mhurhangee/ep-ind-claims huggingface dataset:
Satellite for obtaining information about electromagnetic energy emitted from a source on the earth, or from sources on the earth, the satellite orbiting the earth in an orbit having an inclination larger than 90° and smaller than 270°; and the satellite comprising: at least two receiving antennas, each of the at least two receiving antennas having a receiving pattern directed towards the earth, and suitable for receiving electromagnetic energy in a radio frequency range as the satellite is orbiting relative to the surface of the earth, and the at least two receiving antennas forming overlapping but not identical receiving patterns; and a transmitter configured for at least one of the three following operations: retransmitting at least part of the received electromagnetic energy; transmitting information representing at least part of the received electromagnetic energy; and transmitting information derived from at least part of the received electromagnetic energy. at least two receiving antennas, each of the at least two receiving antennas having a receiving pattern directed towards the earth, and suitable for receiving electromagnetic energy in a radio frequency range as the satellite is orbiting relative to the surface of the earth, and having a receiving pattern directed towards the earth, and suitable for receiving electromagnetic energy in a radio frequency range as the satellite is orbiting relative to the surface of the earth, and the at least two receiving antennas forming overlapping but not identical receiving patterns; and a transmitter configured for at least one of the three following operations: retransmitting at least part of the received electromagnetic energy; transmitting information representing at least part of the received electromagnetic energy; and transmitting information derived from at least part of the received electromagnetic energy. retransmitting at least part of the received electromagnetic energy; transmitting information representing at least part of the received electromagnetic energy; and transmitting information derived from at least part of the received electromagnetic energy.
A method for identifying altered leukocyte profile by pattern recognition comprising the steps of: a) determining counts or relative percentages of more than two leukocyte cell types in a biological fluid of at least one individual, said counts or percentages constituting input data points; b) generating a plurality of combinations of input data points to provide combination data points, each combination data point being from more than two leukocyte cell types; c) generating pairs of i) an input data point and a combination data point, or ii) two combination data points; d) generating a plurality of secondary data values from the pairs generated in c); e) constructing a plurality of 3-D plots, each plot using a set having three input data points, secondary data values, or combinations thereof, wherein the 3-D plots use at least one secondary value; f) selecting the 3-D plots as useful for identifying an altered leukocyte profile through pattern recognition of perpendicular data inflection, data bifurcation, non-overlapping data clusters, or combinations thereof; wherein the secondary data values comprise complex ratios of input data points, wherein the complex ratios comprise two or more cell types in the ratio's denominator or numerator. a) determining counts or relative percentages of more than two leukocyte cell types in a biological fluid of at least one individual, said counts or percentages constituting input data points; b) generating a plurality of combinations of input data points to provide combination data points, each combination data point being from more than two leukocyte cell types; c) generating pairs of i) an input data point and a combination data point, or ii) two combination data points; d) generating a plurality of secondary data values from the pairs generated in c); e) constructing a plurality of 3-D plots, each plot using a set having three input data points, secondary data values, or combinations thereof, wherein the 3-D plots use at least one secondary value; f) selecting the 3-D plots as useful for identifying an altered leukocyte profile through pattern recognition of perpendicular data inflection, data bifurcation, non-overlapping data clusters, or combinations thereof;
A compound of the formula: wherein: Z is an alkyl, alkenyl or alkynyl group having 1 to 10 carbon atoms, which may be unsubstituted or one or more of which may be substituted by one or more of hydroxy, lower alkoxy, oxo, and oxime; R is -NH-O- k -R 2, wherein R 2 is a member of a signal producing system, selected from the group consisting of fluorescent compounds, chemiluminescent compounds, sensitizers, enzymes and radiolabels, or - nCOOH, - mCOONHS (NHS is N-hydroxysuccinimide), a small molecule selected from the group consisting of biotin and fluorescein, a binding partner for a small molecule selected from the group consisting of avidin, streptavidin, antibody for fluorescein, antibody for rhodamine, antibody for a chemiluminescent molecule, and antibody for dinitrophenol, or a support; k is 0 or 1; A is a bond when k is 0 and a linking group when k is 1; n is an integer of 1 to 5 and m is an integer of 1 to 5; and R 4 is H, OH or lower alkoxy. Z is an alkyl, alkenyl or alkynyl group having 1 to 10 carbon atoms, which may be unsubstituted or one or more of which may be substituted by one or more of hydroxy, lower alkoxy, oxo, and oxime; R is -NH-O- k -R 2, wherein R 2 is a member of a signal producing system, selected from the group consisting of fluorescent compounds, chemiluminescent compounds, sensitizers, enzymes and radiolabels, or - nCOOH, - mCOONHS (NHS is N-hydroxysuccinimide), a small molecule selected from the group consisting of biotin and fluorescein, a binding partner for a small molecule selected from the group consisting of avidin, streptavidin, antibody for fluorescein, antibody for rhodamine, antibody for a chemiluminescent molecule, and antibody for dinitrophenol, or a support; k is 0 or 1; A is a bond when k is 0 and a linking group when k is 1; n is an integer of 1 to 5 and m is an integer of 1 to 5; and R 4 is H, OH or lower alkoxy.
