mhurhangee/ep-ind-claims huggingface dataset:
A method of operating an aircraft during a flight, the method comprising: detecting, with an onboard flight crew fatigue monitoring subsystem of the aircraft, that a flight crew member is fatigued; automatically activating, by an automated flight crew training subsystem onboard the aircraft, an automated flight crew training exercise in response to detecting that the flight crew member is fatigued and in response to satisfaction of real-time criteria associated with operation of the aircraft, wherein the real-time criteria, when satisfied, determine that it is a safe time to launch the automated flight crew training exercise; and presenting, via an audiovisual equipment onboard the aircraft, the flight crew member with the automated flight crew training exercise for completion, wherein the automated flight crew training exercise comprises one or more tasks including content to improve pilot airmanship and to increase attentiveness of the flight crew member, wherein the one or more tasks are associated with flight school skills and general aviation skills, and wherein the one or more tasks relate to flight specific parameters of the current flight; and compiling, by the automated flight crew training subsystem, a training record for the flight crew member, wherein the training record includes at least a time to complete the one or more tasks by the flight crew member and accuracy of completion of the one or more tasks by the flight crew member. detecting, with an onboard flight crew fatigue monitoring subsystem of the aircraft, that a flight crew member is fatigued; automatically activating, by an automated flight crew training subsystem onboard the aircraft, an automated flight crew training exercise in response to detecting that the flight crew member is fatigued and in response to satisfaction of real-time criteria associated with operation of the aircraft, wherein the real-time criteria, when satisfied, determine that it is a safe time to launch the automated flight crew training exercise; and presenting, via an audiovisual equipment onboard the aircraft, the flight crew member with the automated flight crew training exercise for completion, wherein the automated flight crew training exercise comprises one or more tasks including content to improve pilot airmanship and to increase attentiveness of the flight crew member, wherein the one or more tasks are associated with flight school skills and general aviation skills, and wherein the one or more tasks relate to flight specific parameters of the current flight; and compiling, by the automated flight crew training subsystem, a training record for the flight crew member, wherein the training record includes at least a time to complete the one or more tasks by the flight crew member and accuracy of completion of the one or more tasks by the flight crew member.
An elevator system comprising: an elevator car frame including an interior side, a portion of the elevator car frame including a frame aperture disposed therein and at least one frame mounting aperture located circumferentially around the frame aperture; wherein the frame aperture is configured to provide a means for installation and maintenance of an elevator component (23, 24) that operates external to the elevator car frame; a service panel operably coupled to the interior side of the elevator car frame, the service panel comprising a panel interior side and a panel exterior side, and configured to operate between an open and closed position, the service panel including at least one panel aperture disposed circumferentially around the perimeter of the service panel, each of the at least one panel apertures configured to substantially align with each of the at least one frame mounting apertures to facilitate the attachment of the service panel to an interior portion of the car frame via a fastening device; wherein the elevator component (23, 24) is operably coupled to the panel exterior side; and an elevator car operably coupled to the elevator car frame, the elevator car comprising an interior cavity; wherein the panel exterior side is disposed within the interior cavity when the service panel is in an open position; wherein the elevator component is an elevator safety actuation device and safety. an elevator car frame including an interior side, a portion of the elevator car frame including a frame aperture disposed therein and at least one frame mounting aperture located circumferentially around the frame aperture; wherein the frame aperture is configured to provide a means for installation and maintenance of an elevator component (23, 24) that operates external to the elevator car frame; a service panel operably coupled to the interior side of the elevator car frame, the service panel comprising a panel interior side and a panel exterior side, and configured to operate between an open and closed position, the service panel including at least one panel aperture disposed circumferentially around the perimeter of the service panel, each of the at least one panel apertures configured to substantially align with each of the at least one frame mounting apertures to facilitate the attachment of the service panel to an interior portion of the car frame via a fastening device; wherein the elevator component (23, 24) is operably coupled to the panel exterior side; and an elevator car operably coupled to the elevator car frame, the elevator car comprising an interior cavity; wherein the panel exterior side is disposed within the interior cavity when the service panel is in an open position; wherein the elevator component is an elevator safety actuation device and safety.
