mhurhangee/ep-ind-claims huggingface dataset:
A method for assisting a pilot in flying an aircraft on a computed vertical profile, comprising: displaying (1102, 1202), on a display device, the computed vertical profile, the vertical profile comprising a plurality of segments; displaying (1104, 1204), on the display device, an interface display including a plurality of unique symbols (308, 310, 312, 314, 316, 318), each symbol (308, 310, 312, 314, 316, 318) of the plurality corresponding to a segment type; receiving (1106, 1206) an input identifying one of the symbols (308, 310, 312, 314, 316, 318) from within the interface display; and in response to selection of the one of the symbols: determining (1108, 1208) a location on the computed vertical profile for a marker (408, 410) associated with the identified symbol (308, 310) in consideration of flight parameters of the aircraft; and displaying, on the display device, at the determined location the marker (408, 410) associated with the identified symbol (308, 310) on the computed vertical profile at an end of a segment (412, 414) of the plurality of segments, the segment (412, 414) following the marker (408, 410) being associated with the symbol (308, 310). displaying (1102, 1202), on a display device, the computed vertical profile, the vertical profile comprising a plurality of segments; displaying (1104, 1204), on the display device, an interface display including a plurality of unique symbols (308, 310, 312, 314, 316, 318), each symbol (308, 310, 312, 314, 316, 318) of the plurality corresponding to a segment type; receiving (1106, 1206) an input identifying one of the symbols (308, 310, 312, 314, 316, 318) from within the interface display; and in response to selection of the one of the symbols: determining (1108, 1208) a location on the computed vertical profile for a marker (408, 410) associated with the identified symbol (308, 310) in consideration of flight parameters of the aircraft; and displaying, on the display device, at the determined location the marker (408, 410) associated with the identified symbol (308, 310) on the computed vertical profile at an end of a segment (412, 414) of the plurality of segments, the segment (412, 414) following the marker (408, 410) being associated with the symbol (308, 310). determining (1108, 1208) a location on the computed vertical profile for a marker (408, 410) associated with the identified symbol (308, 310) in consideration of flight parameters of the aircraft; and displaying, on the display device, at the determined location the marker (408, 410) associated with the identified symbol (308, 310) on the computed vertical profile at an end of a segment (412, 414) of the plurality of segments, the segment (412, 414) following the marker (408, 410) being associated with the symbol (308, 310).
Pneumatically-suspended vehicle comprising a chassis, which has at least one axle, and an electronic level-control device, at least two wheels being arranged on the axle, a pneumatic spring that has a solenoid valve being arranged between the axle and the chassis for at least one of the wheels, an electronic control unit being able to bring about level control by activating the solenoid valve, it being possible, for level control, for the solenoid valve of the at least one pneumatic spring to supply compressed air from a compressed-air reservoir or to let it out of the pneumatic spring into the atmosphere, and at least one capacitive height sensor is provided for the at least one axle, by means of which the distance between the chassis and the at least one axle can be determined, the capacitive height sensor having a variable capacitance which is formed by the chassis together with the at least one axle, the chassis together with the at least one axle forming a capacitor which, depending on the mutual distance of the chassis and the axle, has the variable electrical capacitance, the variable electrical capacitance being measurable by means of a circuit, characterized in that the electronic control unit is designed such that it generates a control signal for activating the solenoid valve from the determined value of the variable electrical capacitance. a pneumatic spring that has a solenoid valve being arranged between the axle and the chassis for at least one of the wheels, an electronic control unit being able to bring about level control by activating the solenoid valve, it being possible, for level control, for the solenoid valve of the at least one pneumatic spring to supply compressed air from a compressed-air reservoir or to let it out of the pneumatic spring into the atmosphere, and at least one capacitive height sensor is provided for the at least one axle, by means of which the distance between the chassis and the at least one axle can be determined, the capacitive height sensor having a variable capacitance which is formed by the chassis together with the at least one axle, the chassis together with the at least one axle forming a capacitor which, depending on the mutual distance of the chassis and the axle, has the variable electrical capacitance, the variable electrical capacitance being measurable by means of a circuit, characterized in that the electronic control unit is designed such that it generates a control signal for activating the solenoid valve from the determined value of the variable electrical capacitance.
