mhurhangee/ep-ind-claims huggingface dataset:
An electrode catalyst dispersion comprising: a) catalyst particles comprising i) a non-conductive support in the form of whiskers comprising one or more materials selected from the group consisting of naphthalenes, phenanthrenes, perylenes, anthracene, coronenes, pyrenes, phthalocyanines, porphyrins, carbazoles, purines and pterins, and ii) a conductive catalyst material covering the surface of non-conductive support whiskers; b) a dispersing medium selected from the group consisting of water, organic solvents and combinations thereof; and c) an ionic conductive polymer; wherein the catalyst particles and the ionic conductive polymer are dispersed in the dispersing medium, and wherein the volume percentage of the catalyst particles, based on the total volume of the catalyst particles and ionic conductive polymer, is in the range of 55 vol% to 90 vol%; wherein the term "whiskers" refers to an acicular form, but does not necessarily mean a linear shape. a) catalyst particles comprising i) a non-conductive support in the form of whiskers comprising one or more materials selected from the group consisting of naphthalenes, phenanthrenes, perylenes, anthracene, coronenes, pyrenes, phthalocyanines, porphyrins, carbazoles, purines and pterins, and ii) a conductive catalyst material covering the surface of non-conductive support whiskers; i) a non-conductive support in the form of whiskers comprising one or more materials selected from the group consisting of naphthalenes, phenanthrenes, perylenes, anthracene, coronenes, pyrenes, phthalocyanines, porphyrins, carbazoles, purines and pterins, and ii) a conductive catalyst material covering the surface of non-conductive support whiskers; b) a dispersing medium selected from the group consisting of water, organic solvents and combinations thereof; and c) an ionic conductive polymer;
Tubular insert for a magnetic inductive flow meter, wherein the tubular insert essentially comprises an electrically insulating material which, at least in a measuring section, has a mechanical reinforcement made of metal, characterised in that for the mechanical reinforcement a metal grid is provided which comprises two essentially identical preformed grid parts which are prefabricated from perforated sheet by stamping and bending and are welded to butt edges running essentially parallel to the tube axis such as to form an essentially tubular metal grid, and in that the tubular metal grid is embedded in the electrically insulating material by means of a pressing or casting method such that the openings in the metal grid have the electrically insulating material passing therethrough and in that the electrically insulating material essentially covers the inner surface and the outer surface of the tubular metal grid.
A steam generator (1; 11; 17; 19) for use in a laundry care appliance (D1; D2; D3; D4), comprising a heated tank (2; 12; 18; 21), the heated tank (2; 12; 18; 21) at least comprising: - an inlet for filling the tank (2; 12; 18; 21) with liquid; - a heater (5; 14) for heating the liquid; - a steam outlet; and - a controllable drain for draining the liquid from the tank (2; 12; 18; 21) wherein an opening and closing of the drain is controllable by a valve, characterized in that the valve is controllable according to a liquid level of liquid present in the tank (2; 12; 18; 21) and/or in that the valve is adapted to act as a pressure relief valve. - an inlet for filling the tank (2; 12; 18; 21) with liquid; - a heater (5; 14) for heating the liquid; - a steam outlet; and - a controllable drain for draining the liquid from the tank (2; 12; 18; 21) wherein an opening and closing of the drain is controllable by a valve, characterized in that the valve is controllable according to a liquid level of liquid present in the tank (2; 12; 18; 21) and/or in that the valve is adapted to act as a pressure relief valve.
A quinoid thiophene organic photoelectric material, comprising the compound represented by the following formula: wherein R 1, R 2, R 3, R 4, R 5 and R 6, represent H, m and n, which are identical, represent 1 or 2. wherein R 1, R 2, R 3, R 4, R 5 and R 6, represent H, m and n, which are identical, represent 1 or 2.
A method of determining a status of a liquid spray from a nozzle with a plurality of optical sensors, the method comprising: generating, by a first optical sensor of the plurality of optical sensors (44a:e), a first output of directional light towards an expected position of a liquid spray emitted from a nozzle; generating, by a second optical sensor of the plurality of optical sensors (44a:e), a second output of directional light towards an expected position of the liquid spray emitted from the nozzle; comparing a first return signal of the first optical sensor to a second return signal of the second optical sensor, wherein the first and second return signals are reflections of the first and second outputs of direction light respectively from the liquid spray; and determining a status of the liquid spray based on a comparison of the first return signal and the second return signal; wherein the status of the liquid spray is based on a concentration of liquid forming the liquid spray. generating, by a first optical sensor of the plurality of optical sensors (44a:e), a first output of directional light towards an expected position of a liquid spray emitted from a nozzle; generating, by a second optical sensor of the plurality of optical sensors (44a:e), a second output of directional light towards an expected position of the liquid spray emitted from the nozzle; comparing a first return signal of the first optical sensor to a second return signal of the second optical sensor, wherein the first and second return signals are reflections of the first and second outputs of direction light respectively from the liquid spray; and determining a status of the liquid spray based on a comparison of the first return signal and the second return signal; wherein the status of the liquid spray is based on a concentration of liquid forming the liquid spray.
