mhurhangee/ep-ind-claims huggingface dataset:
A two-part moisture curable composition comprising: 1) a first part comprising at least one multifunctional polyol; 2) a second part comprising: (a) at least one polysiloxane polymer that is: (i) a di-functional polysiloxane with the formula: where a ≥1; or (ii) a multi-functional polysiloxane with the formula: where a≥1 and b>1; and (b) at least one isocyanate functional organic compound; and 3) solvent. 1) a first part comprising at least one multifunctional polyol; 2) a second part comprising: (a) at least one polysiloxane polymer that is: (i) a di-functional polysiloxane with the formula: where a ≥1; or (ii) a multi-functional polysiloxane with the formula: where a≥1 and b>1; and (b) at least one isocyanate functional organic compound; and (a) at least one polysiloxane polymer that is: (i) a di-functional polysiloxane with the formula: where a ≥1; or (ii) a multi-functional polysiloxane with the formula: where a≥1 and b>1; and (i) a di-functional polysiloxane with the formula: where a ≥1; or (ii) a multi-functional polysiloxane with the formula: where a≥1 and b>1; and (b) at least one isocyanate functional organic compound; and 3) solvent.
A device comprising: a) an electrical connector; and b) a flex circuit that is coupled to the electrical connector, the flex circuit comprising: a) a substrate that includes conductive traces terminating with contact pads; and b) a series of slots located in between the contact pads, wherein each slot in the series of slots has a length, characterized in that the length of each slot in the series of slots is longer than a length of a given contact pad, and c) the electrical connector has ribs that are configured to fit into the slots and provide insulation between adjacent conductor pads. a) an electrical connector; and b) a flex circuit that is coupled to the electrical connector, the flex circuit comprising: a) a substrate that includes conductive traces terminating with contact pads; and b) a series of slots located in between the contact pads, wherein each slot in the series of slots has a length, characterized in that the length of each slot in the series of slots is longer than a length of a given contact pad, and c) the electrical connector has ribs that are configured to fit into the slots and provide insulation between adjacent conductor pads. a) a substrate that includes conductive traces terminating with contact pads; and b) a series of slots located in between the contact pads, wherein each slot in the series of slots has a length, characterized in that the length of each slot in the series of slots is longer than a length of a given contact pad, and c) the electrical connector has ribs that are configured to fit into the slots and provide insulation between adjacent conductor pads.
A data interface configuration method, comprising: receiving, by a second device, an application program command word sent by a first device after the first device starts an application program, the application program command word being corresponding to the application program; parsing the application program command word; and according to a preset mapping relationship, obtaining a type of a function module corresponding to the application program command word; connecting a data interface to the function module corresponding to the application program command word according to the parsing result; wherein the data interface is a data interface on the second device, and the function module is a function module in the second device; wherein the function module is hardware resources in the second device, the function module is corresponding to the application program software and the application program software is installed at the first device. receiving, by a second device, an application program command word sent by a first device after the first device starts an application program, the application program command word being corresponding to the application program; parsing the application program command word; and according to a preset mapping relationship, obtaining a type of a function module corresponding to the application program command word; connecting a data interface to the function module corresponding to the application program command word according to the parsing result; wherein the data interface is a data interface on the second device, and the function module is a function module in the second device; wherein the function module is hardware resources in the second device, the function module is corresponding to the application program software and the application program software is installed at the first device.
A computing system using low-fat pointers, comprising: a memory configured to be accessed by the low-fat pointers; a processing core (122, 124, 126, 128) configured to access the memory; a memory safety peripheral configured to receive a pointer request, wherein the pointer is a low-fat pointer and to verify that the pointer request is within required memory bounds, wherein the memory safety peripheral is configured to store an indication of a physical address via which the pointer request was submitted; an interrupt service routine included in a device driver in the processing core (122, 124, 126, 128) to perform a translation between the physical address indication and the process identifier of the process associated with the pointer request that is outside the required memory bounds; an interrupt controller configured to receive interrupts and to communicate interrupts to processes running on the processing core (122, 124, 126, 128), wherein the interrupt controller is configured to receive a memory bounds interrupt when the memory safety peripheral verifies that the pointer request is outside the required memory bounds; and to forward the memory bounds interrupt to the device driver; wherein the device driver is configured to query the memory safety peripheral to determine the process associated with the memory bounds interrupt. a memory configured to be accessed by the low-fat pointers; a processing core (122, 124, 126, 128) configured to access the memory; a memory safety peripheral configured to receive a pointer request, wherein the pointer is a low-fat pointer and to verify that the pointer request is within required memory bounds, wherein the memory safety peripheral is configured to store an indication of a physical address via which the pointer request was submitted; an interrupt service routine included in a device driver in the processing core (122, 124, 126, 128) to perform a translation between the physical address indication and the process identifier of the process associated with the pointer request that is outside the required memory bounds; an interrupt controller configured to receive interrupts and to communicate interrupts to processes running on the processing core (122, 124, 126, 128), wherein the interrupt controller is configured to receive a memory bounds interrupt when the memory safety peripheral verifies that the pointer request is outside the required memory bounds; and to forward the memory bounds interrupt to the device driver; wherein the device driver is configured to query the memory safety peripheral to determine the process associated with the memory bounds interrupt.
