mhurhangee/ep-ind-claims huggingface dataset:
A method for quantifying at least a functional group functionalizing a surface, the method comprising the successive steps of: a) providing at least a surface of a microparticle having micrometric dimensions and functionalized with at least a functional group, b) contacting the surface with a solution, said solution comprising at least a first reagent at a first concentration and a second reagent at a second concentration, the ratio between the first concentration and the second concentration being predetermined; said first reagent and second reagent being designed for selectively coupling to one of the at least a functional group with respective affinities, the ratio of said affinities being predetermined; the first reagent being labelled for emitting a fluorescence and the second reagent being un-labelled; c) measuring the fluorescence of said first reagent coupled to the surface and quantifying said functional group therefrom by using the measured fluorescence of said first reagent and said predetermined ratios. a) providing at least a surface of a microparticle having micrometric dimensions and functionalized with at least a functional group, b) contacting the surface with a solution, said solution comprising at least a first reagent at a first concentration and a second reagent at a second concentration, the ratio between the first concentration and the second concentration being predetermined; said first reagent and second reagent being designed for selectively coupling to one of the at least a functional group with respective affinities, the ratio of said affinities being predetermined; the first reagent being labelled for emitting a fluorescence and the second reagent being un-labelled; c) measuring the fluorescence of said first reagent coupled to the surface and quantifying said functional group therefrom by using the measured fluorescence of said first reagent and said predetermined ratios.
Wrap cuff for measurement of blood pressure, with a longitudinal direction and a transverse direction and with an inner face and an outer face, wherein the wrap cuff comprises a first longitudinal portion, and with an end portion which adjoins the first longitudinal portion in the longitudinal direction, wherein the first longitudinal portion has a first lower edge region and a first upper edge region, and wherein the wrap cuff comprises a bladder region, wherein the bladder region has a bladder, and wherein the end portion has no expandable bladder, wherein the first longitudinal portion has a positioning aid at a first lower edge region, wherein the positioning aid comprises a recess, and wherein the positioning aid comprises a first wing and a second wing, and the recess is delimited at both ends in the longitudinal direction by the wings (23, 24), and wherein the bladder region has a lower bladder region edge, and wherein the recess is at a first distance of 1.5 to 5.5 cm from the lower bladder region edge in the transverse direction.
A method of verifying a variant in a nucleic acid sample comprising: amplifying a target region of a nucleic acid sample in the presence of a primer pool to produce a plurality of amplicons, the primer pool including a first and second target specific primers and a variant specific primer, the variant specific primer including a variant specific barcode sequence and a variant sequence; sequencing the amplicons to generate a plurality of reads; aligning the reads to a reference sequence; and verifying the presence of a variant at a location based on identifying reads containing the variant specific barcode sequence that map to the location. amplifying a target region of a nucleic acid sample in the presence of a primer pool to produce a plurality of amplicons, the primer pool including a first and second target specific primers and a variant specific primer, the variant specific primer including a variant specific barcode sequence and a variant sequence; sequencing the amplicons to generate a plurality of reads; aligning the reads to a reference sequence; and verifying the presence of a variant at a location based on identifying reads containing the variant specific barcode sequence that map to the location.