A method for inspection of additive manufactured parts and monitoring operational performance of an additive manufacturing apparatus, the method comprising: calibrating a backscatter x-ray system by scanning one or more calibration blocks, the backscatter x-ray system having an emitter that emits x-rays and a detector that receives backscattered x-rays, the one or more calibration blocks having at least one known defect (201, 202, 203, 204, 205, 206); obtaining with the backscatter x-ray system, in real-time during an additively manufactured build process, a backscatter x-ray scan of an area of a build platform, the build platform configured for supporting at least one part during the build process; evaluating, by a processor, the backscatter x-ray scan; and determining, based on the evaluating, whether an operational flaw with the additive manufacturing apparatus has occurred or a defect (201, 202, 203, 204, 205, 206) in the at least one part has occurred. calibrating a backscatter x-ray system by scanning one or more calibration blocks, the backscatter x-ray system having an emitter that emits x-rays and a detector that receives backscattered x-rays, the one or more calibration blocks having at least one known defect (201, 202, 203, 204, 205, 206); obtaining with the backscatter x-ray system, in real-time during an additively manufactured build process, a backscatter x-ray scan of an area of a build platform, the build platform configured for supporting at least one part during the build process; evaluating, by a processor, the backscatter x-ray scan; and determining, based on the evaluating, whether an operational flaw with the additive manufacturing apparatus has occurred or a defect (201, 202, 203, 204, 205, 206) in the at least one part has occurred.
A material reduction machine comprising: an infeed portion operable to receive material to be reduced; a cutting mechanism operable to reduce material fed in from the infeed portion; and an outlet chute (130, 230, 330) having a first end operable to receive the material reduced by the cutting mechanism and a second end operable to discharge the reduced material from the machine, wherein the outlet chute (130, 230, 330) extends along a curved path, characterized in that: the outlet chute (130, 230, 330) includes at least one foraminous interior wall providing communication with at least one sound attenuation layer, the at least one foraminous interior wall provided along one or both of: a radially-inner side of the curved path, and a lateral side of the outlet chute (130, 230, 330). an infeed portion operable to receive material to be reduced; a cutting mechanism operable to reduce material fed in from the infeed portion; and an outlet chute (130, 230, 330) having a first end operable to receive the material reduced by the cutting mechanism and a second end operable to discharge the reduced material from the machine, wherein the outlet chute (130, 230, 330) extends along a curved path, characterized in that: the outlet chute (130, 230, 330) includes at least one foraminous interior wall providing communication with at least one sound attenuation layer, the at least one foraminous interior wall provided along one or both of: a radially-inner side of the curved path, and a lateral side of the outlet chute (130, 230, 330).
A beverage brewing machine comprising an at least one water supply, and a brew chamber wherein the brew chamber is delimited by a wall and a base (2.1), wherein the chamber also comprises an outlet port and at least one water inlet port in communication with the at least one water supply wherein the at least one water inlet port is arranged at an angle (θ theta) of less than 45 degrees relative to the wall to direct inlet water around the wall of the brew chamber; wherein the brewing machine further comprises an air pump and the chamber also comprises at least one fluid outlet port in communication with the air pump.
A self-propelled harvesting machine having an unloading conveyor swing control system which comprises: - an unloading conveyor belng moveable around a pivot axis through a movement range between a first, stowed, position and a second position, - an actuator connected to the conveyor and arranged to move the conveyor throughout the movement range; and, - a user interface device for receiving user-commands to move the conveyor; characterised in that the system further comprises: - a sensor configured to sense an angular position of the conveyor within the movement range and generate a representative position signal; - a controller in communication with the sensor, the actuator and the user interface device; the control system being arranged such that the conveyor is automatically moved into the first stowed position in response to said angular position falling below a predetermined threshold angle and an operator releasing the user interface device. - an unloading conveyor belng moveable around a pivot axis through a movement range between a first, stowed, position and a second position, - an actuator connected to the conveyor and arranged to move the conveyor throughout the movement range; and, - a user interface device for receiving user-commands to move the conveyor; characterised in that the system further comprises: - a sensor configured to sense an angular position of the conveyor within the movement range and generate a representative position signal; - a controller in communication with the sensor, the actuator and the user interface device; the control system being arranged such that the conveyor is automatically moved into the first stowed position in response to said angular position falling below a predetermined threshold angle and an operator releasing the user interface device.
A passive Radio Frequency Identification, RFID device (525, 104) comprising: a memory storing an ID of an electrical device associated with the RFID device; an antenna arranged to receive a Radio Frequency, RF, signal from a RF source (552, 102) that transmits the RF signal based on an IEEE 802.11 wireless network protocol; and circuitry arranged to derive power from the RF signal and, with the power derived from the RF signal, to read data including the ID from the memory, to encode the data in a Service Set Identifier, SSID, based on the wireless network protocol, and to modulate the RF signal to include the SSID; the antenna being further arranged to transmit the modulated RF signal based on the wireless network protocol. a memory storing an ID of an electrical device associated with the RFID device; an antenna arranged to receive a Radio Frequency, RF, signal from a RF source (552, 102) that transmits the RF signal based on an IEEE 802.11 wireless network protocol; and circuitry arranged to derive power from the RF signal and, with the power derived from the RF signal, to read data including the ID from the memory, to encode the data in a Service Set Identifier, SSID, based on the wireless network protocol, and to modulate the RF signal to include the SSID; the antenna being further arranged to transmit the modulated RF signal based on the wireless network protocol.