An identification medium comprising a first layer and a second layer disposed thereon in a manner of overlapping with the first layer, wherein the first layer is a layer that is capable of reflecting one of clockwise circular polarized light and counterclockwise circular polarized light and allowing to pass therethrough the remaining circular polarized light, the second layer is a layer that is capable of reflecting at least a portion of circular polarized light having the same rotation direction as that of the circular polarized light that the first layer reflects, and allowing to pass therethrough circular polarized light having an opposite rotation direction to that of the circular polarized light reflected by the first layer, and characterized by a ratio (Ssf 2 /S 2) of Ssf 2 defined by the following formula relative to S 2 defined by the following formula is more than 0.7: S 2 = ∫ 400 780 Rf 2 λ * Rf 2 λ ∧ 1 / 2 ⋅ dλ wherein in the formula, λ represents a wavelength (nm), and Rf 2 (λ) represents a reflection ratio at a wavelength λ of the second layer, Ssf 2 = ∫ 400 780 Rs λ * Rf 2 λ ∧ 1 / 2 ⋅ dλ wherein in the formula, Rs(λ) represents a reflection ratio at a wavelength λ of the first layer. the first layer is a layer that is capable of reflecting one of clockwise circular polarized light and counterclockwise circular polarized light and allowing to pass therethrough the remaining circular polarized light, the second layer is a layer that is capable of reflecting at least a portion of circular polarized light having the same rotation direction as that of the circular polarized light that the first layer reflects, and allowing to pass therethrough circular polarized light having an opposite rotation direction to that of the circular polarized light reflected by the first layer, and characterized by a ratio (Ssf 2 /S 2) of Ssf 2 defined by the following formula relative to S 2 defined by the following formula is more than 0.7: S 2 = ∫ 400 780 Rf 2 λ * Rf 2 λ ∧ 1 / 2 ⋅ dλ wherein in the formula, λ represents a wavelength (nm), and Rf 2 (λ) represents a reflection ratio at a wavelength λ of the second layer, Ssf 2 = ∫ 400 780 Rs λ * Rf 2 λ ∧ 1 / 2 ⋅ dλ wherein in the formula, Rs(λ) represents a reflection ratio at a wavelength λ of the first layer.
A pump casing with a polyfluoroalkoxy liner, the pump casing with PFA liner comprising a suction casing and a volute casing which are formed separately, both of a suction PFA liner of the suction casing and a volute PFA liner of the volute casing being formed by injection molding; the pump casing is characterized in that: the suction casing and the volute casing being formed separately by injection molding so as to eliminates a tensile stress between the suction PFA liner and the volute PFA liner and reduces a defect rate of manufacturing a liner of a large single pump casing by injection molding; the suction casing comprises a suction flange, a shaft support, a suction channel and the suction PFA liner, the suction flange, the shaft support and the suction channel are integrally formed; the volute casing comprises a volute channel, a discharge channel, a discharge flange and the volute PFA liner; and the suction casing is assembled to the volute casing with a metal mounting surface of the suction casing and a metal mounting surface of the volute casing connected to each other so as to form the pump casing with PFA liner, the shaft support which is integrally formed with the suction flange and the suction channel so as to increase stiffness, and a thrust ring seat is formed at a connecting area of the suction casing and the volute casing. the suction casing and the volute casing being formed separately by injection molding so as to eliminates a tensile stress between the suction PFA liner and the volute PFA liner and reduces a defect rate of manufacturing a liner of a large single pump casing by injection molding; the suction casing comprises a suction flange, a shaft support, a suction channel and the suction PFA liner, the suction flange, the shaft support and the suction channel are integrally formed; the volute casing comprises a volute channel, a discharge channel, a discharge flange and the volute PFA liner; and the suction casing is assembled to the volute casing with a metal mounting surface of the suction casing and a metal mounting surface of the volute casing connected to each other so as to form the pump casing with PFA liner, the shaft support which is integrally formed with the suction flange and the suction channel so as to increase stiffness, and a thrust ring seat is formed at a connecting area of the suction casing and the volute casing.
