mhurhangee/ep-ind-claims huggingface dataset:
A method for calculating a mass value of a material, comprising: determining an approximate mass value for an unknown material from spectral information derived for mass spectral analysis of the unknown material; retrieving a plurality of isotope profile models, each model corresponding to a known material, from a hash table data structure using the approximate mass value; fitting a sample isotope profile for the unknown material from the spectral information to the isotope profile models to generate a fit score for each fit, wherein the lowest fit score corresponds to the best fit; calculating a mass value from the best fitting model and the sample profile. retrieving a plurality of isotope profile models, each model corresponding to a known material, from a hash table data structure using the approximate mass value; fitting a sample isotope profile for the unknown material from the spectral information to the isotope profile models to generate a fit score for each fit, wherein the lowest fit score corresponds to the best fit; calculating a mass value from the best fitting model and the sample profile.
Die cast mould for producing a casting which is part of an integral toilet comprising a body, a water ring, and a tank, wherein the casting as an integral component includes the water ring and the tank which is open at the top, characterized in that the die cast mould is composed of at least five mould parts which are releasably interconnectable, namely of a base part, two side parts (3, 4) each having a half (5, 6) of a front wall moulded thereon, a rear wall, and a cover part, wherein the mould parts delimit a cavity which corresponds to the external shape of the casting, and wherein a wedge element which at least in portions delimits the internal shape of the water tank is provided on the base part.
A composition comprising degradable rubber and a decomposition accelerator, wherein the composition comprises from 0.1 to 20 parts by mass of at least one type of compound represented by general formula as the decomposition accelerator per 100 parts by mass of the degradable rubber; where, R is an alkyl group having from 2 to 6 carbons.
Method of calculating estimated navigation performance prediction for a trajectory of an aircraft, the method being operated by an aircraft computing platform and comprising the steps of: - receiving a list of segments comprising all of the segments of a flight plan with a prediction of a transit time associated with each segment; - for each segment of the list: - identifying the positioning systems that are available in the geographical zone of the said segment; - determining the performance values of the positioning systems identified and selecting the positioning system exhibiting the lowest navigation performance calculation error for the position of the said segment and the said predicted transit time; and - calculating an estimated navigation performance prediction, on the basis of data arising from the positioning system selected; and - updating the list of segments with the estimated navigation performance prediction associated with each segment. - receiving a list of segments comprising all of the segments of a flight plan with a prediction of a transit time associated with each segment; - for each segment of the list: - identifying the positioning systems that are available in the geographical zone of the said segment; - determining the performance values of the positioning systems identified and selecting the positioning system exhibiting the lowest navigation performance calculation error for the position of the said segment and the said predicted transit time; and - calculating an estimated navigation performance prediction, on the basis of data arising from the positioning system selected; and - updating the list of segments with the estimated navigation performance prediction associated with each segment. - identifying the positioning systems that are available in the geographical zone of the said segment; - determining the performance values of the positioning systems identified and selecting the positioning system exhibiting the lowest navigation performance calculation error for the position of the said segment and the said predicted transit time; and - calculating an estimated navigation performance prediction, on the basis of data arising from the positioning system selected; and - updating the list of segments with the estimated navigation performance prediction associated with each segment.
Shock absorber for an automotive vehicle, the shock absorber being made of foam and comprising a set of shock absorbing elements arranged so as to form at least one row, wherein the shock absorbing elements have a blade shape configured to be oriented vertically when the shock absorber is mounted on an automotive vehicle, characterized in that the shock absorbing elements follow one another in the row with a center distance of between 30 and 120 mm and in that the shock absorbing elements each have a length between 50 and 120 mm and a thickness at mid-height between 12 and 40 mm, the length and the thickness at mid-height being such that a ratio between the length and the thickness at mid-height is comprised between 2 and 5.
A child safety seat for a vehicle comprising - an outer shell enclosing a seating area for a child and - a protective element, the protective element comprising - a housing component and - an impact component,wherein the housing component is embedded into the outer shell and the impact component is mounted to the housing component, is configured to be enclosed at least partially by the housing component, and is configured to protrude laterally from the outer shell in a direction facing away from the seating area, the impact component of the protective element being configured to be transferred from a rest position to a functioning position, and the impact component of the protective element being configured to protrude further from the outer shell when disposed in the functioning position than when disposed in the rest position, characterized by the housing component or the impact component comprising a deformable region adapted to cushion forces impacting on the impact component, the housing component being supported by a fixed bearing, the fixed bearing allowing the impact forces to be guided into a structurally stable part of the child safety seat and wherein the child safety seat comprises a plurality of the protective elements. - an outer shell enclosing a seating area for a child and - a protective element, - a housing component and - an impact component,wherein
A foot rest apparatus of a muscle training device, having a foot rest, with a tread and a side wall, at least partially limiting the tread, and a fixation unit for fixing a human foot in the foot rest, wherein the fixation unit is formed as a lockable, pivotable bracket, whose pivot bearing has a pivot axis oriented substantially parallel to the longitudinal axis of the foot rest and is provided in a compact bearing unit, which is connected fixedly at least indirectly to the tread, and which is attached to an inner side wall of the foot rest, close to the inner side of a patient's foot, and is connected fixedly to the tread via said inner side wall.