A system comprising: moving machines, each moving machine of the moving machines configured to move to a target location by autonomous control, each moving machine comprising: a sensor which obtains a self-location; a processor; and a memory storing a computer program which, when executed by the processor, causes the processor to perform operations, the operations including; acquiring, from the sensor, sensor information related to the self-location, the sensor information including a relative positional relationship between the moving machine and another moving machine of the moving machines; and estimating the self-location based on the acquired sensor information; characterized by calculating a reliability of the estimated self-location and storing the reliability associated with the self-location on the moving machine; wherein the reliability decreases in response to an elapsed time from or in response to a travel amount of the moving machine from when the sensor acquires an absolute position of the moving machine, and the reliability increases when the sensor acquires the absolute position of the moving machine, transmitting the stored reliability associated with the self-location to the other moving machine, wherein the operations performed by a particular moving machine of the moving machines further include, recording history information that associates the reliability, the self-location, and an identifier identifying each of the moving machines; selecting, from the moving machines, a moving machine to restore the reliability in accordance with the history information; and moving the selected moving machine to a location where the reliability of the selected moving machine increases. moving machines, each moving machine of the moving machines configured to move to a target location by autonomous control, each moving machine comprising: a sensor which obtains a self-location; a processor; and a memory storing a computer program which, when executed by the processor, causes the processor to perform operations, the operations including; a sensor which obtains a self-location; a processor; and a memory storing a computer program which, when executed by the processor, causes the processor to perform operations, the operations including; acquiring, from the sensor, sensor information related to the self-location, the sensor information including a relative positional relationship between the moving machine and another moving machine of the moving machines; and estimating the self-location based on the acquired sensor information;
An air conditioning control system comprising: an air conditioner configured to perform air conditioning in a room; a setting unit configured to set a first temperature which is a target temperature for a first area in the room, and set a second temperature which is a target temperature for a second area in the room; and a control unit configured to control the air conditioner, characterized by a learning unit configured to learn control of the air conditioner by using a learning data set so that a temperature of the first area approaches the first temperature and a temperature of the second area approaches the second temperature, the learning data set including wind direction data regarding a blowing-out direction of air blown-out from the air conditioner, refrigerant data regarding a temperature of a refrigerant flowing in the air conditioner or a temperature of the air blown-out from the air conditioner, air volume data regarding an air volume of the air blown-out from the air conditioner, and area data regarding air temperatures of the first area and the second area. an air conditioner configured to perform air conditioning in a room; a setting unit configured to set a first temperature which is a target temperature for a first area in the room, and set a second temperature which is a target temperature for a second area in the room; and a control unit configured to control the air conditioner, characterized by a learning unit configured to learn control of the air conditioner by using a learning data set so that a temperature of the first area approaches the first temperature and a temperature of the second area approaches the second temperature, the learning data set including wind direction data regarding a blowing-out direction of air blown-out from the air conditioner, refrigerant data regarding a temperature of a refrigerant flowing in the air conditioner or a temperature of the air blown-out from the air conditioner, air volume data regarding an air volume of the air blown-out from the air conditioner, and area data regarding air temperatures of the first area and the second area. wind direction data regarding a blowing-out direction of air blown-out from the air conditioner, refrigerant data regarding a temperature of a refrigerant flowing in the air conditioner or a temperature of the air blown-out from the air conditioner, air volume data regarding an air volume of the air blown-out from the air conditioner, and area data regarding air temperatures of the first area and the second area.
A radiation curable composition comprising at least one polymerizable compound and an adhesion promoter, characterized in that the adhesion promoter includes: - a polymerizable group selected from the group consisting of an acrylate, a methacrylate, an acrylamide, a methacrylamide, a styrene, a maleimide, a vinyl ether and a vinyl ester; and - an adhesion promoting group containing at least one nitrogen containing five or six membered heteroaromatic ring, wherein the nitrogen containing five or six membered heteroaromatic ring is selected from the group consisting of an N-alkylated imidazole, an N-alkylated benzimidazole, a pyridine, a quinoline and an isoquinoline. - a polymerizable group selected from the group consisting of an acrylate, a methacrylate, an acrylamide, a methacrylamide, a styrene, a maleimide, a vinyl ether and a vinyl ester; and - an adhesion promoting group containing at least one nitrogen containing five or six membered heteroaromatic ring, wherein the nitrogen containing five or six membered heteroaromatic ring is selected from the group consisting of an N-alkylated imidazole, an N-alkylated benzimidazole, a pyridine, a quinoline and an isoquinoline.
Portable connection box comprising a display and operation device of a fill level measurement device or pressure measurement device for a service engineer, for wireless transmission of a signal between the fill level measurement device or the pressure measurement device and an operating device, the connection box comprising: an air interface for wirelessly transmitting a transmission signal from the connection box to the fill level measurement device or the pressure measurement device or for wirelessly receiving a receiving signal from the fill level measurement device or the pressure measurement device; and an interface connection for connecting the connection box to an interface adapter and for directly connecting the connection box to the display and operation device of the fill level measurement device or the pressure measurement device; wherein the air interface and the interface connection are coupled together in a communicating manner for transmitting the receiving signal from the air interface to the interface connection; wherein the connection box is designed to tap a data path between the fill level measurement device or the pressure measurement device and a control room; wherein the connection box is designed such that it can be connected either directly to the display and operation device or to the interface adapter; and wherein the connection box is designed for insertion of either the display and operation device or the interface adapter. an air interface for wirelessly transmitting a transmission signal from the connection box to the fill level measurement device or the pressure measurement device or for wirelessly receiving a receiving signal from the fill level measurement device or the pressure measurement device; and an interface connection for connecting the connection box to an interface adapter and for directly connecting the connection box to the display and operation device of the fill level measurement device or the pressure measurement device; wherein the air interface and the interface connection are coupled together in a communicating manner for transmitting the receiving signal from the air interface to the interface connection; wherein the connection box is designed to tap a data path between the fill level measurement device or the pressure measurement device and a control room; wherein the connection box is designed such that it can be connected either directly to the display and operation device or to the interface adapter; and wherein the connection box is designed for insertion of either the display and operation device or the interface adapter.