An antifuse-type OTP memory cell (cx), comprising: a select transistor (Tsx), wherein a first drain/source terminal of the select transistor (Tsx) is connected with a bit line, and a gate terminal of the select transistor (Tsx) is connected with a word line; an antifuse transistor (Tax), wherein a first drain/source terminal of the antifuse transistor (Tax) is connected with a second drain/source terminal of the select transistor (Tsx), and a gate terminal of the antifuse transistor (Tax) is connected with an antifuse control line (AFx); and an isolation transistor (Tixy), wherein a first drain/source terminal of the isolation transistor (Tixy) is connected with a second drain/source terminal of the antifuse transistor (Tax), and a gate terminal of the isolation transistor (Tixy) is connected with an isolation control line (ISxy), characterized in that a second drain/source terminal of the isolation transistor (Tixy) is connected with another antifuse transistor (Tay) included in another antifuse-type OTP memory cell (cy) that is adjacent to the antifuse-type OTP memory cell (cx); and the bit line is only connected with the first drain/source terminal of the select transistor (Tsx) in the antifuse-type OTP memory cell (cx). a select transistor (Tsx), wherein a first drain/source terminal of the select transistor (Tsx) is connected with a bit line, and a gate terminal of the select transistor (Tsx) is connected with a word line; an antifuse transistor (Tax), wherein a first drain/source terminal of the antifuse transistor (Tax) is connected with a second drain/source terminal of the select transistor (Tsx), and a gate terminal of the antifuse transistor (Tax) is connected with an antifuse control line (AFx); and an isolation transistor (Tixy), wherein a first drain/source terminal of the isolation transistor (Tixy) is connected with a second drain/source terminal of the antifuse transistor (Tax), and a gate terminal of the isolation transistor (Tixy) is connected with an isolation control line (ISxy), characterized in that a second drain/source terminal of the isolation transistor (Tixy) is connected with another antifuse transistor (Tay) included in another antifuse-type OTP memory cell (cy) that is adjacent to the antifuse-type OTP memory cell (cx); and the bit line is only connected with the first drain/source terminal of the select transistor (Tsx) in the antifuse-type OTP memory cell (cx).
A flame resistant insulation product comprising a fibrous mineral and a particulate refractory mineral filler selected from the group consisting of alumina and aluminum sulfate, said flame resistant insulation product being characterized in that it further comprises monoammonium phosphate, the monoammonium phosphate and the alumina or aluminum sulfate being present in approximately equal amounts by weight and the combined weight of the monoammonium phosphate and the alumina or aluminum sulfate is at least 6% of the weight of the insulation product.
A method of inhibiting ice accretion within a turbine engine having a fan and a compressor stage wherein the fan stage provides the majority of the thrust of the engine, the method comprising the steps: (a) operating the fan at a predetermined rotational velocity; and characterised by (b) driving the compressor stage of the turbine engine at an elevated rotational velocity which is greater than the nominal rotational velocity of the compressor stage at the predetermined fan rotational velocity so as to inhibit ice accretion within the compressor, wherein the compressor of the turbine engine is driven at the elevated rotational velocity by power generated by a power supply external to the turbine engine. (a) operating the fan at a predetermined rotational velocity; and characterised by (b) driving the compressor stage of the turbine engine at an elevated rotational velocity which is greater than the nominal rotational velocity of the compressor stage at the predetermined fan rotational velocity so as to inhibit ice accretion within the compressor, wherein the compressor of the turbine engine is driven at the elevated rotational velocity by power generated by a power supply external to the turbine engine.
