mhurhangee/ep-ind-claims huggingface dataset:
A pressure sensor comprising: a housing; a pressure port that extends from the housing; and at least three pressure transducers (52, 54, 56), wherein the pressure transducers are symmetrically positioned in three 90 degree axes about the pressure port; and a digital processor, the pressure sensor having stored therein an application program configured to cause the digital processor to: receive at least three pressure measurement values obtained by the pressure transducers (52, 54, 56); determine an average value of the pressure measurement values; and for each of the pressure measurement values: calculate a difference between the respective pressure measurement value and the average value; compare the calculated difference with a specific calibration drift value; and based on the comparison, determine whether to output a calibration alert to indicate that one or more of the respective pressure transducers needs to be calibrated. a housing; a pressure port that extends from the housing; and at least three pressure transducers (52, 54, 56), wherein the pressure transducers are symmetrically positioned in three 90 degree axes about the pressure port; and a digital processor, the pressure sensor having stored therein an application program configured to cause the digital processor to: receive at least three pressure measurement values obtained by the pressure transducers (52, 54, 56); determine an average value of the pressure measurement values; and for each of the pressure measurement values: calculate a difference between the respective pressure measurement value and the average value; compare the calculated difference with a specific calibration drift value; and based on the comparison, determine whether to output a calibration alert to indicate that one or more of the respective pressure transducers needs to be calibrated. receive at least three pressure measurement values obtained by the pressure transducers (52, 54, 56); determine an average value of the pressure measurement values; and for each of the pressure measurement values: calculate a difference between the respective pressure measurement value and the average value; compare the calculated difference with a specific calibration drift value; and based on the comparison, determine whether to output a calibration alert to indicate that one or more of the respective pressure transducers needs to be calibrated. calculate a difference between the respective pressure measurement value and the average value; compare the calculated difference with a specific calibration drift value; and based on the comparison, determine whether to output a calibration alert to indicate that one or more of the respective pressure transducers needs to be calibrated.
A gamma reference voltage generating circuit adapted to output n gamma reference voltages, where n is a natural number equal to or greater than 3, comprising: a first digital-to-analog converter adapted to generate a first reference voltage; a first voltage follower configured to receive the first reference voltage and output a first gamma reference voltage; and a second digital-to-analog converter adapted to generate a second reference voltage; an nth voltage follower configured to receive the second reference voltage and output an n-th gamma reference voltage; a resistor string configured to divide a voltage difference between the first gamma reference voltage and the n-th gamma reference voltage and to output a second to (n-1)-th divided voltage, the resistor string comprising n-1 resistors; second to (n-1)-th voltage followers (GMA2, GMA3,..., GMA8) each configured to receive a respective one of the divided voltages and output a respective one of the second to (n-1)-th gamma reference voltage; first switch connected to the first resistor of the resistor string; and a second switch connected to the (n-1)-th resistor of the resistor string, characterized in that: the first switch is configured to connect the first resistor to an output terminal of the first voltage follower or an output terminal of the first digital-to-analog converter; and the second switch is configured to connect the (n-1)-th resistor to an output terminal of the nth voltage follower or an output terminal of the second digital-to-analog converter. a first digital-to-analog converter adapted to generate a first reference voltage; a first voltage follower configured to receive the first reference voltage and output a first gamma reference voltage; and a second digital-to-analog converter adapted to generate a second reference voltage; an nth voltage follower configured to receive the second reference voltage and output an n-th gamma reference voltage; a resistor string configured to divide a voltage difference between the first gamma reference voltage and the n-th gamma reference voltage and to output a second to (n-1)-th divided voltage, the resistor string comprising n-1 resistors; second to (n-1)-th voltage followers (GMA2, GMA3,..., GMA8) each configured to receive a respective one of the divided voltages and output a respective one of the second to (n-1)-th gamma reference voltage; first switch connected to the first resistor of the resistor string; and the first switch is configured to connect the first resistor to an output terminal of the first voltage follower or an output terminal of the first digital-to-analog converter; and the second switch is configured to connect the (n-1)-th resistor to an output terminal of the nth voltage follower or an output terminal of the second digital-to-analog converter.
A luminaire comprising a chamber delimited by a body defining a light exit surface of the luminaire; and an optical cavity inside the chamber such that the chamber comprises a volume delimited by the body and the optical cavity, wherein the optical cavity is delimited by a first parabolic mirror and a second parabolic mirror facing the first parabolic mirror, the second parabolic mirror comprising an aperture facing the volume, the optical cavity comprising a light source mounted inside said cavity; wherein the first parabolic mirror and the second parabolic mirror are shaped to create an image of the light source in the volume; characterized in that the luminaire further comprises a plurality of solid state lighting elements in said chamber, wherein the solid state lighting elements are arranged to create a luminous distribution under a first range of viewing angles outside said luminaire such that the image can be observed outside said first range.