A method for level control of a sprung vehicle structure relative to a wheel suspension, with which distance values between the vehicle structure and the wheel suspension are determined and are controlled to a variably predeterminable target level value (H1, H2) by activating a spring system, wherein a current type of road is determined depending on a vehicle position and on map data and the target level value is set (S5, S6) depending on the type of road that was determined; characterized by the deployment of an aerodynamic surface element that is disposed in the bottom region at the front of the motor vehicle for the reduction of air turbulence at the underside of the vehicle if the target level value is reduced.
Distress flare comprising: - a cartridge comprising two ends (120a, 120b) connected by a side surface; - activation means configured for expelling the cartridge into the sky; - illuminating means powered by a battery and capable of emitting visible light; the distress flare being characterized in that said illuminating means are arranged on the side surface and in that the distress flare further comprises an inflatable shell, covering the side surface, suitable for being deployed under the effect of deploying means and of diffusing the visible light. - a cartridge comprising two ends (120a, 120b) connected by a side surface; - activation means configured for expelling the cartridge into the sky; - illuminating means powered by a battery and capable of emitting visible light; the distress flare being characterized in that said illuminating means are arranged on the side surface and in that the distress flare further comprises an inflatable shell, covering the side surface, suitable for being deployed under the effect of deploying means and of diffusing the visible light.
A safety switch for guarding access to industrial machines and plants, comprising: - a switching device adapted to be anchored to a fixed part of the access to be guarded and housing switching means for the control of one or more control and/or service circuits of the machine or plant; - a driving device adapted to be anchored to the movable part of the access and to interact with said switching means upon the opening/closing the access for opening/closing one or more circuits; - signaling means comprising one or more sources of light signals adapted to emit one or more light and/or visible signals representative of the state of said one or more circuits; wherein said switching device has at least one portion or cap made of a transparent or translucent material which encloses one or more of said sources of light signals to make them visible from the outside at least in the powered condition characterized in that said portion or cap made of transparent or translucent material extends at least partially on at least two faces of said switching device to be visible from at least two sides with respect to said switching device when in the anchored position. - a switching device adapted to be anchored to a fixed part of the access to be guarded and housing switching means for the control of one or more control and/or service circuits of the machine or plant; - a driving device adapted to be anchored to the movable part of the access and to interact with said switching means upon the opening/closing the access for opening/closing one or more circuits; - signaling means comprising one or more sources of light signals adapted to emit one or more light and/or visible signals representative of the state of said one or more circuits;
A combustion gas treatment method characterized in that in a combustion gas extraction probe for extracting a high-temperature combustion gas while cooling said high-temperature combustion gas with a low-temperature gas, making said low-temperature gas flow in a direction that is substantially perpendicular to a sucking direction of the high-temperature combustion gas and is toward a center of a flow of said high-temperature combustion gas such that said low-temperature gas reaches a central portion of said high-temperature combustion gas for mixed cooling and that the low-temperature gas has no velocity vector ingredient in a direction opposite to the flow of the high-temperature combustion gas, in that regardless of amount of the high-temperature combustion gas extracted, amount of the low-temperature gas discharged is substantially uniformly maintained, and cooling gas is mixed again between an exit of said probe and an extracted gas disposal equipment in a rear stage of said probe to adjust said combustion gas to a predetermined temperature.