A differential carrier temperature sensing package comprising: a package housing comprising an upper portion and a lower portion connected together to form a sealed package housing, the upper portion and the lower portion in thermally conductive contact with an environment external to a differential carrier housing, the lower portion in thermally conductive contact with an outer surface of the differential carrier housing, and the lower portion extended through an opening in the differential carrier housing, wherein the lower portion is in thermally conductive contact with fluid within the differential housing; an electronic circuit attached to the upper portion within the package housing and in thermally conductive contact with the upper portion of the package housing; a first temperature sensor disposed on and in thermally conductive contact with the electronic circuit and in thermally conductive contact with a thermal conductor imbedded in and in thermally conductive contact with the lower portion, the lower portion in thermally conductive contact with fluid within the differential housing; and a second temperature sensor disposed on the electronic circuit. a package housing comprising an upper portion and a lower portion connected together to form a sealed package housing, the upper portion and the lower portion in thermally conductive contact with an environment external to a differential carrier housing, the lower portion in thermally conductive contact with an outer surface of the differential carrier housing, and the lower portion extended through an opening in the differential carrier housing, wherein the lower portion is in thermally conductive contact with fluid within the differential housing; an electronic circuit attached to the upper portion within the package housing and in thermally conductive contact with the upper portion of the package housing; a first temperature sensor disposed on and in thermally conductive contact with the electronic circuit and in thermally conductive contact with a thermal conductor imbedded in and in thermally conductive contact with the lower portion, the lower portion in thermally conductive contact with fluid within the differential housing; and a second temperature sensor disposed on the electronic circuit.
A glass roll, which is formed by winding a glass film into a roll, characterized in that the glass film has a minimum winding radius satisfying the following relation: R ≥ T 2 2.3 σ E − 1 where σ represents flexural strength of the glass film obtained by a 3-point bending test, T represents a thickness of the glass film, and E represents a Young's modulus of the glass film.
A method for producing a single crystal of silicon with <100> orientation, comprising the doping of a melt with n-type dopant; drawing an initial cone having a crystal angle κ, the angle between the <100> direction in which the single crystal grows and a tangent line which is adjacent to the edge of the single crystal, a cylindrical section, and an end cone of the single crystal by the CZ method; drawing the initial cone with the crystal angle κ of not less than 20° and not more than 30° in a central portion of the initial cone whose length is not less than 50% of a length of the initial cone, wherein fluctuations of the crystal angle κ are limited to not more than 0.01 °/s by angle control; pulling the cylindrical portion of the single crystal at a pulling speed which is not more than 75% of a limit pulling speed beyond which deformation of the single crystal prevents continuation of pulling; and active cooling of the single crystal in the region near the phase boundary between the growing single crystal and the melt. drawing an initial cone having a crystal angle κ, the angle between the <100> direction in which the single crystal grows and a tangent line which is adjacent to the edge of the single crystal, a cylindrical section, and an end cone of the single crystal by the CZ method; drawing the initial cone with the crystal angle κ of not less than 20° and not more than 30° in a central portion of the initial cone whose length is not less than 50% of a length of the initial cone, wherein fluctuations of the crystal angle κ are limited to not more than 0.01 °/s by angle control; pulling the cylindrical portion of the single crystal at a pulling speed which is not more than 75% of a limit pulling speed beyond which deformation of the single crystal prevents continuation of pulling; and active cooling of the single crystal in the region near the phase boundary between the growing single crystal and the melt.
A cell-penetrating peptide according to sequence n -X2-(cysteine)- m: wherein n is an integer from 3 to 14, m is an integer from 4 to 14, each of X1 and X3 is independently arginine, lysine or histidine and X2 is alanine, glycine, proline, tryptophan, phenylalanine, leucine, isoleucine, methionine, valine, arginine, lysine or histidine. wherein n is an integer from 3 to 14, m is an integer from 4 to 14, each of X1 and X3 is independently arginine, lysine or histidine and X2 is alanine, glycine, proline, tryptophan, phenylalanine, leucine, isoleucine, methionine, valine, arginine, lysine or histidine.
A clamping device for a workpiece, with a lower clamping element and an upper clamping element which form a workpiece holder, wherein the height of the upper clamping element is adjustable relative to the lower clamping element, wherein the workpiece has at least one outer surface arranged on the lower side and/or upper side and has a lateral outer surface and can be inserted into the clamping device, further with at least one stop element which can be provided in the clamping device so that the workpiece can be placed with its lateral outer surface against the at least one stop element, wherein at least one of the stop elements is formed by an element connected to the lower clamping element and/or to the upper clamping element, characterised in that at least one stop element is extendable out of the lower clamping element and/or out of the upper clamping element.