An ophthalmologic apparatus, comprising: an adjustment unit configured to carry out focus adjustment; and an image acquiring unit configured to acquire images for a plurality of image acquiring planes different in position from one another in a direction of an optical axis of a measuring beam projected on a fundus (Er) of an eye to be inspected; a calculation unit configured to calculate, from a diopter of the eye to be inspected and a distance of a respective image acquiring plane from a reference plane in the direction of the optical axis, a focus displacement amount for each of a first image acquiring plane of the plurality of image acquiring planes and a second image acquiring plane of the plurality of image acquiring planes, which is at a predetermined distance in the direction of the optical axis from the first image acquiring plane, wherein the adjustment unit is further configured to carry out the focus adjustment for the first and second image acquiring planes in accordance with the calculated displacement amounts, respectively before the images of the first and second image acquiring planes are obtained. an adjustment unit configured to carry out focus adjustment; and an image acquiring unit configured to acquire images for a plurality of image acquiring planes different in position from one another in a direction of an optical axis of a measuring beam projected on a fundus (Er) of an eye to be inspected; a calculation unit configured to calculate, from a diopter of the eye to be inspected and a distance of a respective image acquiring plane from a reference plane in the direction of the optical axis, a focus displacement amount for each of a first image acquiring plane of the plurality of image acquiring planes and a second image acquiring plane of the plurality of image acquiring planes, which is at a predetermined distance in the direction of the optical axis from the first image acquiring plane, wherein the adjustment unit is further configured to carry out the focus adjustment for the first and second image acquiring planes in accordance with the calculated displacement amounts, respectively before the images of the first and second image acquiring planes are obtained.
A method for operating a terminal in a wireless communication system, the method comprising: receiving, from a base station, a first downlink signal through a first carrier using frequency division duplex, FDD, scheme and a second downlink signal through a second carrier using time division duplex, TDD, scheme based on FDD-TDD carrier aggregation, CA, transmitting, to the base station, a first uplink signal corresponding to the first downlink signal and a second uplink signal corresponding to the second downlink signal through the first carrier using FDD scheme characterised in that the method further comprises using, by the terminal, at least one resource for downlink communication in the second carrier which includes a resource in a guard period for another terminal which performs uplink communication through the second carrier. receiving, from a base station, a first downlink signal through a first carrier using frequency division duplex, FDD, scheme and a second downlink signal through a second carrier using time division duplex, TDD, scheme based on FDD-TDD carrier aggregation, CA, transmitting, to the base station, a first uplink signal corresponding to the first downlink signal and a second uplink signal corresponding to the second downlink signal through the first carrier using FDD scheme characterised in that the method further comprises using, by the terminal, at least one resource for downlink communication in the second carrier which includes a resource in a guard period for another terminal which performs uplink communication through the second carrier.
A spark plug for an internal combustion engine, in particular comprising a high-frequency ignition system, having a central electrode (28; 128), a ground electrode (12; 112) and an electrical insulator (18; 118) arranged between the central electrode (28; 128) and the ground electrode (12; 112), wherein a central electrode connection point (26; 126) for electrically connecting the central electrode (28; 128) to an ignition system is provided on the insulator (18; 118), wherein the central electrode (28; 128) and the ground electrode (12; 112) protrude beyond the insulator (18; 118) at an axial end of the spark plug and each form, with a part which axially protrudes beyond the insulator (18; 118), a central electrode end and a ground electrode end, wherein the central electrode end and the ground electrode end are arranged and formed in such a way that an axial region of a gap is formed between said ends in the axial direction, wherein the axial region of the gap is at a distance from the insulator (18; 118), wherein at least one additional electrode is provided, which protrudes beyond the insulator at the axial end of the spark plug and, with a part which axially protrudes beyond the insulator, forms an additional electrode end, wherein the additional electrode is arranged on the spark plug in a manner electrically insulated from the ground electrode and the central electrode, wherein the additional electrode end protrudes into the axial region of the gap between the central electrode end and the ground electrode end or is arranged in a region of the gap which is radially adjacent to the axial region of the gap and as a results splits the gap into two ignition spark sections (156, 166), characterized in that the additional electrode is arranged radially within the insulator and extends there substantially parallel to the ground electrode and radially at a distance from the latter, wherein an additional electrode connection point for electrically connecting the central electrode to an ignition system is provided on the insulator.
