mhurhangee/ep-ind-claims huggingface dataset:
Method for coupling a rotary device, in particular a steam turbine, and a shaft device, in particular a gas turbine, having the following steps: - accelerating the rotary device up to an output rotational speed below the rotational speed of the shaft device, wherein, on reaching the output rotational speed, the shaft device and the rotary device are rotated with respect to one another by a difference angle (Δφ) and, after coupling, an optimum difference angle (Δφ) of Δφ = Δφ opt is achieved; - detecting the difference angle (Δφ) between the shaft device and the rotary device; wherein a rotational speed difference (Δn), formed from the difference between the rotational speed of the rotary device (n DT) and the rotational speed of the shaft device (n GT), is determined; - changing the rotational speed of the rotary device (n DT) by a setpoint rotational speed difference (Δn soll) to a rotational speed setpoint value, wherein the setpoint rotational speed difference (Δn soll) is dependent on the difference angle (Δφ) and on the predicted acceleration value, and the rotational speed setpoint value is determined from the dependency between the setpoint rotational speed difference (Δn soll) and the difference angle (Δφ), wherein when determining the rotational speed setpoint value (Δn DT) the determined rotational speed difference (Δn) is also taken into account. - accelerating the rotary device up to an output rotational speed below the rotational speed of the shaft device, wherein, on reaching the output rotational speed, the shaft device and the rotary device are rotated with respect to one another by a difference angle (Δφ) and, after coupling, an optimum difference angle (Δφ) of Δφ = Δφ opt is achieved; - detecting the difference angle (Δφ) between the shaft device and the rotary device; wherein a rotational speed difference (Δn), formed from the difference between the rotational speed of the rotary device (n DT) and the rotational speed of the shaft device (n GT), is determined; - changing the rotational speed of the rotary device (n DT) by a setpoint rotational speed difference (Δn soll) to a rotational speed setpoint value, wherein the setpoint rotational speed difference (Δn soll) is dependent on the difference angle (Δφ) and on the predicted acceleration value, and the rotational speed setpoint value is determined from the dependency between the setpoint rotational speed difference (Δn soll) and the difference angle (Δφ), wherein when determining the rotational speed setpoint value (Δn DT) the determined rotational speed difference (Δn) is also taken into account.
A method for facilitating data communication, comprising: receiving, with a controller module (36, 46), incoming data related to operation of an aircraft; converting, with the controller module (36, 46), the incoming data to an intermediate format data; evaluating, with the controller module (36, 46), a validity of the intermediate format data; extracting, with the controller module (36, 46), a subset of the converted intermediate format data based on a set of predetermined parameters; converting, with the controller module (36, 46), the subset of the intermediate format data to binary data according to a binary format and including a digital signature on the binary data; performing, with the controller module (36, 46), a set of quality checks on the binary data according to the binary format and wherein at least one of the set of quality checks includes automatically determining if the digital signature is satisfied; outputting the binary data with the digital signature to an appropriate receiving node; and, before the step of converting the subset of the intermediate format data to binary data, comparing, with the controller module (36, 46), the subset of the converted intermediate format data to a prior iteration of the subset of the intermediate format data and converting to the binary data only if the intermediate format data is determined to be valid based on the evaluating and at least one predetermined statistical analysis is satisfied in the comparing. receiving, with a controller module (36, 46), incoming data related to operation of an aircraft; converting, with the controller module (36, 46), the incoming data to an intermediate format data; evaluating, with the controller module (36, 46), a validity of the intermediate format data; extracting, with the controller module (36, 46), a subset of the converted intermediate format data based on a set of predetermined parameters; converting, with the controller module (36, 46), the subset of the intermediate format data to binary data according to a binary format and including a digital signature on the binary data; performing, with the controller module (36, 46), a set of quality checks on the binary data according to the binary format and wherein at least one of the set of quality checks includes automatically determining if the digital signature is satisfied; outputting the binary data with the digital signature to an appropriate receiving node; and, before the step of converting the subset of the intermediate format data to binary data, comparing, with the controller module (36, 46), the subset of the converted intermediate format data to a prior iteration of the subset of the intermediate format data and converting to the binary data only if the intermediate format data is determined to be valid based on the evaluating and at least one predetermined statistical analysis is satisfied in the comparing.
