mhurhangee/ep-ind-claims huggingface dataset:
An air data sensor for determining a plane's angle of attack, static air pressure, total air pressure, Mach number, static air temperature and true air speed in one device using pressure and temperature readings comprising two data probes installed on either side of a fuselage of an aircraft in a redundant configuration which protrude horizontally into the airflow, each data probe comprising: a base having a first surface configured for attachment to a fuselage of the plane; a tip having a tip surface pressure passageway, wherein the tip is rounded; a long portion that is cylindrical, the long portion extending perpendicular to the base between the base and the tip, the long portion having a first air pressure passageway, a second air pressure passageway and third pressure passageway; a temperature passageway in the long portion; and a housing coupled to a second surface of the base opposite the first surface, the housing including a pressure sensor coupled to the tip surface pressure passageway and electronics located on boards, wherein the third pressure passageway is pneumatically connected to a first absolute pressure transducer, the first and second pressure passageways (410, 420) are pneumatically connected to differential a pressure transducer, the tip surface pressure passageway is arranged on the rounded tip at a 45-degree angle or Φ = 41.4° from the long axis of long portion and is pneumatically connected to a second absolute pressure transducer, and a detector that measures temperature is arranged inside the temperature passageway, wherein each of the differential pressure sensor, the first absolute pressure transducer, the second absolute pressure sensor and the temperature detector are coupled to electronics located on boards. a base having a first surface configured for attachment to a fuselage of the plane; a tip having a tip surface pressure passageway, wherein the tip is rounded; a long portion that is cylindrical, the long portion extending perpendicular to the base between the base and the tip, the long portion having a first air pressure passageway, a second air pressure passageway and third pressure passageway; a temperature passageway in the long portion; and a housing coupled to a second surface of the base opposite the first surface, the housing including a pressure sensor coupled to the tip surface pressure passageway and electronics located on boards, wherein the third pressure passageway is pneumatically connected to a first absolute pressure transducer, the first and second pressure passageways (410, 420) are pneumatically connected to differential a pressure transducer, the tip surface pressure passageway is arranged on the rounded tip at a 45-degree angle or Φ = 41.4° from the long axis of long portion and is pneumatically connected to a second absolute pressure transducer, and a detector that measures temperature is arranged inside the temperature passageway, wherein each of the differential pressure sensor, the first absolute pressure transducer, the second absolute pressure sensor and the temperature detector are coupled to electronics located on boards.
Vehicle having at least one battery arrangement which comprises at least one battery unit and a cooling device for dissipating heat from the at least one battery unit, the cooling device being arranged in a load path of the vehicle so as to be deformable when the vehicle is subjected to a force caused by an accident, said cooling device comprising a plurality of cooling ribs around which cooling air flows when the cooling device is in cooling operation, characterised in that at least two battery arrangements are coupled to one another such that, when subjected to the force caused by the accident, they form a rigid block and do not change their position relative to one another.
Movement apparatus for a metal product, said apparatus comprising a first guide device, a second guide device configured to guide the movement of said metal product in a direction of feed, and at least one electro-magnetic inductor (14, 15) located between said first guide device and said second guide device and configured to generate in said metal product a drawing force in said direction of feed, wherein said at least one electro-magnetic inductor (14, 15) comprises a magnetic core and a plurality of coils associated with said magnetic core and each able to be selectively powered electrically to generate in said magnetic core a desired magnetization, wherein said coils are connected to an electric power unit configured to power said coils electrically with multiphase alternate electric currents and said electric power unit comprises an inverter configured to regulate the supply parameters of the multiphase alternate electric current to the coils, wherein said magnetic core is provided with at least one induction surface in which said coils are associated, wherein the movement apparatus comprises a regulation device configured to regulate the position of the at least one electro-magnetic inductor (14, 15), in a direction orthogonal to the direction of feed and to said induction surface of the at least one electro-magnetic inductor (14, 15) and a support structure on which said at least one electro-magnetic inductor (14, 15) is installed, wherein the regulation device comprises a linear actuator attached by one end to the support structure, and by a second end to the at least one electro-magnetic inductor (14, 15) and wherein said regulation device is connected to a control and command unit connected to the electric power unit to command, in an automated way, the movement of the at least one electro-magnetic inductor (14, 15).