Aerosol exposure device for exposing at least one specimen with aerosol, the device comprising: - a base device comprising a guiding device including a moveable sliding device; - a sedimentation device being attached to the base device and comprising at least one sedimentation channel respectively including a sedimentation channel aerosol inlet and a sedimentation channel aerosol outlet; - an exposure plate comprising an exposure chamber having an exposure chamber opening and a pressure channel having a first pressure chamber opening; wherein - the exposure plate is attached to and moveable with the moveable sliding device, wherein the sliding device comprises -- a specimen loading position, in which the exposure chamber opening is accessible for loading a specimen into the exposure chamber, -- an aerosol feeding position, in which the first pressure channel opening and a respective one of the at least one sedimentation channel aerosol outlet are in fluid connection in order to apply pressure being present in the pressure channel to the respective one of the at least one sedimentation channel, -- an aerosol exposure position, in which the exposure chamber opening and the respective one of the at least one sedimentation channel aerosol outlet are in fluid connection in order to feed aerosol being present in the respective at least one sedimentation channel into the exposure chamber. - a base device comprising a guiding device including a moveable sliding device; - a sedimentation device being attached to the base device and comprising at least one sedimentation channel respectively including a sedimentation channel aerosol inlet and a sedimentation channel aerosol outlet; - an exposure plate comprising an exposure chamber having an exposure chamber opening and a pressure channel having a first pressure chamber opening; wherein - the exposure plate is attached to and moveable with the moveable sliding device, wherein the sliding device comprises -- a specimen loading position, in which the exposure chamber opening is accessible for loading a specimen into the exposure chamber, -- an aerosol feeding position, in which the first pressure channel opening and a respective one of the at least one sedimentation channel aerosol outlet are in fluid connection in order to apply pressure being present in the pressure channel to the respective one of the at least one sedimentation channel, -- an aerosol exposure position, in which the exposure chamber opening and the respective one of the at least one sedimentation channel aerosol outlet are in fluid connection in order to feed aerosol being present in the respective at least one sedimentation channel into the exposure chamber.
A large-core optical fiber comprising: a core having a core radius ρ and a core index of refraction n core, wherein said core comprises a doped region having a size of at least 200 microns squared; a first cladding disposed about said core, said first cladding having an outer radius ρ 1 and an index of refraction n cl, said core and said first cladding having a difference in index of refraction Δn = n core - n cl, and a numerical aperture less than 0.05, said NA determined by n core and n cl; and a second cladding disposed about said first cladding, said first cladding and said second cladding having a difference in index of refraction Δn 1, wherein the first cladding radius ρ 1 is greater than 1.1ρ and less than 2 ρ, and the refractive index difference between said first cladding and said second cladding, Δn 1, is greater than 1.5 Δn and less than 50 Δn. a core having a core radius ρ and a core index of refraction n core, wherein said core comprises a doped region having a size of at least 200 microns squared; a first cladding disposed about said core, said first cladding having an outer radius ρ 1 and an index of refraction n cl, said core and said first cladding having a difference in index of refraction Δn = n core - n cl, and a numerical aperture less than 0.05, said NA determined by n core and n cl; and a second cladding disposed about said first cladding, said first cladding and said second cladding having a difference in index of refraction Δn 1,
An image processing apparatus comprising: a tomographic image acquisition means configured to acquire a polarization-sensitive tomographic image of a subject (Er); an extraction means configured to extract a predetermined area from the acquired polarization-sensitive tomographic image; a determination means configured to determine a type of disease based on a state at a discontinuous region in the extracted predetermined area; and a display control means configured to cause a display means to display the type of disease determined by the determination means. a tomographic image acquisition means configured to acquire a polarization-sensitive tomographic image of a subject (Er); an extraction means configured to extract a predetermined area from the acquired polarization-sensitive tomographic image; a determination means configured to determine a type of disease based on a state at a discontinuous region in the extracted predetermined area; and a display control means configured to cause a display means to display the type of disease determined by the determination means.