A receptacle for a miniaturized connector for use in an audio device, a hearing device or a similar device, the receptacle extending from a rear end towards of front end, wherein the receptacle comprises an inner receptacle part comprising: o a receptacle contact pin extending from a rear end to a front end; o an inner contact base extending from a rear end to a front end, wherein the inner contact base is an insulator, and wherein the inner contact base comprises a through-going opening through which the receptacle contact pin extends, and one or more additional openings; ∘ an inner contact spring extending from a rear end to a front end, the inner contact spring being secured at its rear end inside the one or more additional openings in the inner contact base, ∘ an insulator extending from a rear end to a front end, and having a through-going opening containing the front ends (146, 126) of the inner contact spring and the contact pin, wherein the receptacle contact pin, and contact spring are adapted for making electrical contact with two plug parts in a plug, when the plug is inserted inside the receptacle, characterized in that the inner contact spring comprises a number of protruding parts formed as arms extending from the rear end of the inner contact spring in an approximately straight line towards the front end of the inner contact spring, wherein the protruding parts bend towards a centre point of the inner contact spring, wherein the through-going opening contains the front end of the inner contact base. o a receptacle contact pin extending from a rear end to a front end; o an inner contact base extending from a rear end to a front end, wherein the inner contact base is an insulator, and wherein the inner contact base comprises a through-going opening through which the receptacle contact pin extends, and one or more additional openings; ∘ an inner contact spring extending from a rear end to a front end, the inner contact spring being secured at its rear end inside the one or more additional openings in the inner contact base, ∘ an insulator extending from a rear end to a front end, and having a through-going opening containing the front ends (146, 126) of the inner contact spring and the contact pin,
A method for controlling acetaldehyde formation in a radioactive pharmaceutical formulation comprising the step of combining an aldehyde scavenger with a radioactive pharmaceutical formulation and determining the content of the product obtained as a result of the reaction between the aldehyde scavenger and acetaldehyde by HPLC, wherein the aldehyde scavenger is any molecule that has an amino-oxy terminus and wherein said radioactive pharmaceutical formulation comprises a radiolabelled compound suitable for in vivo or in vitro imaging.
A micro bubble generating apparatus for use with a pressurized mixed liquid and dissolved gas comprising a micro bubble cartridge and a plumbing fitting assembly, the micro bubble cartridge comprising a first fluid passage, an intermediate chamber (310, 4318) having a progressively larger height to width ratio in a direction of fluid flow or having a generally straight wall arrangement, and a second fluid passage (314, 314a, 314b) being disposed at an angle with respect to the first fluid passage; the second passage comprising an opening placed at one end of said second fluid passage (314a, 314b) for releasing the plurality of micro bubbles downstream of the first and second (314, 314a, 314b) fluid passages, wherein the intermediate chamber (310, 4318) is connected at one end to the first fluid passage and at the other end it is connected to the second fluid passage (314, 314a, 314b); characterized in that the micro bubble generating apparatus further comprises a cartridge sleeve, into which micro bubble cartridge is inserted to create a separate chamber around the second fluid passage (314, 314a, 314b), the micro bubble cartridge being mounted in the plumbing assembly to create an air bubble chamber providing a space between the outside wall of the cartridge sleeve and the inside wall of the plumbing fitting assembly with a fluid connection between the air bubble chamber and the separate chamber at each end of the cartridge sleeve, wherein the air bubble chamber is located at the highest point in the plumbing fitting assembly in the direction of fluid flow.
Wheel speed sensor for a utility vehicle, having an active pulse sensor, a housing, which is designed to at least partially enclose the active pulse sensor, and a protective cap, which at least partially covers the housing, characterized in that the wheel speed sensor has at least one component, which is designed to adapt a temperature resistance capability of the wheel speed sensors so that the wheel speed sensor is usable in a high temperature environment, wherein the wheel speed sensor has a region between the active pulse sensor and an environment of the wheel speed sensor, which region has a thermal insulation medium that has a lower thermal conductivity than a thermal conductivity of a material of the housing, as the component in order to adapt the temperature resistance capability of the wheel speed sensor so that the wheel speed sensor is usable in a high temperature environment. an active pulse sensor, a housing, which is designed to at least partially enclose the active pulse sensor, and a protective cap, which at least partially covers the housing, characterized in that the wheel speed sensor has at least one component, which is designed to adapt a temperature resistance capability of the wheel speed sensors so that the wheel speed sensor is usable in a high temperature environment, wherein the wheel speed sensor has a region between the active pulse sensor and an environment of the wheel speed sensor, which region has a thermal insulation medium that has a lower thermal conductivity than a thermal conductivity of a material of the housing, as the component in order to adapt the temperature resistance capability of the wheel speed sensor so that the wheel speed sensor is usable in a high temperature environment.