A device for assembling and/or sticking together at least two elements that contain air bubbles, comprising at least the following elements: ∘ a chamber including at least a first part that receives the elements to be assembled and a second part, ∘ the first part comprises a pipe equipped with a tap and a vacuum pump, ∘ a means for separating the two parts, making it possible to apply pressure to the elements to be assembled, ∘ a device for introducing and/or evacuating a pressurised effluent on each of the parts, adapted to introduce on the first part and on the second part a pressure that is substantially identical and equal to a pressure sufficient to evacuate the air trapped within the elements to be assembled, and once the air has been evacuated, the device is adapted to apply a pressure to all of the elements to be assembled, while maintaining a lower pressure in the part of the chamber that contains the elements to be assembled, ∘ characterised in that it also comprises a pipe for circulating effluent provided with a tap that enables communication between the two parts and of the chamber. ∘ a chamber including at least a first part that receives the elements to be assembled and a second part, ∘ the first part comprises a pipe equipped with a tap and a vacuum pump, ∘ a means for separating the two parts, making it possible to apply pressure to the elements to be assembled, ∘ a device for introducing and/or evacuating a pressurised effluent on each of the parts, adapted to introduce on the first part and on the second part a pressure that is substantially identical and equal to a pressure sufficient to evacuate the air trapped within the elements to be assembled, and once the air has been evacuated, the device is adapted to apply a pressure to all of the elements to be assembled, while maintaining a lower pressure in the part of the chamber that contains the elements to be assembled, ∘ characterised in that it also comprises a pipe for circulating effluent provided with a tap that enables communication between the two parts and of the chamber.
A method for attenuating undesired content in an audio signal, the method comprising: - receiving an audio input signal (S i); - providing a main audio signal (S a) in dependence on the audio input signal (S i); - determining an input level signal (L n) indicating a signal level (L n,i) of the main audio signal (S a) for each of multiple frequency subbands; - applying a frequency-dependent gain to the main audio signal (S a) to provide an audio output signal (S o); - providing an analysis signal (S n) in dependence on the audio input signal (S i); - determining a classification signal (S c) indicating the presence in the analysis signal (S n) of one or more audio signals belonging to a first predefined audio signal class; - determining a threshold control signal (S t) indicating a frequency-dependent level threshold (72, 75, 76, T f) for multiple frequency subbands in dependence on the classification signal (S c); and - determining the frequency-dependent gain in dependence on signal levels (L n,i) indicated by the input level signal (L n) and the frequency-dependent level threshold (72, 75, 76, T f) indicated by the threshold control signal (S t), characterized in that the frequency dependency of the frequency-dependent level threshold (72, 75, 76, T f) indicated by the threshold control signal (S t) depends on the classification signal (S c). - receiving an audio input signal (S i); - providing a main audio signal (S a) in dependence on the audio input signal (S i); - determining an input level signal (L n) indicating a signal level (L n,i) of the main audio signal (S a) for each of multiple frequency subbands; - applying a frequency-dependent gain to the main audio signal (S a) to provide an audio output signal (S o); - providing an analysis signal (S n) in dependence on the audio input signal (S i); - determining a classification signal (S c) indicating the presence in the analysis signal (S n) of one or more audio signals belonging to a first predefined audio signal class; - determining a threshold control signal (S t) indicating a frequency-dependent level threshold (72, 75, 76, T f) for multiple frequency subbands in dependence on the classification signal (S c); and - determining the frequency-dependent gain in dependence on signal levels (L n,i) indicated by the input level signal (L n) and the frequency-dependent level threshold (72, 75, 76, T f) indicated by the threshold control signal (S t),
An automated system comprising: a camera module comprising: a first infrared camera; a second infrared camera; and a visible light camera; an autonomous vehicle comprising a vertically extendable arm, wherein the camera module is attached to a distal end of the vertically extendable arm; and a processor configured to: initiate movement of the autonomous vehicle around an aircraft according to a predetermined path; initiate a scan of an exterior surface of the aircraft using the first infrared camera, the second infrared camera, the visible light camera, or a combination thereof; determine whether a portion of the exterior surface of the aircraft is damaged based on the scan; in response to a portion of the exterior surface of the aircraft being damaged, use the first infrared camera, the second infrared camera, and the visible light camera to compute dimensional parameters of damage to the exterior surface and generate a three-dimensional model of the portion of the exterior surface of the aircraft. a camera module comprising: a first infrared camera; a second infrared camera; and a visible light camera; a first infrared camera; a second infrared camera; and a visible light camera; an autonomous vehicle comprising a vertically extendable arm, wherein the camera module is attached to a distal end of the vertically extendable arm; and a processor configured to: initiate movement of the autonomous vehicle around an aircraft according to a predetermined path; initiate a scan of an exterior surface of the aircraft using the first infrared camera, the second infrared camera, the visible light camera, or a combination thereof; determine whether a portion of the exterior surface of the aircraft is damaged based on the scan; in response to a portion of the exterior surface of the aircraft being damaged, use the first infrared camera, the second infrared camera, and the visible light camera to compute dimensional parameters of damage to the exterior surface and generate a three-dimensional model of the portion of the exterior surface of the aircraft. initiate movement of the autonomous vehicle around an aircraft according to a predetermined path; initiate a scan of an exterior surface of the aircraft using the first infrared camera, the second infrared camera, the visible light camera, or a combination thereof; determine whether a portion of the exterior surface of the aircraft is damaged based on the scan; in response to a portion of the exterior surface of the aircraft being damaged, use the first infrared camera, the second infrared camera, and the visible light camera to compute dimensional parameters of damage to the exterior surface and generate a three-dimensional model of the portion of the exterior surface of the aircraft.