An information processing apparatus comprising: a storage unit (102, 103) configured to store a plurality of classifiers that identify an object, the classifiers having different characteristics, wherein each of the plurality of classifiers determines whether or not the object has a defect, the characteristics of each classifier comprising (a) a type of a learned model and (b) an identification accuracy comprising a defect identification rate and a false positive detection rate; a measurement unit configured to measure the identification accuracy and an execution time of each of the plurality of classifiers for a specific object; an output unit configured to output the identification accuracy and the execution time of each of the plurality of classifiers; a selection unit configured to select, from the classifiers whose identification accuracy measured by the measurement unit meets a first condition, the first condition being a range of identification accuracy specified by the user using the identification apparatus, a classifier whose execution time meets a second condition, wherein the classifier whose execution time meets the second condition is the classifier with the shortest execution time; and a setting unit configured to perform setting to cause the selected classifier to operate on an identification apparatus. a storage unit (102, 103) configured to store a plurality of classifiers that identify an object, the classifiers having different characteristics, wherein each of the plurality of classifiers determines whether or not the object has a defect, the characteristics of each classifier comprising (a) a type of a learned model and (b) an identification accuracy comprising a defect identification rate and a false positive detection rate; a measurement unit configured to measure the identification accuracy and an execution time of each of the plurality of classifiers for a specific object; an output unit configured to output the identification accuracy and the execution time of each of the plurality of classifiers; a selection unit configured to select, from the classifiers whose identification accuracy measured by the measurement unit meets a first condition, the first condition being a range of identification accuracy specified by the user using the identification apparatus, a classifier whose execution time meets a second condition, wherein the classifier whose execution time meets the second condition is the classifier with the shortest execution time; and a setting unit configured to perform setting to cause the selected classifier to operate on an identification apparatus.
A method of forming a dosage form within a portion of a packaging for the dosage form, comprising the steps of: 1) providing a portion of a packaging for the dosage form, the portion of the packaging comprising at least one depression, the depression comprising a sidewall, 2) depositing a predetermined first amount of a powder material comprising particles into a substantially uniform first powder layer within the at least one depression, wherein the sidewall has a depression depth, and the substantially uniform first powder layer has a thickness of at least 5%, and up to 50%, of the depression depth, 3) depositing a binding liquid in a pattern on the first powder layer within the at least one depression, to bind at least a portion of the particles of the first powder layer to form an incremental first wetted powder layer, 4) depositing a predetermined second amount of a powder material comprising particles into a substantially uniform second powder layer within the at least one depression and onto the first wetted powder layer, wherein the substantially uniform second powder layer has a thickness of at least 5%, and up to 50%, of the depression depth, 5) depositing a binding liquid in a pattern on the second powder layer within the at least one depression, to bind at least a portion of the particles of the second powder layer to form an incremental second wetted powder layer, and 6) optionally repeating steps 4) and 5) in sequence at least one or more times, thereby forming the dosage form within the portion of the packaging for the dosage form. 1) providing a portion of a packaging for the dosage form, the portion of the packaging comprising at least one depression, the depression comprising a sidewall, 2) depositing a predetermined first amount of a powder material comprising particles into a substantially uniform first powder layer within the at least one depression, wherein the sidewall has a depression depth, and the substantially uniform first powder layer has a thickness of at least 5%, and up to 50%, of the depression depth, 3) depositing a binding liquid in a pattern on the first powder layer within the at least one depression, to bind at least a portion of the particles of the first powder layer to form an incremental first wetted powder layer, 4) depositing a predetermined second amount of a powder material comprising particles into a substantially uniform second powder layer within the at least one depression and onto the first wetted powder layer, wherein the substantially uniform second powder layer has a thickness of at least 5%, and up to 50%, of the depression depth, 5) depositing a binding liquid in a pattern on the second powder layer within the at least one depression, to bind at least a portion of the particles of the second powder layer to form an incremental second wetted powder layer, and 6) optionally repeating steps 4) and 5) in sequence at least one or more times,
Cooling device for a hot-rolling mill for a metal strip, the hot-rolling mill having at least one pair of work rolls each having a work roll surface, the cooling device comprising a shovel-shaped body comprising a plurality of openings arranged to project a cooling fluid on a work roll, and a scraper connected to the shovel-shaped body arranged to prevent the cooling fluid from spilling on the metal strip, and a pressure means for pressing the scraper against said work roll surface, the shovel-shaped body further comprising one or more spacers arranged to contact the work roll surface.
A glucocorticoid receptor antagonist for use in the treatment of a patient, wherein the patient has adrenal insufficiency due to prolonged use of a glucocorticoid, wherein the GRA is to be co-administered with a GC, wherein the treatment is effective to increase the patient's morning plasma levels of cortisol to at least 12 μg/dL or a standard control level.