A surgical instrument including: a handle assembly; a first endoscopic portion selectively connectable to a distal portion of the handle assembly and defining a longitudinal axis A-A, the first endoscopic portion including a housing adjacent a proximal portion thereof and an actuation member; a motor disposed in mechanical cooperation with the housing of the first endoscopic portion, the motor being operatively connected to the actuation member for moving the actuation member substantially along the longitudinal axis; and a first end effector selectively connectable to a distal portion of the first endoscopic portion, the first end effector configured to perform a first stapling function; characterized in that a second type of endoscopic portion is selectively connectable to the distal portion of the handle assembly, in that at least one electrical contact is operably disposed with the first endoscopic portion, and in that the handle assembly comprises electrical contacts disposed adjacent a distal portion thereof, wherein the electrical contacts are conductive rings, such that electrical contact and conductive rings are in substantially continuous contact while the endoscopic portion is rotatable about an axis F-F relative to a distal portion of the handle assembly, wherein the conductive rings are internally wired within the handle assembly to a power source and/or a micro controller. a handle assembly; a first endoscopic portion selectively connectable to a distal portion of the handle assembly and defining a longitudinal axis A-A, the first endoscopic portion including a housing adjacent a proximal portion thereof and an actuation member; a motor disposed in mechanical cooperation with the housing of the first endoscopic portion, the motor being operatively connected to the actuation member for moving the actuation member substantially along the longitudinal axis; and a first end effector selectively connectable to a distal portion of the first endoscopic portion, the first end effector configured to perform a first stapling function; characterized in that a second type of endoscopic portion is selectively connectable to the distal portion of the handle assembly, in that at least one electrical contact is operably disposed with the first endoscopic portion, and in that the handle assembly comprises electrical contacts disposed adjacent a distal portion thereof, wherein the electrical contacts are conductive rings, such that electrical contact and conductive rings are in substantially continuous contact while the endoscopic portion is rotatable about an axis F-F relative to a distal portion of the handle assembly, wherein the conductive rings are internally wired within the handle assembly to a power source and/or a micro controller.
An information processing device comprising: a processing unit that is configured to perform computation processing of a detection signal of a radar; and a control unit (204, 205) that is configured to control a computation processing mode in the processing unit on a basis of detection result of another sensor (221, 222, 223), characterized in that the radar is of FCM mode and in that the control unit (204, 205) is configured to control at least one of a computation area or computation accuracy of computation processing in the processing unit on a basis of detection result of the another sensor (221, 222, 223). a processing unit that is configured to perform computation processing of a detection signal of a radar; and a control unit (204, 205) that is configured to control a computation processing mode in the processing unit on a basis of detection result of another sensor (221, 222, 223), characterized in that the radar is of FCM mode and in that the control unit (204, 205) is configured to control at least one of a computation area or computation accuracy of computation processing in the processing unit on a basis of detection result of the another sensor (221, 222, 223).
Apparatus comprising: a fibrotic band interrupter 106) moveable into a space in a muscle wall and operable to break at least one fibrotic band in the wall to at least partially restore contractibility of the muscle wall, the interrupter comprising a hollow cylinder and an ovular-shaped rigid hollow dilator element provided on an outer surface of a deploying end of the hollow cylinder, wherein the dilator element is rigid and radially enlarged relative to the cylinder to dilate the space in the muscle wall to break the fibrotic band in the wall, and a plunger being slidably disposed in the hollow cylinder of the interrupter; and an implant (100A-100G) provided within the hollow cylinder of the fibrotic band interrupter and disposable in the space by operation of the plunger to deploy the implant during dilation, the implant being biased to a radially enlarged configuration, such that the implant assumes a radially contracted configuration when the muscle wall causes the space to contract, and the implant assumes the radially enlarged configuration when the muscle wall causes the space to dilate such that the implant remains in contact with the muscle wall surrounding the space. a fibrotic band interrupter 106) moveable into a space in a muscle wall and operable to break at least one fibrotic band in the wall to at least partially restore contractibility of the muscle wall, the interrupter comprising a hollow cylinder and an ovular-shaped rigid hollow dilator element provided on an outer surface of a deploying end of the hollow cylinder, wherein the dilator element is rigid and radially enlarged relative to the cylinder to dilate the space in the muscle wall to break the fibrotic band in the wall, and a plunger being slidably disposed in the hollow cylinder of the interrupter; and an implant (100A-100G) provided within the hollow cylinder of the fibrotic band interrupter and disposable in the space by operation of the plunger to deploy the implant during dilation, the implant being biased to a radially enlarged configuration, such that the implant assumes a radially contracted configuration when the muscle wall causes the space to contract, and the implant assumes the radially enlarged configuration when the muscle wall causes the space to dilate such that the implant remains in contact with the muscle wall surrounding the space.
An artificial dielectric material comprising a plurality of sheets of a dielectric material and a plurality of short conductive tubes placed in the sheets of the dielectric material, wherein a length of the short conductive tube is 0.2-5 times of respective diameter and a tube diameter is twenty times less than a wave length of an operating frequency, the sheets of the dielectric material containing the short conductive tubes are separated by sheets of the dielectric material without the short conductive tubes, and wherein axes of the tubes are orientated along at least two different directions.
