mhurhangee/ep-ind-claims huggingface dataset:
Use of microgranules comprising destructurized starch in a complexed form with polymers containing hydrophilic groups intercalated with hydrophobic sequences as abrasive and/or structuring agents, in cosmetic, dermatological, detergent and cleansing formulations, characterized in that said cosmetic, dermatological, detergent and cleansing formulations comprise from 1 to 20% by weight, with respect to the total weight of the formulations, of said microgranules.
An RNA nanostructure comprising at least one single-stranded RNA (ssRNA) molecule, wherein the RNA nanostructure comprises at least two structural repeating units of 33 nucleotides in length, and wherein each structural repeating unit comprises, in order: a first region of a double helix 8 nucleotides in length, a first paranemic cohesion crossover 8 nucleotides in length, a second region of a double helix 9 nucleotides in length, and a second paranemic cohesion crossover 8 nucleotides inlength.
A catheter assembly for performing a puncture of an anatomical wall, the catheter assembly comprising: a patient cannula comprising a lumen configured to receive a catheter or guide wire for advancing the patient cannula to a desired anatomical site; a puncture catheter at least partially enclosed within the patient cannula; an imaging catheter comprising lumen separate from the lumen of the patient cannula configured to receive a guidewire for advancing the imaging catheter to the desired anatomical site, and at least one transducer located on a distal portion of the imaging catheter configured to emit an energy beam in an axial direction, the energy beam being capable of reflecting from a portion of the anatomical wall and to detect energy reflected from the anatomical wall; and a transmitter for conveying a signal representative of the detected energy from the transducer to a signal processor for obtaining information for visually distinguishing thickness of different portions of the anatomical wall. a patient cannula comprising a lumen configured to receive a catheter or guide wire for advancing the patient cannula to a desired anatomical site; a puncture catheter at least partially enclosed within the patient cannula; an imaging catheter comprising lumen separate from the lumen of the patient cannula configured to receive a guidewire for advancing the imaging catheter to the desired anatomical site, and at least one transducer located on a distal portion of the imaging catheter configured to emit an energy beam in an axial direction, the energy beam being capable of reflecting from a portion of the anatomical wall and to detect energy reflected from the anatomical wall; and a transmitter for conveying a signal representative of the detected energy from the transducer to a signal processor for obtaining information for visually distinguishing thickness of different portions of the anatomical wall.
A method for amplifying a target nucleic acid sequence in a biological sample during amplification comprising the steps of: adding a thermostable polymerase and primers configured for amplification of the target nucleic acid sequence to the biological sample, wherein the polymerase is provided at a concentration of at least 0.5 μM and primers are each provided at a concentration of at least 2 μM; and amplifying the target nucleic acid sequence by polymerase chain reaction by thermally cycling the biological sample between at least a denaturation temperature and an elongation temperature through a plurality of amplification cycles using an extreme temperature cycling profile wherein each cycle is completed in a cycle time less than 10 seconds per cycle. adding a thermostable polymerase and primers configured for amplification of the target nucleic acid sequence to the biological sample, wherein the polymerase is provided at a concentration of at least 0.5 μM and primers are each provided at a concentration of at least 2 μM; and amplifying the target nucleic acid sequence by polymerase chain reaction by thermally cycling the biological sample between at least a denaturation temperature and an elongation temperature through a plurality of amplification cycles using an extreme temperature cycling profile wherein each cycle is completed in a cycle time less than 10 seconds per cycle.
A method of expanding expandable polymeric microspheres comprising contacting an aqueous slurry comprising unexpanded, expandable polymeric microspheres with heat proximate to and/or during manufacture of a construction material for use in a cementitious composition, wherein the heat is provided by microwave radiation or an electrical resistance heater.
An apparatus comprising: at least one housing equipped with a heating element and containing an aerosol precursor composition, the heating element being configured to activate and vaporize components of the aerosol precursor composition; and a flexible, emissive display received on a surface of the at least one housing, and controllable to present information of an aerosol delivery device, wherein the flexible, emissive display is flexible so as to be moldable to a form factor of the surface of the at least one housing, the surface being non-planar, and wherein the apparatus is an aerosol delivery device or a cartridge for an aerosol delivery device. at least one housing equipped with a heating element and containing an aerosol precursor composition, the heating element being configured to activate and vaporize components of the aerosol precursor composition; and a flexible, emissive display received on a surface of the at least one housing, and controllable to present information of an aerosol delivery device, wherein the flexible, emissive display is flexible so as to be moldable to a form factor of the surface of the at least one housing, the surface being non-planar, and wherein the apparatus is an aerosol delivery device or a cartridge for an aerosol delivery device.