A method for pre-distorting a digital signal in a digital communications system, said method comprising: converting digital bits (bi) to be transmitted to a series of symbols (si) defining the bits; providing the symbols to a pulse shaping filter, PSF, that provides samples of the symbols at a predetermined sample rate; providing the filtered samples to a pre-distorter, PD, that pre-distorts the samples, wherein pre-distorting the samples includes providing a non-linear transformation of the samples that is defined by pre-distorter taps, wherein pre-distorting the filtered samples in the pre-distorter includes incorporating pre-equalization into the pre-distorter taps; and providing the pre-distorted samples to a power amplifier, PA, to be amplified and transmitted, characterized in that pre-distorting the samples includes modeling the power amplifier and associated transmitter components using a degree three memory polynomial, and and in that modeling the power amplifier and the associated transmitter components using the polynomial includes modeling the power amplifier as a memoryless nonlinearity sandwiched between two linear time-invariant, LTI, filters and in that the pre-equalization includes providing an estimate of at least one of the LTI filters and then inverting the estimate to convolve the pre-distorter taps with the inverted estimate of the at least one of the LTI filters. converting digital bits (bi) to be transmitted to a series of symbols (si) defining the bits; providing the symbols to a pulse shaping filter, PSF, that provides samples of the symbols at a predetermined sample rate; providing the filtered samples to a pre-distorter, PD, that pre-distorts the samples, wherein pre-distorting the samples includes providing a non-linear transformation of the samples that is defined by pre-distorter taps, wherein pre-distorting the filtered samples in the pre-distorter includes incorporating pre-equalization into the pre-distorter taps; and providing the pre-distorted samples to a power amplifier, PA, to be amplified and transmitted, characterized in that pre-distorting the samples includes modeling the power amplifier and associated transmitter components using a degree three memory polynomial, and and in that modeling the power amplifier and the associated transmitter components using the polynomial includes modeling the power amplifier as a memoryless nonlinearity sandwiched between two linear time-invariant, LTI, filters and in that the pre-equalization includes providing an estimate of at least one of the LTI filters and then inverting the estimate to convolve the pre-distorter taps with the inverted estimate of the at least one of the LTI filters.
An ophthalmic device inspection system, comprising: a support structure, wherein the system is supported by the support structure and collectively defines a single apparatus; a processor; a memory component communicatively coupled to the processor; a measurement device communicatively coupled to the processor, wherein the measurement device includes a cuvette; a center thickness gauge including a test mount and a test probe communicatively coupled to the processor; and a data display device communicatively coupled to the processor; wherein the processor is configured to identify a defect of an ophthalmic device qualified by a human user and quantify the defect by measuring the defect relative to an overlay, wherein the overlay defines a fixed standard quality criteria for the ophthalmic device. a support structure, wherein the system is supported by the support structure and collectively defines a single apparatus; a processor; a memory component communicatively coupled to the processor; a measurement device communicatively coupled to the processor, wherein the measurement device includes a cuvette; a center thickness gauge including a test mount and a test probe communicatively coupled to the processor; and a data display device communicatively coupled to the processor; wherein the processor is configured to identify a defect of an ophthalmic device qualified by a human user and quantify the defect by measuring the defect relative to an overlay, wherein the overlay defines a fixed standard quality criteria for the ophthalmic device.
A washing machine comprising: a tub (14, 24); a drum (13, 23) rotatably disposed inside the tub (14, 24); a discharge member provided in the tub (14, 24) to discharge air in the drum (13, 23) to the outside of the tub (14, 24); and a cap coupled to the discharge member to prevent water in the drum (13, 23) from being discharged to the outside of the tub (14, 24) through the discharge member, characterized in that the discharge member comprises an outer rib, a middle rib and an inner rib protruding upward from a bottom of the discharge member, the outer rib forming an outer appearance of the discharge member, the inner rib disposed inside the outer rib and forming a discharge hole communicating with the drum, and the middle rib disposed between the outer rib and the inner rib, the cap comprises an outer wall forming an outer appearance of the cap and an inner wall disposed inside the outer wall, and wherein the ribs (211, 212, 213) in the discharge member and the walls (222, 223) in the cap are alternately arranged so to form a flow path. a tub (14, 24); a drum (13, 23) rotatably disposed inside the tub (14, 24); a discharge member provided in the tub (14, 24) to discharge air in the drum (13, 23) to the outside of the tub (14, 24); and a cap coupled to the discharge member to prevent water in the drum (13, 23) from being discharged to the outside of the tub (14, 24) through the discharge member, the discharge member comprises an outer rib, a middle rib and an inner rib protruding upward from a bottom of the discharge member, the outer rib forming an outer appearance of the discharge member, the inner rib disposed inside the outer rib and forming a discharge hole communicating with the drum, and the middle rib disposed between the outer rib and the inner rib, the cap comprises an outer wall forming an outer appearance of the cap and an inner wall disposed inside the outer wall, and wherein the ribs (211, 212, 213) in the discharge member and the walls (222, 223) in the cap are alternately arranged so to form a flow path.