A method of regulating the temperature of an element cooled by a cryorefrigerator with periodic operation, the method being characterized in that it comprises the following steps: a) measuring at least the periodic time variation of the temperature T of the element, this variation serving to obtain a temperature signal representative of the periodic operation of the cryorefrigerator; b) constructing an "equivalent" periodic heat flux signal (S Φeq, S* Φeq) as a function of the temperature signal obtained in step a); c) constructing a heat flux control signal (S W) depending on the equivalent heat flux signal constructed in step b), said heat flux control signal (S W) also serving, by return, in the construction of the equivalent heat flux signal (S Φeq, S* Φeq) during step b); and d) injecting a heat flux into the element on the basis of the heat flux signal (S W) constructed in step c), in order to compensate for the measured periodic variations in the temperature T of the element. a) measuring at least the periodic time variation of the temperature T of the element, this variation serving to obtain a temperature signal representative of the periodic operation of the cryorefrigerator; b) constructing an "equivalent" periodic heat flux signal (S Φeq, S* Φeq) as a function of the temperature signal obtained in step a); c) constructing a heat flux control signal (S W) depending on the equivalent heat flux signal constructed in step b), said heat flux control signal (S W) also serving, by return, in the construction of the equivalent heat flux signal (S Φeq, S* Φeq) during step b); and d) injecting a heat flux into the element on the basis of the heat flux signal (S W) constructed in step c), in order to compensate for the measured periodic variations in the temperature T of the element.
A process for preparing a dosage form comprising ezetimibe, the process comprising the steps of: a) providing a composition comprising ezetimibe, b) sieving a composition comprising a composition provided by step (a), c) high shear mixing of the composition after step (b), d) formulation into a dosage form, wherein said high shear mixing is carried out at a paddle speed of at least 100 RPM, wherein the composition of step (a) additionally comprises at least one hydrophilic excipient, and wherein process step d) comprises direct compression, and wherein the process does not comprise addition of any liquid substance. a) providing a composition comprising ezetimibe, b) sieving a composition comprising a composition provided by step (a), c) high shear mixing of the composition after step (b), d) formulation into a dosage form,
A topical administered pharmaceutical agent comprising a compound of Formula I or a salt thereof, wherein Formula I is: and an aqueous pharmaceutical carrier comprising PEG-300, in combination with polyvinyl pyrrolidone or polyvinyl alcohol.
Composition comprising at least one non-polymeric organic ionic compound and at least one further compound which is a non-ionic phosphorescent emitter and a non-ionic host material, characterized in that the organic ionic compound has the following formula: M m + / − y × N n − / + wherein the used symbols and indexes have the following meanings: M is an organic ion having the charge m + or m-; N is an organic or inorganic counter ion being the same or different at each occurrence having the charge n - or n +; m indicates the number of the charge of M and is an integer of ≥2; y indicates the number of N, and is an integer of ≥1; n indicates the number of the charge of N and is an integer of ≥1; wherein the net charge of the compound of formula is zero; and wherein the non-ionic host material is selected from the group consisting of ketones, carbazoles, indolocarbazoles, triarylamines, indenofluorenes, fluorenes, spirobi¬fluorenes, phenanthrenes, dehydrophenanthrenes, thiophenes, triazines and imidazoles. M is an organic ion having the charge m + or m-; N is an organic or inorganic counter ion being the same or different at each occurrence having the charge n - or n +; m indicates the number of the charge of M and is an integer of ≥2; y indicates the number of N, and is an integer of ≥1; n indicates the number of the charge of N and is an integer of ≥1;