A method for supporting molding of a pulverized material resin material, the method comprising: plasticizing and injection-molding a pulverized material resin material including a pulverized material as at least a part by rotating a screw inserted in a heating tube, the method being characterized in that before use of the pulverized material, an area of a particle shape of the pulverized material in one direction is measured, a pulverized material shape index indicating a relative size of the area with respect to a depth of a screw groove is determined by computation processing and when a size of the pulverized material shape index is equal to or greater than a preset setting value, the screw is determined to be inappropriate, and at least a result of the determination is displayed. plasticizing and injection-molding a pulverized material resin material including a pulverized material as at least a part by rotating a screw inserted in a heating tube, the method being characterized in that before use of the pulverized material, an area of a particle shape of the pulverized material in one direction is measured, a pulverized material shape index indicating a relative size of the area with respect to a depth of a screw groove is determined by computation processing and when a size of the pulverized material shape index is equal to or greater than a preset setting value, the screw is determined to be inappropriate, and at least a result of the determination is displayed.
A chemical substance concentrator comprising: a channel (21, 52) allowing a sample containing a chemical substance to flow in a flowing direction in the channel; and a cell wall partitioning the channel (21, 52) into a plurality of adsorption cells (22, 42), characterized in that each of the plurality of adsorption cells (22, 42) includes: a first electrode (25, 43) disposed on the cell wall; a second electrode (26, 44) disposed on the cell wall while being apart from the first electrode (25, 43); and an adsorption device (27, 45) that adsorbs the chemical substance, wherein the adsorption device (27, 45) contains metal oxide, and wherein the adsorption device (27, 45) is disposed at a position contacting the first electrode (25, 43) and the second electrode (26, 44) such that the first electrode (25, 43) is electrically connected to the second electrode (26, 44) via the adsorption device (27, 45). a channel (21, 52) allowing a sample containing a chemical substance to flow in a flowing direction in the channel; and a cell wall partitioning the channel (21, 52) into a plurality of adsorption cells (22, 42), characterized in that each of the plurality of adsorption cells (22, 42) includes: a first electrode (25, 43) disposed on the cell wall; a second electrode (26, 44) disposed on the cell wall while being apart from the first electrode (25, 43); and an adsorption device (27, 45) that adsorbs the chemical substance, a first electrode (25, 43) disposed on the cell wall; a second electrode (26, 44) disposed on the cell wall while being apart from the first electrode (25, 43); and an adsorption device (27, 45) that adsorbs the chemical substance, wherein the adsorption device (27, 45) contains metal oxide, and wherein the adsorption device (27, 45) is disposed at a position contacting the first electrode (25, 43) and the second electrode (26, 44) such that the first electrode (25, 43) is electrically connected to the second electrode (26, 44) via the adsorption device (27, 45).
A composite structure comprising: a composite structural member formed from a synthetic composite material; a sealant layer disposed on a surface of the composite structural member; a first metallic layer disposed on the sealant layer; and characterized by a second metallic layer disposed in or on a surface of the composite structural member, wherein the first metallic layer overlaps the second metallic layer; and wherein the sealant layer is configured with an overlap of the second metallic layer. a composite structural member formed from a synthetic composite material; a sealant layer disposed on a surface of the composite structural member; a first metallic layer disposed on the sealant layer; and characterized by a second metallic layer disposed in or on a surface of the composite structural member, wherein the first metallic layer overlaps the second metallic layer; and wherein the sealant layer is configured with an overlap of the second metallic layer.
A clamping device for clamping a bead of a tire, the clamping device having a closed position and an open position and comprising an inner portion and a plurality of segments (110, 112, 114, 116) connected to the inner portion, wherein the plurality of segments (110, 112, 114, 116) each have a first and second outer surface, wherein the first outer surfaces are configured to join together to form a first ring, and the second outer surfaces are configured to join together to form a second ring when the clamping device is in its closed position, characterized in that each segment (110, 112, 114, 116) has at least two radially oriented springs (110a, 110b, 112a, 112b, 114a, 114b, 116a, 116b) that are each connected to the inner portion and in that each segment (110, 112, 114, 116) has guide rails (110c, 112c, 114c, 116c), the radially oriented springs (110a, 110b, 112a, 112b, 114a, 114b, 116a, 116b) and the guide rails (110c, 112c, 114c, 116c) being located between the respective segments (110, 112, 114, 116) and the inner portion.