A resin composition containing a polyimide-based resin and a methylol-based compound, the resin composition being characterized in that the polyimide-based resin has an acid dianhydride residue and a diamine residue, and has as the diamine residue at least a residue of a polysiloxane-based diamine represented by General formula and a residue of an aromatic diamine having a hydroxyl group n is a natural number, and an average value thereof calculated from an average molecular weight of the polysiloxane-based diamine is in a range of 5 to 30; R 1 and R 2 may be individually the same or different, indicating an alkylene group or a phenylene group whose carbon number is 1 to 30; R 3 to R 6 may be individually the same or different, indicating an alkyl group, a phenyl group or a phenoxy group whose carbon number is 1 to 30, wherein as the diamine residue the residue of the aromatic diamine having a hydroxyl group is contained at 1 to 40 mol% in a total amount of the diamine residue, and wherein the aromatic diamine having a hydroxyl group is an aromatic diamine represented by any one of General formulas to: at least one of R 7 to R 10 is a hydroxyl group, and the others may be the same or different, indicating a group selected from a hydrogen atom, an alkyl group whose carbon number is 1 to 30, an alkoxy group whose carbon number 1 to 30, a halogen, a carboxyl group, a sulfone group, a nitro group, and a cyano group; X 1 indicates a group selected from a direct bond, O, S, SO, SO 2, CO, CH 2, C(CH 3) 2 and C(CF 3) 2 at least one of R 11 to R 18 is a hydroxyl group, and the others may be the same or different, indicating a group selected from a hydrogen atom, an alkyl group whose carbon number is 1 to 30, an alkoxy group whose carbon number 1 to 30, a halogen, a carboxyl group, a sulfone group, a nitro group, and a cyano group; X 2 and Y 2 may be individually the same or different, indicating a group selected from a direct bond, O, S, SO, SO 2, CO, CH 2, C(CH 3) 2 and C(CF 3) 2; at least one of R 19 to R 30 is a hydroxyl group, and the others may be the same or different, indicating a group selected from a hydrogen atom, an alkyl group whose carbon number is 1 to 30, an alkoxy group whose carbon number 1 to 30, a halogen, a carboxyl group, a sulfone group, a nitro group, and a cyano group; X 3, Y 3 and Z 3 may be individually the same or different, indicating a group selected from a direct bond, O, S, SO, SO 2, CO, CH 2, C(CH 3) 2 and C(CF 3) 2; at least one of R 31 to R 46 is a hydroxyl group, and the others may be the same or different, indicating a group selected from a hydrogen atom, an alkyl group whose carbon number is 1 to 30, an alkoxy group whose carbon number 1 to 30, a halogen, a carboxyl group, a sulfone group, a nitro group, and a cyano group.
A method of expanding the operating range of a metrology system for measuring aspheric test objects comprising steps of: associating an optical wavefront propagator with a physical test object in a plurality of different relationships for conveying optical measurement wavefronts to the test object; acquiring partially overlapping optical wavefront measurements of the test object in each of the different relationships by measuring shapes of the measurement wavefronts with an optical wavefront-measuring gauge having a limited capture range of wavefront shapes; reshaping the measurement wavefront into an aspheric form with a variable optical aberrator between a limited number of the measurements in the different relationships to maintain the measurement wavefront within the capture range of the wavefront-measuring gauge; incorporating compensators representing systematic errors attributable to the variable optical aberrator, in an operation for assembling, the partially overlapping measurements into a composite measurement, and acquiring values for the compensators in the operation for reducing differences between overlapping portions of the measurements that are at least partially attributable to the reshaping of the measurement wavefront by the variable optical aberrator. associating an optical wavefront propagator with a physical test object in a plurality of different relationships for conveying optical measurement wavefronts to the test object; acquiring partially overlapping optical wavefront measurements of the test object in each of the different relationships by measuring shapes of the measurement wavefronts with an optical wavefront-measuring gauge having a limited capture range of wavefront shapes; reshaping the measurement wavefront into an aspheric form with a variable optical aberrator between a limited number of the measurements in the different relationships to maintain the measurement wavefront within the capture range of the wavefront-measuring gauge; incorporating compensators representing systematic errors attributable to the variable optical aberrator, in an operation for assembling, the partially overlapping measurements into a composite measurement, and acquiring values for the compensators in the operation for reducing differences between overlapping portions of the measurements that are at least partially attributable to the reshaping of the measurement wavefront by the variable optical aberrator.