A method for preparing a tobacco material, characterized by comprising: a step of drying leaf tobacco in a farm house to obtain dried leaf tobacco; a step of long-term aging for one to several years of the dried leaf tobacco in a processing plant to obtain aged leaf tobacco; a step of blending and cutting the aged leaf tobacco in a manufacturing plant to obtain cut tobacco; a step of aging the cut tobacco, which is to be used in the manufacture of a tobacco product immediately thereafter, under a sealed condition, wherein the surface of the cut tobacco is in contact with air, to obtain aged cut tobacco; and a step of adding a polyol to the aged cut tobacco. a step of drying leaf tobacco in a farm house to obtain dried leaf tobacco; a step of long-term aging for one to several years of the dried leaf tobacco in a processing plant to obtain aged leaf tobacco; a step of blending and cutting the aged leaf tobacco in a manufacturing plant to obtain cut tobacco; a step of aging the cut tobacco, which is to be used in the manufacture of a tobacco product immediately thereafter, under a sealed condition, wherein the surface of the cut tobacco is in contact with air, to obtain aged cut tobacco; and a step of adding a polyol to the aged cut tobacco.
Electronic unit, in the form of a Bluetooth low-energy tag or RFID tag, having a data memory and a computing unit and a battery-powered energy supply for carrying in an agricultural distribution machine, such as preferably a fertilizer spreader, a field sprayer or a sowing machine, for applying agricultural material, is adapted such that computing operations for determining material-specific setting parameters of the agricultural distribution machine are carried out by means of the electronic unit, wherein the computing rules required for this are stored on the electronic unit and the result of the computing operation can be read out in a wireless or wired manner and/or can be read on a screen of the unit, characterized in that parameters characterizing the agricultural machine are transmitted to the tag in a wireless or wired manner for the purpose of carrying out the computing operations.
A method comprising: receiving sensor data indicative of a plurality of markers detected by a sensor on a vehicle (120; 700; 800) located at a plurality of vehicle poses (1102; 1106; 1110) within an environment; determining a pose graph representing the plurality of vehicle poses and the plurality of markers, wherein the pose graph comprises a plurality of edges associated with a cost function representing a distance measurement between a matching marker detection at different vehicle poses, wherein the distance measurement incorporates the different vehicle poses and a sensor pose on the vehicle; determining a sensor pose transform representing the sensor pose on the vehicle that optimizes the cost function associated with the plurality of edges in the pose graph; determining a second pose graph representing a plurality of subsequent vehicle poses and the plurality of markers based on sensor data subsequently received at the plurality of subsequent vehicle poses; determining a second sensor pose transform based on the second pose graph; validating the sensor pose transform based on the second sensor pose transform; and providing the sensor pose transform representing the sensor pose on the vehicle. receiving sensor data indicative of a plurality of markers detected by a sensor on a vehicle (120; 700; 800) located at a plurality of vehicle poses (1102; 1106; 1110) within an environment; determining a pose graph representing the plurality of vehicle poses and the plurality of markers, wherein the pose graph comprises a plurality of edges associated with a cost function representing a distance measurement between a matching marker detection at different vehicle poses, wherein the distance measurement incorporates the different vehicle poses and a sensor pose on the vehicle; determining a sensor pose transform representing the sensor pose on the vehicle that optimizes the cost function associated with the plurality of edges in the pose graph; determining a second pose graph representing a plurality of subsequent vehicle poses and the plurality of markers based on sensor data subsequently received at the plurality of subsequent vehicle poses; determining a second sensor pose transform based on the second pose graph; validating the sensor pose transform based on the second sensor pose transform; and providing the sensor pose transform representing the sensor pose on the vehicle.