A method of reducing crystal growth of an aqueous suspension of hydrated cloquintocet-mexyl, comprising: contacting an aqueous suspension of hydrated cloquintocet-mexyl with a surfactant selected from the group consisting of a tallowamine alkoxylate, a cocoamine alkoxylate, and mixtures thereof, to produce a stabilized composition. contacting an aqueous suspension of hydrated cloquintocet-mexyl with a surfactant selected from the group consisting of a tallowamine alkoxylate, a cocoamine alkoxylate, and mixtures thereof, to produce a stabilized composition.
A homogeneous population of cells derived from umbilical cord tissue, for use in the treatment of a neurodegenerative condition, wherein said cell population is obtainable by enzymatic digestion of umbilical cord tissue free of blood using metalloprotease, neutral protease, and mucolytic enzyme activities, and wherein said cell population is capable of self-renewal and expansion in culture, has the potential to differentiate into cells of a neural phenotype, and wherein the cell population: (a) produces each of CD10, CD13, CD44, CD73, HLA-A,B,C, CD90 and PDGFr-alpha, as detected by flow cytometry; and (b) does not produce any of CD31, CD34, CD45, CD117, CD141 and HLA-DR,DP,DQ, as detected by flow cytometry. (a) produces each of CD10, CD13, CD44, CD73, HLA-A,B,C, CD90 and PDGFr-alpha, as detected by flow cytometry; and (b) does not produce any of CD31, CD34, CD45, CD117, CD141 and HLA-DR,DP,DQ, as detected by flow cytometry.
A controller node for a wireless communication system, the controller node including a processor configured for operating the controller node in a configuration test context, wherein the processor is configured to: transmit at least one configuration test message to at least one first radio node and at least one second radio node, the configuration test message including at least one configuration test setting and at least one operational setting, wherein the at least one operational setting comprises a clock setting, the configuration test message configured to enable the configuration test context for operation of one or more of at least one radio resource, at least one network element, at least one communication function, a protocol associated with the at least one first radio node and the at least one second radio node; receive a test report from the at least one first radio node and the at least one second radio node indicating at least one result of at least one configuration test of the configuration test context, wherein the at least one configuration test comprises testing a clock stability or a clock drift of the at least one first radio node; determine from the test report a capability of the at least one first radio node to operate as an authorized and verified radio node in the wireless communication system; and transmit an authorization message to the at least one first radio node that the at least one first radio node is an authorized and verified radio node, wherein an authorized and verified radio node is a node that is configured and enabled to operate as an access node. transmit at least one configuration test message to at least one first radio node and at least one second radio node, the configuration test message including at least one configuration test setting and at least one operational setting, wherein the at least one operational setting comprises a clock setting, the configuration test message configured to enable the configuration test context for operation of one or more of at least one radio resource, at least one network element, at least one communication function, a protocol associated with the at least one first radio node and the at least one second radio node; receive a test report from the at least one first radio node and the at least one second radio node indicating at least one result of at least one configuration test of the configuration test context, wherein the at least one configuration test comprises testing a clock stability or a clock drift of the at least one first radio node; determine from the test report a capability of the at least one first radio node to operate as an authorized and verified radio node in the wireless communication system; and transmit an authorization message to the at least one first radio node that the at least one first radio node is an authorized and verified radio node, wherein an authorized and verified radio node is a node that is configured and enabled to operate as an access node.
