance between the surface of the flange and the holder -side end of the end face of the first thermal radiation fin opposite to the flange side, and L3a represents a distance between the surface of the flange and the end face of the second thermal radiation fin opposite to the flange side. a flange ; a mount portion provided on one side of the flange ; a light-emitting unit that is provided on an end of the mount portion opposite to the flange side and includes at least one light-emitting element ; a holder which is provided on another side of the flange and into which a connector is insertable; and at least one first thermal radiation fin that is provided on the another side of the flange and extends from a peripheral edge of the flange toward the holder ; and at least one second thermal radiation fin that is provided on the another side of the flange and extends along the peripheral edge of the flange and is provided in a direction intersecting a direction in which the first thermal radiation fin and the holder are aligned, characterized by : the luminaire satisfying the following expression: L1 > L2, and L1 ≤ L3a, wherein L1 represents a distance between a surface of the flange and the end face of the holder opposite to the flange side, L2 represents a distance between the surface of the flange and the holder -side end of the end face of the first thermal radiation fin opposite to the flange side, and L3a represents a distance between the surface of the flange and the end face of the second thermal radiation fin opposite to the flange side. L1 represents a distance between a surface of the flange and the end face of the holder opposite to the flange side, L2 represents a distance between the surface of the flange and the holder -side end of the end face of the first thermal radiation fin opposite to the flange side, and L3a represents a distance between the surface of the flange and the end face of the second thermal radiation fin opposite to the flange side.
A system for starting a turbine engine , comprising: a gearbox having a gearbox input shaft , the gearbox , in use, coupled to the turbine engine and the gearbox input shaft , in use, rotatively coupled to a spool of the turbine engine via the gearbox; a first starter coupled to the gearbox input shaft , wherein the first starter is an air turbine starter; and a second starter having a second-starter output shaft , the second-starter output shaft coaxial with the gearbox input shaft , wherein the second starter is an electric starter-generator, the electric starter-generator being connected alternatively between an auxiliary power source and an auxiliary load, wherein the second starter is coupled to gearbox input shaft through the first starter . a gearbox having a gearbox input shaft , the gearbox , in use, coupled to the turbine engine and the gearbox input shaft , in use, rotatively coupled to a spool of the turbine engine via the gearbox; a first starter coupled to the gearbox input shaft , wherein the first starter is an air turbine starter; and a second starter having a second-starter output shaft , the second-starter output shaft coaxial with the gearbox input shaft , wherein the second starter is an electric starter-generator, the electric starter-generator being connected alternatively between an auxiliary power source and an auxiliary load, wherein the second starter is coupled to gearbox input shaft through the first starter .
A transition metal complex represented by the following Chemical Formula 1: wherein, in Chemical Formula 1, R 1 to R 7 are each independently hydrogen, a C1-20 hydrocarbyl group, or a C1-20 heterohydrocarbyl group; M is a Group 4 transition metal; Q 1 and Q 2 are each independently hydrogen, a halogen, a C1-20 alkyl group, a C2-20 alkenyl group, a C6-20 aryl group, a C7-20 alkylaryl group, a C7-20 arylalkyl group, a C1-20 alkylamino group, a C6-20 arylamino group, or a C1-20 alkylidene group; Z is phosphorous (P), arsenic (As), or antimony (Sb); and X 1 to X 3 are each independently hydrogen, a halogen, a C1-20 hydrocarbyl group, or a C1-20 heterohydrocarbyl group. R 1 to R 7 are each independently hydrogen, a C1-20 hydrocarbyl group, or a C1-20 heterohydrocarbyl group; M is a Group 4 transition metal; Q 1 and Q 2 are each independently hydrogen, a halogen, a C1-20 alkyl group, a C2-20 alkenyl group, a C6-20 aryl group, a C7-20 alkylaryl group, a C7-20 arylalkyl group, a C1-20 alkylamino group, a C6-20 arylamino group, or a C1-20 alkylidene group; Z is phosphorous (P), arsenic (As), or antimony (Sb); and X 1 to X 3 are each independently hydrogen, a halogen, a C1-20 hydrocarbyl group, or a C1-20 heterohydrocarbyl group.