Method for manufacturing a tool electrode for the spark erosion countersinking of a workpiece with the aim of producing a recess/countersink in the workpiece, which has a base surface and side surfaces, the tool electrode having a front surface which faces the surface for erosion or the base surface of the workpiece, and one or more outward-facing surfaces which face the side surfaces of the recess/countersink eroded in the workpiece during the countersinking process, one or more outward-facing surfaces of the tool electrode at least being partially brought into contact with a substance which reacts with the material of the tool electrode to form an electrically insulating reaction layer, characterised in that the tool electrode is made of brass and is brought into contact with salt water or a solution of NaCl in vinegar, a solution of sodium carbonate in distilled water, a mixture of sulphuric acid and distilled water, a solution of copper carbonate in ammonia water, or ammonia vapour. the tool electrode having a front surface which faces the surface for erosion or the base surface of the workpiece, and one or more outward-facing surfaces which face the side surfaces of the recess/countersink eroded in the workpiece during the countersinking process, one or more outward-facing surfaces of the tool electrode at least being partially brought into contact with a substance which reacts with the material of the tool electrode to form an electrically insulating reaction layer, characterised in that the tool electrode is made of brass and is brought into contact with salt water or a solution of NaCl in vinegar, a solution of sodium carbonate in distilled water, a mixture of sulphuric acid and distilled water, a solution of copper carbonate in ammonia water, or ammonia vapour.
A method of processing an image, the method comprising: tracking a gaze point of a user on a screen of a display device; determining the location of primitives in the image and determining a plurality of different sampling patterns for the primitives, respectively, based on distances between the gaze point and the primitives and based on the direction of the primitives, wherein the direction of the primitives is a direction of a ray defined as originating at the determined location of the primitives in the image and passing through the gaze point of the user on the screen; and rendering the primitives according to the plurality of different sampling patterns determined for the primitives, respectively, determining a sampling pattern for each block forming a first primitive, wherein the determining a sampling pattern for each block forming a primitive comprises: determining a sampling pattern of a first block of the first primitive such that the sampling pattern of the first block has more fragments than a sampling pattern of a second block of the first primitive corresponding to an interior of the first primitive, when the first block and the second block are located at the same distance from the gaze point. tracking a gaze point of a user on a screen of a display device; determining the location of primitives in the image and determining a plurality of different sampling patterns for the primitives, respectively, based on distances between the gaze point and the primitives and based on the direction of the primitives, wherein the direction of the primitives is a direction of a ray defined as originating at the determined location of the primitives in the image and passing through the gaze point of the user on the screen; and rendering the primitives according to the plurality of different sampling patterns determined for the primitives, respectively, determining a sampling pattern for each block forming a first primitive, wherein the determining a sampling pattern for each block forming a primitive comprises: determining a sampling pattern of a first block of the first primitive such that the sampling pattern of the first block has more fragments than a sampling pattern of a second block of the first primitive corresponding to an interior of the first primitive, when the first block and the second block are located at the same distance from the gaze point.
An energy application planning apparatus for planning an application of energy to an object, the energy application planning apparatus comprising: - an object providing unit adapted to provide an object representation of the object 3), - an energy application element providing unit adapted to provide an energy application element representation representing an energy application element including an energy application part for applying energy to the object and a sensing part for generating an optical sensing signal being indicative of a property of at least one of the object and the surrounding of the object, - an arrangement determination unit adapted to determine an arrangement of the energy application element with respect to the object depending on the positions of the energy application part and the sensing part with respect to the energy application element as defined by the energy application element representation and depending on the object representation, wherein the arrangement determination unit is adapted to determine a position and an orientation of the energy application element with respect to the object as the arrangement. - an object providing unit adapted to provide an object representation of the object 3), - an energy application element providing unit adapted to provide an energy application element representation representing an energy application element including an energy application part for applying energy to the object and a sensing part for generating an optical sensing signal being indicative of a property of at least one of the object and the surrounding of the object, - an arrangement determination unit adapted to determine an arrangement of the energy application element with respect to the object depending on the positions of the energy application part and the sensing part with respect to the energy application element as defined by the energy application element representation and depending on the object representation, wherein the arrangement determination unit is adapted to determine a position and an orientation of the energy application element with respect to the object as the arrangement.