A continuous process for monoalkylating an aromatic compound of 6 to 8 carbon atoms per molecule with an aliphatic feedstock comprising paraffin and mono-olefin of 8 to 18 carbon atoms per molecule in an alkylation reactor assembly having at least three reaction zones (104, 106a, 106b) in series, each reaction zone comprising solid alkylation catalyst and being maintained under liquid phase alkylation conditions sufficient to consume at least 90 mass percent of the olefin to produce a zone effluent comprising arylalkane, wherein the molar ratio of total aromatic compound to total mono-olefin passed to the alkylation reactor assembly is less than 20:1, comprising: a. co-currently passing said aromatic compound and a portion of the aliphatic feedstock at a first blend temperature to the first reaction zone to produce a first zone effluent, the mass ratio of said aromatic compound to said aliphatic feedstock passed to said first reaction zone being sufficient that the Reaction Zone Delta T of said first reaction zone is less than 15°C; b. cooling the first zone effluent; c. co-currently passing at least a portion of said cooled first zone effluent and another portion of the aliphatic feedstock at a second blend temperature to a second reaction zone to produce a second zone effluent comprising arylalkane, the mass ratio of said aromatic compound to said aliphatic feedstock passed to said second reaction zone being sufficient that the Reaction Zone Delta T of said second reaction zone is less than 155°C; d. repeating steps (b) and (c) using the preceding zone effluent after cooling and another portion of the aliphatic feedstock at a blend temperature for that subsequent reaction zone (106b, 106c, 106d) a sufficient number of times to use the aliphatic feedstock; and wherein the Reaction Zone Delta T is the increase in temperature between the portion of the olefin-containing feed fed into the reaction zone and that of the reaction zone or of the reaction zone effluent. a. co-currently passing said aromatic compound and a portion of the aliphatic feedstock at a first blend temperature to the first reaction zone to produce a first zone effluent, the mass ratio of said aromatic compound to said aliphatic feedstock passed to said first reaction zone being sufficient that the Reaction Zone Delta T of said first reaction zone is less than 15°C; b. cooling the first zone effluent; c. co-currently passing at least a portion of said cooled first zone effluent and another portion of the aliphatic feedstock at a second blend temperature to a second reaction zone to produce a second zone effluent comprising arylalkane, the mass ratio of said aromatic compound to said aliphatic feedstock passed to said second reaction zone being sufficient that the Reaction Zone Delta T of said second reaction zone is less than 155°C; d. repeating steps (b) and (c) using the preceding zone effluent after cooling and another portion of the aliphatic feedstock at a blend temperature for that subsequent reaction zone (106b, 106c, 106d) a sufficient number of times to use the aliphatic feedstock; and
Beverage dispensing machine based on a pod, comprising a chassis and a container comprising a reception zone of the pod, and an opening/closing device arranged between the chassis and the container to pivot the container about a first vertical axis, between a closed position enabling the dispensing and an open position enabling access to said container, said opening/closing device comprising an opening assist system comprising a plate secured to the container along the first vertical axis, said machine being characterised in that the opening assist system comprises a bearing member engaged in a sliding connection along a second vertical axis, and in that said plate comprises at least one ramp (20a, 20b) against which said bearing member comes to bear, so that the force exerted by the bearing member on the at least one ramp drives the rotation of the plate in at least one direction along the first vertical axis.
A cooking apparatus, comprising: a working coil; an inverter including a plurality of switching elements (S1, S2) and configured to apply, by operating the plurality of switching elements (S1, S2), a resonant current (Ir) of a predetermined frequency to the working coil; a phase detector configured to detect a phase difference (θ) between the resonant current (Ir) and a voltage applied to an output terminal of the inverter; and a controller configured to calculate, based on the detected phase difference (θ), a temperature of a target object placed on the cooking apparatus to be heated by operation of the working coil; wherein the controller is configured to calculate the temperature of the target object, based on a first regression equation that uses the detected phase difference as an independent variable and the temperature of the target object as a dependent variable; and wherein the controller is configured to: control, based on the temperature of the target object being lower than a target temperature, the operation of the plurality of switching elements (S1, S2) to reduce a frequency of the resonant current (Ir); and control, based on the temperature of the target object being higher than the target temperature, the operation of the plurality of switching elements (S1, S2) to increase a frequency of the resonant current (Ir). a working coil; an inverter including a plurality of switching elements (S1, S2) and configured to apply, by operating the plurality of switching elements (S1, S2), a resonant current (Ir) of a predetermined frequency to the working coil; a phase detector configured to detect a phase difference (θ) between the resonant current (Ir) and a voltage applied to an output terminal of the inverter; and a controller configured to calculate, based on the detected phase difference (θ), a temperature of a target object placed on the cooking apparatus to be heated by operation of the working coil; wherein the controller is configured to calculate the temperature of the target object, based on a first regression equation that uses the detected phase difference as an independent variable and the temperature of the target object as a dependent variable; and wherein the controller is configured to: control, based on the temperature of the target object being lower than a target temperature, the operation of the plurality of switching elements (S1, S2) to reduce a frequency of the resonant current (Ir); and control, based on the temperature of the target object being higher than the target temperature, the operation of the plurality of switching elements (S1, S2) to increase a frequency of the resonant current (Ir). control, based on the temperature of the target object being lower than a target temperature, the operation of the plurality of switching elements (S1, S2) to reduce a frequency of the resonant current (Ir); and control, based on the temperature of the target object being higher than the target temperature, the operation of the plurality of switching elements (S1, S2) to increase a frequency of the resonant current (Ir).