An apparatus, comprising: an electrical submersible pump assembly including an electric motor, a motor shaft and a shaft axis, a pump, and at least one sensor system positioned to measure a rotational parameter of the motor shaft, characterized in that the sensor system comprises a rotational transmitter assembly attached to an end of the motor shaft, wherein two magnets (111, 112) are inserted into a face of the end, each magnet exposing an opposite polarity and each magnet facing outwardly of the motor shaft, and a receiver assembly secured to a stationary portion of the electric motor, and the receiver assembly comprising a former on which is wound a receiver assembly coil. a rotational transmitter assembly attached to an end of the motor shaft, wherein two magnets (111, 112) are inserted into a face of the end, each magnet exposing an opposite polarity and each magnet facing outwardly of the motor shaft, and a receiver assembly secured to a stationary portion of the electric motor, and the receiver assembly comprising a former on which is wound a receiver assembly coil.
A film bulk acoustic resonator, comprising: a semiconductor substrate; a signal line formed on an upper surface of the semiconductor substrate; a piezoelectric resonance structure including a lower electrode, an upper electrode, and a piezoelectric film between the lower and upper electrodes, the piezoelectric resonance structure being electrically connected to the signal line; and two supports that space the piezoelectric resonance structure from the semiconductor substrate at a predetermined distance, characterized in that the resonator further comprises; a capacitor (709; 811); and a via (705;806) that electrically connects the lower electrode of the piezoelectric resonance structure to the capacitor, wherein the capacitor is: formed on a portion of an upper surface of the signal line, the capacitor including a dielectric material and a conductive film on an upper surface of the dielectric material, the signal line forming a lower conductive portion of the capacitor; or formed in the middle of the via, wherein the via has a lower portion which connects the capacitor to the signal line, and wherein an inductor pattern is formed on the signal line. a semiconductor substrate; a signal line formed on an upper surface of the semiconductor substrate; a piezoelectric resonance structure including a lower electrode, an upper electrode, and a piezoelectric film between the lower and upper electrodes, the piezoelectric resonance structure being electrically connected to the signal line; and two supports that space the piezoelectric resonance structure from the semiconductor substrate at a predetermined distance, characterized in that the resonator further comprises; a capacitor (709; 811); and a via (705;806) that electrically connects the lower electrode of the piezoelectric resonance structure to the capacitor, wherein the capacitor is: formed on a portion of an upper surface of the signal line, the capacitor including a dielectric material and a conductive film on an upper surface of the dielectric material, the signal line forming a lower conductive portion of the capacitor; or formed in the middle of the via, wherein the via has a lower portion which connects the capacitor to the signal line, and wherein an inductor pattern is formed on the signal line. formed on a portion of an upper surface of the signal line, the capacitor including a dielectric material and a conductive film on an upper surface of the dielectric material, the signal line forming a lower conductive portion of the capacitor; or formed in the middle of the via, wherein the via has a lower portion which connects the capacitor to the signal line, and wherein an inductor pattern is formed on the signal line.
A method in a wireless local area network, LAN, system, the method performed by a transmitting apparatus and comprising: generating a short training field, STF, signal; and transmitting a physical protocol data unit, PPDU, including the STF signal to a receiving apparatus via 80 MHz band, wherein the STF signal is generated based on a STF sequence defined as {M, 1, -M, 0, -M, 1, -M} ∗ (1+j)/sqrt, wherein 'sqrt()' denotes a square root, 'j' denotes an imaginary number, and '*' denotes multiplication, wherein the M sequence is defined as {-1, -1, -1, 1, 1, 1, -1, 1, 1, 1, -1, 1, 1, -1, 1}, and wherein the STF sequence is positioned at intervals of 16 tones starting from a lowest tone having a tone index of -496 and ending at a highest tone having a tone index of +496. generating a short training field, STF, signal; and transmitting a physical protocol data unit, PPDU, including the STF signal to a receiving apparatus via 80 MHz band, wherein the STF signal is generated based on a STF sequence defined as {M, 1, -M, 0, -M, 1, -M} ∗ (1+j)/sqrt, wherein 'sqrt()' denotes a square root, 'j' denotes an imaginary number, and '*' denotes multiplication, wherein the M sequence is defined as {-1, -1, -1, 1, 1, 1, -1, 1, 1, 1, -1, 1, 1, -1, 1}, and wherein the STF sequence is positioned at intervals of 16 tones starting from a lowest tone having a tone index of -496 and ending at a highest tone having a tone index of +496.