A composite structure comprising: a composite laminate, comprising a first laminate surface, a second laminate surface, and a plurality of fiber tows disposed between the first laminate surface and the second laminate surface, wherein each of the plurality of fiber tows comprises a plurality of fiber strands and a resin, wherein the resin is disposed within a first portion of each of the plurality of fiber tows, wherein each of the plurality of fiber tows is disposed proximate to a different one of the plurality of fiber tows, and wherein the resin has a first viscosity within a first temperature range; and an infusion film, disposed on the first laminate surface of the plurality of fiber tows, wherein the infusion film has a second viscosity that is lower than the first viscosity of the resin within the first temperature range, and wherein the infusion film is configured to flow into the composite laminate when the infusion film is within the first temperature range. a composite laminate, comprising a first laminate surface, a second laminate surface, and a plurality of fiber tows disposed between the first laminate surface and the second laminate surface, wherein each of the plurality of fiber tows comprises a plurality of fiber strands and a resin, wherein the resin is disposed within a first portion of each of the plurality of fiber tows, wherein each of the plurality of fiber tows is disposed proximate to a different one of the plurality of fiber tows, and wherein the resin has a first viscosity within a first temperature range; and wherein each of the plurality of fiber tows comprises a plurality of fiber strands and a resin, wherein the resin is disposed within a first portion of each of the plurality of fiber tows, wherein each of the plurality of fiber tows is disposed proximate to a different one of the plurality of fiber tows, and wherein the resin has a first viscosity within a first temperature range; and an infusion film, disposed on the first laminate surface of the plurality of fiber tows, wherein the infusion film has a second viscosity that is lower than the first viscosity of the resin within the first temperature range, and wherein the infusion film is configured to flow into the composite laminate when the infusion film is within the first temperature range. wherein the infusion film has a second viscosity that is lower than the first viscosity of the resin within the first temperature range, and wherein the infusion film is configured to flow into the composite laminate when the infusion film is within the first temperature range.
A passive matrix display device using a semiconductor light emitting device comprising: a substrate; a plurality of first electrodes disposed on the substrate; a light emitting device array comprising a plurality of semiconductor light emitting devices electrically connected to the first electrodes, constituting individual pixels,; a plurality of second electrodes electrically connected to the semiconductor light emitting devices; and a wavelength converting layer disposed on the semiconductor light emitting devices, characterized in that: each of the semiconductor light emitting devices has a horizontal structure and comprises an n-type semiconductor layer, an active layer disposed on the n-type semiconductor layer, a p-type semiconductor layer disposed on the active layer, a p-type electrode, and a n-type electrode, and a distance (m) between the n-type electrode and the p-type semiconductor layer of each of the semiconductor light emitting devices decreases from one side of a current input direction of the first electrode to the other side thereof. a substrate; a plurality of first electrodes disposed on the substrate; a light emitting device array comprising a plurality of semiconductor light emitting devices electrically connected to the first electrodes, constituting individual pixels,; a plurality of second electrodes electrically connected to the semiconductor light emitting devices; and a wavelength converting layer disposed on the semiconductor light emitting devices, characterized in that: each of the semiconductor light emitting devices has a horizontal structure and comprises an n-type semiconductor layer, an active layer disposed on the n-type semiconductor layer, a p-type semiconductor layer disposed on the active layer, a p-type electrode, and a n-type electrode, and a distance (m) between the n-type electrode and the p-type semiconductor layer of each of the semiconductor light emitting devices decreases from one side of a current input direction of the first electrode to the other side thereof. each of the semiconductor light emitting devices has a horizontal structure and comprises an n-type semiconductor layer, an active layer disposed on the n-type semiconductor layer, a p-type semiconductor layer disposed on the active layer, a p-type electrode, and a n-type electrode, and a distance (m) between the n-type electrode and the p-type semiconductor layer of each of the semiconductor light emitting devices decreases from one side of a current input direction of the first electrode to the other side thereof.