A method for the contactless determination of both the speed of a liquid flow and the concentration of at least one analyte therein, wherein: a) the flow speed is conventionally measured by means of laser Doppler anemometry, LDA, using tracer particles, which pass an interference strip pattern in the intersecting region of two coherent monochromatic light beams (4, 5) and thereby generate a scattered light signal, the frequency of which is proportional to the speed component of the flow extending perpendicular to the interference strips; and b) the concentration of the at least one analyte is conventionally measured by means of Raman spectroscopy in that a monochromatic light beam is irradiated and the Raman spectrum of the light inelastically scattered on analyte molecules in the flow is recorded, wherein the light intensity of frequencies, which only occur in the scattered light, is proportional to the concentration of the analyte molecules in the flow; wherein c) a single light source is used for both the LDA and the Raman spectroscopy such that both measurements are carried out in the intersecting region of the two coherent light beams (4, 5) originating from the light source, and wherein the speed is measured by means of photons that are elastically scattered on the tracer particles and the concentration is measured by means of photons that are inelastically scattered on analyte molecules; and d) the elastically back-scattered photons are detected by means of the same optical lens system, which is also used for the irradiation of the light beams, for the purpose of the speed measurement. a) the flow speed is conventionally measured by means of laser Doppler anemometry, LDA, using tracer particles, which pass an interference strip pattern in the intersecting region of two coherent monochromatic light beams (4, 5) and thereby generate a scattered light signal, the frequency of which is proportional to the speed component of the flow extending perpendicular to the interference strips; and b) the concentration of the at least one analyte is conventionally measured by means of Raman spectroscopy in that a monochromatic light beam is irradiated and the Raman spectrum of the light inelastically scattered on analyte molecules in the flow is recorded, wherein the light intensity of frequencies, which only occur in the scattered light, is proportional to the concentration of the analyte molecules in the flow; wherein c) a single light source is used for both the LDA and the Raman spectroscopy such that both measurements are carried out in the intersecting region of the two coherent light beams (4, 5) originating from the light source, and wherein the speed is measured by means of photons that are elastically scattered on the tracer particles and the concentration is measured by means of photons that are inelastically scattered on analyte molecules; and d) the elastically back-scattered photons are detected by means of the same optical lens system, which is also used for the irradiation of the light beams, for the purpose of the speed measurement.
A bio device (1 ''') for extracting hematopoietic stem cells and mesenchymal stem cells from peripheral blood, comprising: a main body having an upper reservoir, a lower reservoir and a bottleneck part connecting the upper reservoir and the lower reservoir; a top cover coupled with the upside of the main body, capable of sliding in the longitudinal direction of the main body; and a bottom cover coupled with the downside of the main body, capable of sliding in the longitudinal direction of the main body so as to seal the lower reservoir, wherein the top cover is equipped with a syringe guide extending downward therefrom, the syringe guide being a tubular shape whose top face and bottom face are penetrated so as that a syringe can be inserted therein and an outlet of the syringe can be positioned inside the main body, and the bottom of the syringe guide can block the bottleneck part and space above the bottleneck part when the syringe guide extends downward. a main body having an upper reservoir, a lower reservoir and a bottleneck part connecting the upper reservoir and the lower reservoir; a top cover coupled with the upside of the main body, capable of sliding in the longitudinal direction of the main body; and a bottom cover coupled with the downside of the main body, capable of sliding in the longitudinal direction of the main body so as to seal the lower reservoir, wherein the top cover is equipped with a syringe guide extending downward therefrom, the syringe guide being a tubular shape whose top face and bottom face are penetrated so as that a syringe can be inserted therein and an outlet of the syringe can be positioned inside the main body, and the bottom of the syringe guide can block the bottleneck part and space above the bottleneck part when the syringe guide extends downward.
A method for implementing a hierarchical virtual local area network service, comprising: acquiring group attribute information of at least one remote provider edge device, PE, wherein each group attribute information carries a group identifier of a remote PE corresponding to the group attribute information; determining a pseudo wire group that a pseudo wire, PW, to each PE belongs to based on the group identifier of each PE, wherein the pseudo wire group comprises a horizontal split group or a redundancy protection group; and determining a service forwarding path based on the pseudo wire group, wherein determining the pseudo wire group that the pseudo wire, PW, to each PE belongs to based on the group identifier of each PE comprises: determining PEs having a same group identifier based on the group identifier of each PE; and grouping PWs to the PEs having the same group identifier into a same horizontal split group or a redundancy protection group. acquiring group attribute information of at least one remote provider edge device, PE, wherein each group attribute information carries a group identifier of a remote PE corresponding to the group attribute information; determining a pseudo wire group that a pseudo wire, PW, to each PE belongs to based on the group identifier of each PE, wherein the pseudo wire group comprises a horizontal split group or a redundancy protection group; and determining a service forwarding path based on the pseudo wire group, wherein determining the pseudo wire group that the pseudo wire, PW, to each PE belongs to based on the group identifier of each PE comprises: determining PEs having a same group identifier based on the group identifier of each PE; and grouping PWs to the PEs having the same group identifier into a same horizontal split group or a redundancy protection group. determining PEs having a same group identifier based on the group identifier of each PE; and grouping PWs to the PEs having the same group identifier into a same horizontal split group or a redundancy protection group.