Process comprising the process steps of: a) addition of diisobutene, b) addition of a compound comprising Pd, wherein the Pd is capable of forming a complex, c) addition of the ligand L1: wherein the ligand L1 is added in an amount in the range from 1.0 mol to 2.0 mol of ligand per mole of Pd, d) addition of acetic acid, e) feeding in of CO, f) heating of the reaction mixture such that the diisobutene is converted to the compound P1: a) addition of diisobutene, b) addition of a compound comprising Pd, wherein the Pd is capable of forming a complex, c) addition of the ligand L1: wherein the ligand L1 is added in an amount in the range from 1.0 mol to 2.0 mol of ligand per mole of Pd, d) addition of acetic acid, e) feeding in of CO, f) heating of the reaction mixture such that the diisobutene is converted to the compound P1:
A polycarbonate resin composition comprising a polycarbonate resin, a black colorant, a yellow colorant, and at least one ultraviolet absorber selected from the group consisting of a benzotriazole-based compound, a benzophenone-based compound, and a triazine-based compound, wherein the yellow colorant is included in an amount of 0.5 ppmw to 5.0 ppmw with respect to the total dry weight of the composition, and wherein an average transmittance in a wavelength region of 380 nm to 420 nm is 1.0 % to 6.5 %, as measured in accordance with ASTM D1003. wherein the yellow colorant is included in an amount of 0.5 ppmw to 5.0 ppmw with respect to the total dry weight of the composition, and wherein an average transmittance in a wavelength region of 380 nm to 420 nm is 1.0 % to 6.5 %, as measured in accordance with ASTM D1003.
A hydraulic hammer comprising a housing with a pressure hole and a drain hole, a sleeve located in the housing, wherein said sleeve comprises a pressure cut and a pressure hole, a head located in the sleeve and configured to reciprocate and interact with an working piece, a pressure line and a drain line, wherein the outer surface of the sleeve has two diametrically opposite longitudinal channels (9, 10), wherein one of the longitudinal channels is connected to the pressure hole of the sleeve, characterised in that the outer surface of the sleeve has circular cuts, and the other longitudinal channel is connected to the pressure line through the pressure cut of the sleeve and the pressure hole of the housing, wherein both longitudinal channels (9,10) are configured to intersect with at least one circular cut of the sleeve.
Process for reducing hexavalent chromium in oxidic solids, which comprises the steps: a) mixing of the oxidic solid containing Cr with a carbon-containing compound which is liquid in the range from 20 to 100°C, b) treatment of the mixture obtained after a) in an indirectly heated reactor at a temperature of from 700°C to 1100°C, particularly preferably at a temperature of from 800°C to 1000°C, under a protective atmosphere, c) cooling of the reaction product obtained after b) to at least 300°C, preferably at least 150°C, under a protective atmosphere, wherein a polyhydroxy compound, preferably glycerol or a liquid polyethylene glycol, particularly preferably polyethylene glycol having a molar mass of up to 600, is used as carbon-containing compound, and the carbon-containing compound preferably decomposes instead of vaporizing at temperatures of > 150°C. a) mixing of the oxidic solid containing Cr with a carbon-containing compound which is liquid in the range from 20 to 100°C, b) treatment of the mixture obtained after a) in an indirectly heated reactor at a temperature of from 700°C to 1100°C, particularly preferably at a temperature of from 800°C to 1000°C, under a protective atmosphere, c) cooling of the reaction product obtained after b) to at least 300°C, preferably at least 150°C, under a protective atmosphere,
An ion exchange resin fixed bed counter-current regeneration device, comprising: a cyclone separator; a regeneration reactor; a fully mixed resin reactor; a desorption solution storage tank; and a regenerant storage tank, wherein the cyclone separator is placed on the top of the regeneration reactor, the upper part of the cyclone separator is connected to the fully mixed resin reactor through a feed inlet, a resin inlet is provided at the bottom of the cyclone separator, the upper part of the regeneration reactor is provided with a fresh water inlet, a resin bed and a resin filter are sequentially arranged from top to bottom inside the regeneration reactor, two ends of the resin filter are respectively connected to a fresh water outlet and the desorption solution storage tank, a resin outlet and a regenerant inlet are provided at the bottom of the regeneration reactor, the resin outlet is connected to the fully mixed resin reactor, the regenerant inlet is respectively connected to the desorption solution storage tank and the regenerant storage tank, one side of the regeneration reactor is also provided with a regenerant outlet, the regenerant outlet is connected to the desorption solution tank. a cyclone separator; a regeneration reactor; a fully mixed resin reactor; a desorption solution storage tank; and a regenerant storage tank, wherein the cyclone separator is placed on the top of the regeneration reactor, the upper part of the cyclone separator is connected to the fully mixed resin reactor through a feed inlet, a resin inlet is provided at the bottom of the cyclone separator, the upper part of the regeneration reactor is provided with a fresh water inlet, a resin bed and a resin filter are sequentially arranged from top to bottom inside the regeneration reactor, two ends of the resin filter are respectively connected to a fresh water outlet and the desorption solution storage tank, a resin outlet and a regenerant inlet are provided at the bottom of the regeneration reactor, the resin outlet is connected to the fully mixed resin reactor, the regenerant inlet is respectively connected to the desorption solution storage tank and the regenerant storage tank, one side of the regeneration reactor is also provided with a regenerant outlet, the regenerant outlet is connected to the desorption solution tank.