Head-worn display optics comprising a multicomponent lens system (100, 200) including: a first lens (115, 215), the first lens including a pattern of photoresist material (140, 240); a second lens (125, 225) bonded with the first lens by the photoresist material; an air gap region (160, 260) between the first lens and the second lens; wherein the photoresist pattern defines the air gap region between the first lens and the second lens. a first lens (115, 215), the first lens including a pattern of photoresist material (140, 240); a second lens (125, 225) bonded with the first lens by the photoresist material; an air gap region (160, 260) between the first lens and the second lens; wherein the photoresist pattern defines the air gap region between the first lens and the second lens.
A composition for treating arthropods comprising a formulation containing at least one first silicone surfactant selected from the group consisting of wherein y=6-10, and at least one second silicone surfactant selected from the group consisting of wherein y=6-10, in a sufficient concentration to cause a synergistic knockdown level on treated arthropods, wherein the at least one first silicone surfactant and the at least one second surfactant are present in the formulation at a concentration of at least 0.1% by weight to cause a synergistic knockdown level on treated arthropods within 60 seconds after treatment of the arthropods with the formulation.
A method comprising: performing a marine geophysical survey by: towing a plurality of high-frequency sources spread along a width of an array of sensors, the high-frequency sources having a first source density with respect to the width of the array of sensors; and simultaneously towing a plurality of mid-frequency sources spread along the width of the array of sensors, the mid-frequency sources have a second source density with respect to the width of the array of sensors, the second source density being lower than the first source density; and simultaneously towing one or more low-frequency sources spread along the width of the array of sensors, the low-frequency sources having a third source density with respect to the width of the array of sensors, the third source density being lower than the first and second source density; and activating the high-frequency, mid-frequency, and low-frequency sources. towing a plurality of high-frequency sources spread along a width of an array of sensors, the high-frequency sources having a first source density with respect to the width of the array of sensors; and simultaneously towing a plurality of mid-frequency sources spread along the width of the array of sensors, the mid-frequency sources have a second source density with respect to the width of the array of sensors, the second source density being lower than the first source density; and simultaneously towing one or more low-frequency sources spread along the width of the array of sensors, the low-frequency sources having a third source density with respect to the width of the array of sensors, the third source density being lower than the first and second source density; and activating the high-frequency, mid-frequency, and low-frequency sources.
A packaging comprising a container surrounding a container interior, wherein at least the inner surface of the container in contact with the container interior is produced from a composition which comprises - a thermoplastic polymer, and - a plasticizer composition comprising -- a polymeric plasticizer and -- a polyol ester, and wherein the container is at least partly filled with a lipophilic packed product; and wherein the polyol ester is an ester of a C 1 -C 10 -monocarboxylic acid and a diol, triol or tetraol. - a thermoplastic polymer, and - a plasticizer composition comprising -- a polymeric plasticizer and -- a polyol ester, and wherein the container is at least partly filled with a lipophilic packed product; and wherein the polyol ester is an ester of a C 1 -C 10 -monocarboxylic acid and a diol, triol or tetraol. -- a polymeric plasticizer and -- a polyol ester,
A device for mixing, grinding, drying, deagglomerating, comminuting or coating of feedstock comprising a rotor (18, 18') mounted on a drive shaft rotating around an axis within a housing and having a cylindrical or conical shell surface and a stator configured to be fixed relative to the housing and encompassing the rotor such that a radial working gap is formed, the rotor (18,18') having at least one rotor element (28, 28') subdivided in radial direction into an inner area forming a carrier non-rotatably connected to the drive shaft and an outer area forming the rotor tools held by the carrier and interacting with the stator tools on the inner circumference of the stator, wherein the feedstock is supplied in the carrier gas stream to the working gap, characterised in that the inner area forming a carrier and the outer area forming the rotor tools have a monolithic shape and that to form the rotor tools at the outer circumference of the at least one rotor element (28, 28') a plurality of recesses are arranged and in that the areas between two adjacent recesses form webs (26, 27) forming the active edges of the rotor tools required for the processing of the feedstock whereby the tangential spacings between two adjacent recesses form the first axial webs and the areas between two adjacent circumferential planes form a continuous annular web or an annular web with axial length offsets.