A method of measuring the color of a surface, the method comprising: positioning a device above the surface, the device comprising an optical sensor and a display screen, wherein the optical sensor measures visible light level in a plurality of spectral channels, each channel having different spectral sensitivity characteristics, the device being positioned such that the sensor measures light reflected from the surface; sequentially displaying a plurality of patterns on the display screen, each pattern comprising an illuminated region at a different respective distance from the optical sensor; measuring, using the optical sensor, light reflected by the surface during display of each pattern; determining a value of the distance from the optical sensor to the illuminated region for a first local maximum of intensity of the measured light reflected by the surface by using a sensor angle, the first local maximum being a maximum of the diffuse reflection of the pattern; determining a location in a color space corresponding to a color of the surface or a reflectance spectrum of the surface based on the visible light level in each spectral channel for the value of the distance corresponding to the first local maximum. positioning a device above the surface, the device comprising an optical sensor and a display screen, wherein the optical sensor measures visible light level in a plurality of spectral channels, each channel having different spectral sensitivity characteristics, the device being positioned such that the sensor measures light reflected from the surface; sequentially displaying a plurality of patterns on the display screen, each pattern comprising an illuminated region at a different respective distance from the optical sensor; measuring, using the optical sensor, light reflected by the surface during display of each pattern; determining a value of the distance from the optical sensor to the illuminated region for a first local maximum of intensity of the measured light reflected by the surface by using a sensor angle, the first local maximum being a maximum of the diffuse reflection of the pattern; determining a location in a color space corresponding to a color of the surface or a reflectance spectrum of the surface based on the visible light level in each spectral channel for the value of the distance corresponding to the first local maximum.
A turbine blade, comprising: a convex suction side wall including a first tip edge; a concave pressure side wall opposite the convex suction side wall and including a second tip edge; a tip wall extending between the convex suction side wall and the concave pressure side wall and coupling the convex suction side wall to the concave pressure side wall, the tip wall is recessed from the first tip edge of the convex suction side wall and the second tip edge of the concave pressure side wall to define a suction side wall tip section and a pressure side wall tip section, the suction side wall tip section being shorter and thicker than the pressure side wall tip section; an internal cooling circuit formed at least partially between the convex suction side wall, the concave pressure side wall, and the tip wall; and a plurality of tip edge channels formed through the first tip edge of the convex suction side wall that extend to the internal cooling circuit. a convex suction side wall including a first tip edge; a concave pressure side wall opposite the convex suction side wall and including a second tip edge; a tip wall extending between the convex suction side wall and the concave pressure side wall and coupling the convex suction side wall to the concave pressure side wall, the tip wall is recessed from the first tip edge of the convex suction side wall and the second tip edge of the concave pressure side wall to define a suction side wall tip section and a pressure side wall tip section, the suction side wall tip section being shorter and thicker than the pressure side wall tip section; an internal cooling circuit formed at least partially between the convex suction side wall, the concave pressure side wall, and the tip wall; and a plurality of tip edge channels formed through the first tip edge of the convex suction side wall that extend to the internal cooling circuit.
Plain bearing composite material having a metallic support layer and a metallic bearing metal layer, wherein the bearing metal layer is a sinter layer formed of a copper-tin-based bronze powder, wherein the bronze powder contains a metallic solid lubricant which is not, or scarcely, soluble in copper, such as, in particular, bismuth, and is applied to the support layer in powder form and then sintered onto the support layer, characterised in that the bronze powder is formed of powder fractions with differing contents of this solid lubricant, wherein the solid lubricant content of a first powder fraction is greater by a factor of at least 2 than the solid lubricant content of a second powder fraction, wherein the second powder fraction can also be solid-lubricant-free.
An organometallic salt composition, comprising - salt of a single metal of at least one C 13 to C 22 monocarboxylic acid and - at least one C 4 - C 12 branched-chain monocarboxylic acid, said organometallic salt composition having a solubility in hydrocarbon oils exceeding 0.1 w-% in all of hydrocarbon oil Groups I, II, III and IV. - salt of a single metal of at least one C 13 to C 22 monocarboxylic acid and - at least one C 4 - C 12 branched-chain monocarboxylic acid,
An aerosol delivery device comprising a second casing separably connectable to a first casing that contains a reservoir for holding an aerosol precursor and supports a wick arranged to receive aerosol precursor from the reservoir; characterised in that the second casing supports a heater that is configured to make abutting unbonded contact with an activation surface of the wick so as to interact thermally with the activation surface; and said heater is supported by said second casing via a resilient sealing body, said resilient sealing body sealing to said second casing to be held thereby, and said resilient sealing body being releasably sealable to said first casing such that the seal of said resilient sealing body is releasable when said first casing is separated from said second casing. the second casing supports a heater that is configured to make abutting unbonded contact with an activation surface of the wick so as to interact thermally with the activation surface; and said heater is supported by said second casing via a resilient sealing body, said resilient sealing body sealing to said second casing to be held thereby, and said resilient sealing body being releasably sealable to said first casing such that the seal of said resilient sealing body is releasable when said first casing is separated from said second casing.