A method pertaining to braking of a vehicle combination which comprises a tractor vehicle with a towed vehicle, where both said tractor vehicle and said towed vehicle are arranged to be braked and where said tractor vehicle is provided with a first control unit comprising a function for regulation of coupling force between said tractor vehicle and said towed vehicle, where said regulation of coupling force comprises so-called adaptation data and where said towed vehicle bears an ID specification, characterised by the steps of: - transferring said ID specification from said towed vehicle to said tractor vehicle; - during a braking process, registering adaptation data associated with said braking process together with said ID specification, and further to: during coupling of said tractor vehicle to a towed vehicle with certain ID specification: - determining whether said tractor vehicle's first control unit has adaptation data already registered in it which pertain to the respective towed vehicle; and - using these already registered adaptation data as a basis for said function for regulation of coupling force between said tractor vehicle and said towed vehicle. - transferring said ID specification from said towed vehicle to said tractor vehicle; - during a braking process, registering adaptation data associated with said braking process together with said ID specification, and further to: during coupling of said tractor vehicle to a towed vehicle with certain ID specification: - determining whether said tractor vehicle's first control unit has adaptation data already registered in it which pertain to the respective towed vehicle; and - using these already registered adaptation data as a basis for said function for regulation of coupling force between said tractor vehicle and said towed vehicle. - determining whether said tractor vehicle's first control unit has adaptation data already registered in it which pertain to the respective towed vehicle; and - using these already registered adaptation data as a basis for said function for regulation of coupling force between said tractor vehicle and said towed vehicle.
A method for enhancing corrosion resistance of a tin-based surface on a workpiece comprising: contacting the tin-based surface with a composition comprising a phosphonic acid compound and water to form a phosphorus-based film over the tin-based surface; wherein the composition further comprises an alcohol as an organic solvent in a concentration of less than about 5 vol. % of the composition or ethanol as an organic solvent in a concentration less than about 30 vol. % of the composition. contacting the tin-based surface with a composition comprising a phosphonic acid compound and water to form a phosphorus-based film over the tin-based surface; wherein the composition further comprises an alcohol as an organic solvent in a concentration of less than about 5 vol. % of the composition or ethanol as an organic solvent in a concentration less than about 30 vol. % of the composition.
A hydrogen production apparatus, comprising: a housing holding an electrolyte solution; a diaphragm for the electrolysis of water, the diaphragm partitioning an interior of the housing into a positive-side cell and a negative-side cell; a positive electrode provided inside the positive-side cell; and a negative electrode provided inside the negative-side cell, wherein the diaphragm is a porous membrane allowing passage of water molecules and ions, but not allowing passage of large bubbles, the porous membrane comprising: a first part; and a second part, the first part being provided lower that the second part in a vertical direction of the membrane and with respect to the apparatus, wherein a liquid permeability of the first part is lower than a liquid permeability of the second part. a housing holding an electrolyte solution; a diaphragm for the electrolysis of water, the diaphragm partitioning an interior of the housing into a positive-side cell and a negative-side cell; a positive electrode provided inside the positive-side cell; and a negative electrode provided inside the negative-side cell, wherein the diaphragm is a porous membrane allowing passage of water molecules and ions, but not allowing passage of large bubbles, the porous membrane comprising: a first part; and a second part, the first part being provided lower that the second part in a vertical direction of the membrane and with respect to the apparatus, wherein a liquid permeability of the first part is lower than a liquid permeability of the second part. a first part; and a second part, the first part being provided lower that the second part in a vertical direction of the membrane and with respect to the apparatus, wherein a liquid permeability of the first part is lower than a liquid permeability of the second part.