Pedal force simulation device with an input element (3, 20) which can be displaced counter to the restoring force of an energy accumulator, and with an element (7, 11) with variable contour (8, 13), wherein the element (7, 11) is connected to the input element (3, 20), wherein arms (9, 17, 18) are supported on the variable contour (8, 13) in order to exert an additional force on the input element (3, 20), characterized in that the element with variable contour has a wear adjustment device which, during wear, adjusts the outer contour of the element with variable contour in the direction of the arms.
A display device comprising: a display panel comprising a subpixel repeating group having subpixels in first, second and third primary colors (2414, 2412, 2416); said subpixel repeating group comprising twelve subpixels disposed in two rows and in six columns; said subpixel repeating group further comprising eight subpixels of the first primary color wherein said eight subpixels of said first primary color occupy four of said six columns; an optical directing component configured to direct light emissions from a first group of subpixels on said display panel to a first viewing window, and configured to direct light emissions from a second group of subpixels on said display panel to a second viewing window, wherein said first group of subpixels comprises a first half of the four columns of subpixels of said first primary color and all of the subpixels of the second and third primary colors (2412, 2416) and wherein said second group of subpixels comprises a second half of the four columns of subpixels of said first primary color and all of the subpixels of the second and third primary colors (2412, 2416); and driver circuitry configured to send a signal to each subpixel on said display panel. a display panel comprising a subpixel repeating group having subpixels in first, second and third primary colors (2414, 2412, 2416); said subpixel repeating group comprising twelve subpixels disposed in two rows and in six columns; said subpixel repeating group further comprising eight subpixels of the first primary color wherein said eight subpixels of said first primary color occupy four of said six columns; an optical directing component configured to direct light emissions from a first group of subpixels on said display panel to a first viewing window, and configured to direct light emissions from a second group of subpixels on said display panel to a second viewing window, wherein said first group of subpixels comprises a first half of the four columns of subpixels of said first primary color and all of the subpixels of the second and third primary colors (2412, 2416) and wherein said second group of subpixels comprises a second half of the four columns of subpixels of said first primary color and all of the subpixels of the second and third primary colors (2412, 2416); and driver circuitry configured to send a signal to each subpixel on said display panel.
Track system for a work vehicle comprising at least a wheel (11, 12, 13) having a polymeric crown insert and a rubber track contacting the crown insert, the track system comprising a temperature sensor and an antenna both attached to the at least one wheel (11, 12, 13), the antenna being connected to the temperature sensor to transmit to a receiver a temperature signal generated by the temperature sensor, characterized in that the crown insert is supported on a rolling frame and wherein said frame defines a seat housing a detector of the sensor to sense the temperature of the crown insert and wherein the seat is a through hole within the frame such that the detector is in contact with the crown insert.
Electrical connection between a first conductor and a second conductor, wherein the first conductor and the second conductor are made of electrical conductive material, wherein the first conductor has a first section with a first contact face, wherein the first contact face is laterally limited by a first side face, wherein the second conductor has a second section with a second contact face, wherein the second contact face is surrounded by a rim with a second side face, wherein the second side face limits a contact space above the second contact face, wherein the first contact face is arranged on the second contact face, wherein a reservoir space is arranged between the first side face of the first contact face and the second side face of the rim, wherein the reservoir space surrounds the first contact face, wherein a sealing material is arranged in the reservoir space, wherein the sealing material forms a sealing ring, wherein the sealing ring seals an interface between the first contact face and the second contact face against environmental influence, characterized in that, the first and the second side faces (7, 16) limit the reservoir space with a cross section that narrows in direction to the second contact face.
Method for ventilating and temperature-controlling rooms according to the principle of dilution ventilation, wherein a primary air flow is introduced into the ceiling cavity of a room which is partitioned from a storey ceiling by a false ceiling and is introduced into the room via incoming-air apertures (41, 42, 43) in the false ceiling, wherein the primary air flow in the ceiling cavity generates a secondary air flow as an induction air flow which draws in a room air flow from the room into the ceiling cavity, mixes it with the secondary air flow and introduces it into the room as a tertiary air flow via the incoming-air apertures (41, 42, 43) in the false ceiling, wherein the primary air flow as an induction air flow is directed in targeted manner against the incoming-air apertures (41, 42. 43) in the false ceiling and thus generates the secondary air flow drawing in the room air, characterised in that temperature-control registers, which temperature-control the secondary air flow generated in the ceiling cavity before it is introduced into the room as a tertiary air flow, are arranged in or on the storey ceiling or on or in the false ceiling, and in that the heat or cold of the storey ceiling or of the false ceiling is used for temperature-control of the secondary air flow guided in the ceiling cavity.