A drive arrangement for a wind turbine, the drive arrangement comprising: a rotor shaft; a gearbox assembly for transferring torque from the rotor shaft to an electrical power generator, the gearbox assembly comprising: • an input shaft; • an output shaft; • a primary gear stage; and • a secondary gear stage; • each gear stage having a plurality of planet gears (52; 58) positioned around the output shaft, an annular gear (84; 86) meshed with the planet gears, and a sun gear (82; 42) meshed with the planet gears and arranged to transfer torque to the output shaft; a drive transfer mechanism for transferring torque from the rotor shaft into the gearbox assembly via the input shaft; and a primary load carrying member for releasably mounting the gearbox assembly to a housing of a wind turbine; wherein the rotor shaft is at least partly hollow, having an internal cavity in which at least part of the gearbox assembly and at least part of the drive transfer mechanism are located; and wherein the gearbox assembly comprising the input shaft, output shaft, primary and secondary gear stages is mountable within the rotor shaft as a single unit by means of the primary load carrying member. a rotor shaft; a gearbox assembly for transferring torque from the rotor shaft to an electrical power generator, the gearbox assembly comprising: • an input shaft; • an output shaft; • a primary gear stage; and • a secondary gear stage; • each gear stage having a plurality of planet gears (52; 58) positioned around the output shaft, an annular gear (84; 86) meshed with the planet gears, and a sun gear (82; 42) meshed with the planet gears and arranged to transfer torque to the output shaft; • an input shaft; • an output shaft; • a primary gear stage; and • a secondary gear stage; • each gear stage having a plurality of planet gears (52; 58) positioned around the output shaft, an annular gear (84; 86) meshed with the planet gears, and a sun gear (82; 42) meshed with the planet gears and arranged to transfer torque to the output shaft; a drive transfer mechanism for transferring torque from the rotor shaft into the gearbox assembly via the input shaft; and a primary load carrying member for releasably mounting the gearbox assembly to a housing of a wind turbine; wherein the rotor shaft is at least partly hollow, having an internal cavity in which at least part of the gearbox assembly and at least part of the drive transfer mechanism are located; and wherein the gearbox assembly comprising the input shaft, output shaft, primary and secondary gear stages is mountable within the rotor shaft as a single unit by means of the primary load carrying member.
An integrally geared compressor having a gearbox, said integrally geared compressor comprises: - a drive gear, the drive gear (215, 315) including a drive shaft coupled to a drive unit; - a first pinion gear meshed with the drive gear (215, 315) on a first side of the drive gear (215, 315), the first pinion gear including a first pinion shaft; - a second pinion gear meshed with the drive gear (215, 315) on a second side of the drive gear (215, 315), the second pinion gear including a second pinion shaft; - a third pinion gear meshed with the drive gear (215, 315) on a different plane than the first pinion gear and the second pinion gear, the third pinion gear includes a third pinion shaft; and a centrifugal compression stage coupled to the second pinion shaft (230, 330); the integrally geared compressor being characterised in that it further comprises: - a positive displacement compression stage coupled to the drive shaft (210, 310), wherein the positive displacement compression stage includes one or more screws, a connection method, and a screw gearing that allows for a speed adjustment of the positive displacement compression stage. - a drive gear, the drive gear (215, 315) including a drive shaft coupled to a drive unit; - a first pinion gear meshed with the drive gear (215, 315) on a first side of the drive gear (215, 315), the first pinion gear including a first pinion shaft; - a second pinion gear meshed with the drive gear (215, 315) on a second side of the drive gear (215, 315), the second pinion gear including a second pinion shaft; - a third pinion gear meshed with the drive gear (215, 315) on a different plane than the first pinion gear and the second pinion gear, the third pinion gear includes a third pinion shaft; and a centrifugal compression stage coupled to the second pinion shaft (230, 330); the integrally geared compressor being characterised in that it further comprises: - a positive displacement compression stage coupled to the drive shaft (210, 310), wherein the positive displacement compression stage includes one or more screws, a connection method, and a screw gearing that allows for a speed adjustment of the positive displacement compression stage. - a positive displacement compression stage coupled to the drive shaft (210, 310), wherein the positive displacement compression stage includes one or more screws, a connection method, and a screw gearing that allows for a speed adjustment of the positive displacement compression stage.