Road finisher comprising an undercarriage, a chassis adjustable in height relative to the undercarriage, an electronic control system and a paving screed attached to tie bars, the tie bars each being hinged to the chassis at a pull point and the pull points being adjustable relative to the chassis by means of a leveling cylinder in each case, and the control system comprises a receiving unit, an evaluation unit and a command unit, the receiving unit being configured to detect a current actual pull point height and the evaluation unit being configured to calculate a deviation of the actual pull point height from a target pull point height caused by a height adjustment of the chassis relative to the undercarriage and the command unit being configured thereto, automatically at least partially correcting the deviation by causing a correction signal sent by the command unit to cause a hydraulic controller to adjust at least one of the leveling cylinders, characterized in that - the road finisher comprises a sensor for measuring a height position of the chassis at its discharge end, - the chassis being connected at a pivot point at a front end of the road finisher to the undercarriage at a fixed height with respect to the ground, such that the chassis is height-adjustable by lifting and lowering at its discharge end, wherein the chassis rotates about the pivot point, - and the control system being configured to calculate the actual pull point height on the basis of a height position of the chassis and being configured to calculate a change in height (dN) of the pull point essentially from a change in height (dH) of the chassis at its discharge end, a distance (r) of the pull point from the pivot point and a distance (l) of the discharge end from the pivot point by means of the formula dN = dH * r/l. - the road finisher comprises a sensor for measuring a height position of the chassis at its discharge end, - the chassis being connected at a pivot point at a front end of the road finisher to the undercarriage at a fixed height with respect to the ground, such that the chassis is height-adjustable by lifting and lowering at its discharge end, wherein the chassis rotates about the pivot point, - and the control system being configured to calculate the actual pull point height on the basis of a height position of the chassis and being configured to calculate a change in height (dN) of the pull point essentially from a change in height (dH) of the chassis at its discharge end, a distance (r) of the pull point from the pivot point and a distance (l) of the discharge end from the pivot point by means of the formula dN = dH * r/l.
A dynamoelectric machine comprising: a stator core in which a predetermined number of slots defined by adjacent pairs of teeth are arranged in a circumferential direction; an armature winding (16, 16A, 16B, 16C, 16D) installed in said stator core; a predetermined number of field poles (22, 23, 40); and a rectifier for rectifying alternating-current output induced in said armature winding in response to a rotating magnetic field rotating in synchrony with rotation of an internal combustion engine, said dynamoelectric machine being adpated to charge a storage battery using said rectified output from said rectifier, wherein said armature winding (16, 16A, 16B, 16C, 16D) is constructed by connecting five winding phase portions (31a-31e, 32a-32e, 33a-33e, 34a-34e, 35a-35e) into an annular shape such that electrical angular phases of electromotive force differ from each other by approximately 72 degrees, said rectifier is constituted by a five-phase full-wave rectifier, said predetermined number of field poles (22, 23, 40) is 4n, and said predetermined number of slots is 5n, where n is a positive integer; and said five winding phase portions (35a-35e) are wound onto said teeth so as not to span said slots. a stator core in which a predetermined number of slots defined by adjacent pairs of teeth are arranged in a circumferential direction; an armature winding (16, 16A, 16B, 16C, 16D) installed in said stator core; a predetermined number of field poles (22, 23, 40); and a rectifier for rectifying alternating-current output induced in said armature winding in response to a rotating magnetic field rotating in synchrony with rotation of an internal combustion engine, said dynamoelectric machine being adpated to charge a storage battery using said rectified output from said rectifier, wherein said armature winding (16, 16A, 16B, 16C, 16D) is constructed by connecting five winding phase portions (31a-31e, 32a-32e, 33a-33e, 34a-34e, 35a-35e) into an annular shape such that electrical angular phases of electromotive force differ from each other by approximately 72 degrees, said rectifier is constituted by a five-phase full-wave rectifier, said predetermined number of field poles (22, 23, 40) is 4n, and said predetermined number of slots is 5n, where n is a positive integer; and said five winding phase portions (35a-35e) are wound onto said teeth so as not to span said slots.
A system, comprising: a transmitting line replaceable unit, TLRU, (102; 202), configured to receive Aeronautical Radio Inc., ARINC, messages including instructions for avionics receiving line replaceable units, RLRUs, (106A-106N); a memory (108,208) configured to store validation data including a set of expected Aeronautical Radio Inc.,ARINC, messages; and a monitor (110,210) configured to monitor Aeronautical Radio Inc.,ARINC, messages received at the TLRU, (102; 202), to compare a first portion of the received message at the transmitting line replaceable unit, TLRU, (102; 202), with a corresponding portion of an expected message in the set of expected messages stored in the memory, and further configured to determine whether received messages are valid based on the comparing of the first portion of the received message with the corresponding portion of the expected message. a transmitting line replaceable unit, TLRU, (102; 202), configured to receive Aeronautical Radio Inc., ARINC, messages including instructions for avionics receiving line replaceable units, RLRUs, (106A-106N); a memory (108,208) configured to store validation data including a set of expected Aeronautical Radio Inc.,ARINC, messages; and a monitor (110,210) configured to monitor Aeronautical Radio Inc.,ARINC, messages received at the TLRU, (102; 202), to compare a first portion of the received message at the transmitting line replaceable unit, TLRU, (102; 202), with a corresponding portion of an expected message in the set of expected messages stored in the memory, and further configured to determine whether received messages are valid based on the comparing of the first portion of the received message with the corresponding portion of the expected message.