A recombinant yeast cell comprising a heterologous [2Fe-2S] dihydroxyacid dehydratase (DHAD) comprising: (a) an amino acid sequence that matches a Profile Hidden Markov Model prepared using the amino acid sequences of SEQ ID NOs: 164, 168, 230, 232, 298, 310, 344, and 346 with an E value of less than 10 -5; and (b) three conserved cysteine residues that correspond to positions 56, 129, and 201 of the Streptococcus mutans DHAD amino acid sequence (SEQ ID NO: 168); wherein the heterologous DHAD enzyme activity for conversion of 2,3-dihydroxyisovalerate to α-ketoisovalerate is increased compared to an endogenous DHAD enzyme, wherein the recombinant yeast cell further comprises an isobutanol biosynthetic pathway, and wherein said heterologous [2Fe-2S] DHAD enzyme is not a spinach enzyme. (a) an amino acid sequence that matches a Profile Hidden Markov Model prepared using the amino acid sequences of SEQ ID NOs: 164, 168, 230, 232, 298, 310, 344, and 346 with an E value of less than 10 -5; and (b) three conserved cysteine residues that correspond to positions 56, 129, and 201 of the Streptococcus mutans DHAD amino acid sequence (SEQ ID NO: 168);
Closing device for a container, in particular a glass container, which has a container opening, the closing device comprising a lid element for closing the container opening, a chamber which is arranged on the lid element, and an inner housing, the chamber and the inner housing having mutually corresponding closing means and opening means which interact with one another such that a discharge opening associated with the chamber can be released by a movement of the lid element relative to the inner housing, such that a medium stored in the chamber can escape into the container, and the chamber and the inner housing each having corresponding first thread means formed relative to a thread rotation axis, characterised in that the chamber has a first region above the first thread means, and a second region above and/or horizontally overlapping the first thread means and/or below the first thread means, the first region being radially larger than the second region with respect to the thread rotation axis, and in that the wall of the second chamber region transitions into the wall of the first chamber region in a materially uniform and integral manner, and in that the chamber has an opening in the region thereof that faces towards the lid element, a chamber lid of the first region between the chamber and the lid element being closed by a film element which seals the chamber in a fluid-tight manner.
Method for measuring the temperature of a moving metal strip in an annealing furnace, wherein the strip is in contact with a roll that is part of the furnace such that a wedge shaped opening is present between the strip and the roll where the strip and the roll depart and such that a wedge shaped opening is present between the strip and the roll where the strip and the roll meet, wherein the temperature of the strip is measured along at least part of the length of at least one of the wedge shaped openings using an infrared or visible light measuring camera, characterised in that two infrared or visible light cameras are used, one at each end of the roll, and wherein the two infrared or visible light cameras together measure at least the total length of the wedge shaped opening between the strip and the roll and wherein the two infrared or visible light cameras each measure more than one half of the wedge shaped opening, such that halfway the wedge shape opening the cameras both measure the same part of the wedge shaped opening to allow controlling the functioning of the cameras by comparing the measurement values in the overlapping region.