A method for preparing an amorphous bulk metallic Group VIII/Group VIB catalyst precursor containing at least 10 wt% carbon, which method comprises: i) combining at least one Group VIII metal reagent and at least one Group VIB metal reagent with at least one organic complexing agent by, a) forming a solution containing an effective amount of at least one Group VIII metal reagent and an effective amount of at least one Group VIB metal reagent in a solvent; and b) mixing said solution with an effective amount of an organic complexing agent thereby forming a mixture wherein the molar ratio of organic complexing agent to metal is greater than 3:1; and ii) heating said mixture to a temperature between 300°C and 400°C for 0.5 to 24 hours to form a catalyst precursor containing from 10 wt% to 60 wt% carbon, the catalyst precursor having a surface area from 0.1 m 2 /g to 16 m 2 /g as measured by Brunauer-Emmett-Teller method; wherein the organic complexing agent is selected from the group consisting of pyruvic acid, levulinic acid, 4-acetylbutyric acid, 1,3-acetonedicarboxylic acid, 3-oxo propanoic acid, 4-oxo butanoic acid, 2,3-diformyl succinic acid, 5-oxo pentanoic acid, 4-oxo pentanoic acid, thioglycolic acid, ethyl glyoxylate, glycolic acid, glucose, gluconic acid, glycine, oxamic acid, glyoxylic acid, glyoxylic acid 2-oxime, ethylenediaminetetraacetic acid, nitrilotriacetic acid, N-methylaminodiacetic acid, iminodiacetic acid, citric acid, oxalic acid, 2-ketogulonic acid, keto-gluconic acid, alpha-ketoglutaric acid, 2-ketobutyric acid, acetylacetone, and oxalacetic acid. i) combining at least one Group VIII metal reagent and at least one Group VIB metal reagent with at least one organic complexing agent by, a) forming a solution containing an effective amount of at least one Group VIII metal reagent and an effective amount of at least one Group VIB metal reagent in a solvent; and b) mixing said solution with an effective amount of an organic complexing agent thereby forming a mixture wherein the molar ratio of organic complexing agent to metal is greater than 3:1; and a) forming a solution containing an effective amount of at least one Group VIII metal reagent and an effective amount of at least one Group VIB metal reagent in a solvent; and b) mixing said solution with an effective amount of an organic complexing agent thereby forming a mixture wherein the molar ratio of organic complexing agent to metal is greater than 3:1; and ii) heating said mixture to a temperature between 300°C and 400°C for 0.5 to 24 hours to form a catalyst precursor containing from 10 wt% to 60 wt% carbon, the catalyst precursor having a surface area from 0.1 m 2 /g to 16 m 2 /g as measured by Brunauer-Emmett-Teller method;
A system for improving the efficiency of a power generation facility, comprising: a turbine comprising a compressor which receives inlet-air, a combustion system and a turbine section, wherein the turbine produces an exhaust-gas; a heat recovery steam generator (HRSG) which receives a portion of the exhaust-gas and produces steam; and a preheater that obtains heat energy from the HRSG and that is configured to use that heat energy to improve the efficiency of the power generation facility, wherein the heat energy obtained from the HRSG is obtained from a fluid drawn via a supply line from a predetermined point within the HRSG, and wherein after heat energy has been extracted from the fluid, the fluid is returned via a return line to the HRSG at a location immediately downstream from the point at which it was initially drawn from the HRSG. a turbine comprising a compressor which receives inlet-air, a combustion system and a turbine section, wherein the turbine produces an exhaust-gas; a heat recovery steam generator (HRSG) which receives a portion of the exhaust-gas and produces steam; and a preheater that obtains heat energy from the HRSG and that is configured to use that heat energy to improve the efficiency of the power generation facility, wherein the heat energy obtained from the HRSG is obtained from a fluid drawn via a supply line from a predetermined point within the HRSG, and wherein after heat energy has been extracted from the fluid, the fluid is returned via a return line to the HRSG at a location immediately downstream from the point at which it was initially drawn from the HRSG.
A method of wireless communication performed by a first user equipment, UE, comprising: transmitting information in a device-to-device, D2D, communication including at least one of a discovery signal or a scheduling assignment to a second UE, the information indicating explicitly whether the second UE should use a direct feedback path for transmitting feedback from the second UE to the first UE or an indirect feedback path for transmitting feedback from the second UE to the first UE; and receiving feedback from the second UE through one of the direct feedback path or the indirect feedback path based on the information indicated in the D2D communication. transmitting information in a device-to-device, D2D, communication including at least one of a discovery signal or a scheduling assignment to a second UE, the information indicating explicitly whether the second UE should use a direct feedback path for transmitting feedback from the second UE to the first UE or an indirect feedback path for transmitting feedback from the second UE to the first UE; and receiving feedback from the second UE through one of the direct feedback path or the indirect feedback path based on the information indicated in the D2D communication.