Test arrangement for testing an automotive infotainment system of a vehicle, the test arrangement comprising: a test data generator, adapted to generate test data for testing the automotive infotainment system and to provide the generated test data to the automotive infotainment system; an analyzing device, adapted to measure a response of the automotive infotainment system to the provided test data; and a processing device, adapted to determine a number of at least two user experience parameters based on the measured response of the automotive infotainment system, wherein the analyzing device receives signals which are generated by components of the automotive infotainment system or which are received by input devices of the automotive infotainment system, wherein the processing device compares the measured response with the related test data when determining the user experience parameters, and wherein the number of at least two user experience parameters comprise at least two parameters of audio parameters, video parameters, media parameters, camera parameters, data transmission parameters, maintenance parameters or navigation parameters of the automotive infotainment system. a test data generator, adapted to generate test data for testing the automotive infotainment system and to provide the generated test data to the automotive infotainment system; an analyzing device, adapted to measure a response of the automotive infotainment system to the provided test data; and a processing device, adapted to determine a number of at least two user experience parameters based on the measured response of the automotive infotainment system, wherein the analyzing device receives signals which are generated by components of the automotive infotainment system or which are received by input devices of the automotive infotainment system, wherein the processing device compares the measured response with the related test data when determining the user experience parameters, and wherein the number of at least two user experience parameters comprise at least two parameters of audio parameters, video parameters, media parameters, camera parameters, data transmission parameters, maintenance parameters or navigation parameters of the automotive infotainment system.
An input module for an industrial controller, comprising: a plurality of input terminals configured to receive an input signal from a remote device; a memory device configured to store a series of instructions and a plurality of configuration parameters, wherein the configuration parameters define a pattern of input signals; a processor configured to execute the series of instructions to: read the pattern from the memory device, and generate an event signal if the input signals match the pattern; a first interface configured to transmit a state of each input terminal to a central processor of the industrial controller; and a second interface configured to transmit the state of at least one input signal to an output module of the industrial controller, wherein the second interface is adapted to interface directly with the output module. a plurality of input terminals configured to receive an input signal from a remote device; a memory device configured to store a series of instructions and a plurality of configuration parameters, wherein the configuration parameters define a pattern of input signals; a processor configured to execute the series of instructions to: read the pattern from the memory device, and generate an event signal if the input signals match the pattern; read the pattern from the memory device, and generate an event signal if the input signals match the pattern; a first interface configured to transmit a state of each input terminal to a central processor of the industrial controller; and a second interface configured to transmit the state of at least one input signal to an output module of the industrial controller, wherein the second interface is adapted to interface directly with the output module.
A sight assembly for a shotgun, the sight assembly comprising: a housing; a light-collecting fiber supported by said housing and extending along a longitudinal axis of said housing; and a lens supported by said housing and receiving light from said fiber to display an aiming point, said lens opposing and being spaced apart from a distal end of said fiber by a predetermined distance, characterized in that said lens is a sapphire ball lens. a housing; a light-collecting fiber supported by said housing and extending along a longitudinal axis of said housing; and a lens supported by said housing and receiving light from said fiber to display an aiming point, said lens opposing and being spaced apart from a distal end of said fiber by a predetermined distance, characterized in that said lens is a sapphire ball lens.
A method of manufacturing an implantable medical device, comprising: introducing a polymer into a forming apparatus (600, 700) comprising a first annular member (610, 710) disposed within a second annular member (620, 720), wherein the polymer is conveyed through an annular chamber as an annular film (650, 750) between the annular members (610, 620; 710, 720); inducing circumferential flow in the annular film (650, 750); forming a tube (695, 795) from the annular film (650, 750); and fabricating an implantable medical device from the tube (695, 795), characterised in that the circumferential flow is induced in the annular film (650, 750) by rotating the tube (695, 795), and the tube (695, 795) is rotated by positioning the tube (695, 795) over or within a third annular member (685, 785) that is configured to rotate the tube (695,795). introducing a polymer into a forming apparatus (600, 700) comprising a first annular member (610, 710) disposed within a second annular member (620, 720), wherein the polymer is conveyed through an annular chamber as an annular film (650, 750) between the annular members (610, 620; 710, 720); inducing circumferential flow in the annular film (650, 750); forming a tube (695, 795) from the annular film (650, 750); and fabricating an implantable medical device from the tube (695, 795), characterised in that the circumferential flow is induced in the annular film (650, 750) by rotating the tube (695, 795), and the tube (695, 795) is rotated by positioning the tube (695, 795) over or within a third annular member (685, 785) that is configured to rotate the tube (695,795).