mhurhangee/ep-ind-claims huggingface dataset:
Device for heating liquids by means of an annular heating element which can be immersed in the liquid to be heated, the device having an annular interior, a rod which is connected to the heating element and has an immersion end on which said rod carries the heating element, a heating control unit for controlling a heating process by means of the heating element, and a temperature sensor for measuring the temperature of the liquid, which sensor is arranged at the immersion end and is in signal connection with the heating control unit, the heating element being designed as a base for being set down on a substrate, which has a lower side facing the base and an upper side facing away from the base, characterised in that, the temperature sensor is arranged in a closed sensor protection tube which is guided through the immersion end, the sensor protection tube being arranged so as to be exposed such that it can be brought into contact with the liquid at least partly directly by immersing the heating element, and the sensor protection tube being surrounded by thermal insulation means at least in a partial region in which said tube extends within the immersion end.
A cooling system for a motor vehicle for circulating a coolant, comprising on the one hand a battery subcircuit with a first coolant pump and a battery, and on the other hand a heating subcircuit for heating a passenger compartment of the motor vehicle with a second coolant pump, a heating air radiator and a coolant heater for heating the coolant flowing in the heating subcircuit, said cooling system additionally having a chiller subcircuit with a chiller, wherein the battery subcircuit and/or the heating subcircuit and/or the chiller subcircuit can be selectively connected to one another by means of a multi-port valve of the cooling system in a coolant-conducting manner, characterized in that the multi-port valve is designed as a five-way valve, with the battery subcircuit being connected to a first and a second connection of the five-way valve, the heater subcircuit being connected to the first and a third connection of the five-way valve and the chiller subcircuit being connected to a fourth and a fifth connection of the five-way valve in a coolant-conducting manner, whereby the first connection of the five-way valve is connected to an inlet of the first coolant pump, an outlet of the first coolant pump is connected to an inlet of the battery, an outlet of the battery is connected to the second connection of the five-way valve, the third connection of the five-way valve is connected to an inlet of the second coolant pump, an outlet of the second coolant pump is connected to an inlet of the coolant heater, an outlet of the coolant heater is connected to an inlet of the heating air radiator, an outlet of the heating air radiator is connected to the first connection of the five-way valve and the inlet of the first coolant pump, the fourth connection of the five-way valve is connected to an inlet of the chiller and an outlet of the chiller is connected to the fifth connection of the five-way valve in a coolant-conducting manner.
A method of detecting multiple analytes, which comprises: providing a first population of particles comprising two or more subsets of particles, wherein each subset of particles comprises a capture molecule that specifically binds directly or indirectly to an analyte; providing a second population of particles comprising two or more subsets of particles, wherein each subset of particles comprises a capture molecule that specifically binds directly or indirectly to an analyte; incubating a first sample with the first population of particles, and separately incubating a second sample with the second population of particles, wherein each sample comprises or putatively comprises, together or individually, multiple analytes; then combining the first and second populations of particles; and then detecting whether one or more analytes are associated with at least a portion of the particles from each subset of particles, wherein the particles in each subset of the first and second populations of particles are distinguishable from the particles in every other subset. providing a first population of particles comprising two or more subsets of particles, wherein each subset of particles comprises a capture molecule that specifically binds directly or indirectly to an analyte; providing a second population of particles comprising two or more subsets of particles, wherein each subset of particles comprises a capture molecule that specifically binds directly or indirectly to an analyte; incubating a first sample with the first population of particles, and separately incubating a second sample with the second population of particles, wherein each sample comprises or putatively comprises, together or individually, multiple analytes; then combining the first and second populations of particles; and then detecting whether one or more analytes are associated with at least a portion of the particles from each subset of particles, wherein the particles in each subset of the first and second populations of particles are distinguishable from the particles in every other subset.
An anti-agglomerate additive formulation comprising A) an anti-agglomerate that is the reaction product of: (i) a dicarboxylic acid reactant substituted with a hydrocarbyl group chosen from methane, butane or butene, hexane or hexene, nonane or nonene, dodecane or dodecene, octadecane or octadecene, eicosane or eicosene, docosane or docosene, and branched derivatives and isomers thereof, and polyolefins, (ii) a nitrogen containing compound having an oxygen or nitrogen atom capable of condensing with said hydrocarbyl substituted dicarboxylic acid reactant, and further having at least one quaternizeable amino group, and (iii) a quaternizing agent suitable for converting the quaternizeable amino group of the nitrogen containing compound to a quaternary nitrogen selected from sulphonates; sultones; phosphates; borates; nitrites; nitrates; oxalates; alkanoates; dithiophosphates; sulfates; halides; carbonates; hydrocarbyl epoxides; carboxylates; esters; and mixtures thereof, and B) a hydrocarbyl amido hydrocarbyl amine of formula: where R 101 is a hydrocarbyl group of 1 to 23 carbon atoms, R 102 is a divalent hydrocarbyl group 1 to 10 carbon atoms, each R 103 and R 104 is independently hydrogen or a hydrocarbyl group of 1 to 23 carbon atoms, and R 105 is hydrogen or a hydrocarbyl group of 1 to 23 carbon atoms, wherein the anti-agglomerate additive formulation contains from 10 to 90 percent by weight of and from 90 to 10 percent by weight of.
A windshield wiper structure with a reinforced pressing force, the windshield wiper structure comprising: a fixing frame, comprising a fixing base and a pivot disposed on the fixing base; a support plate, connected on a bottom side of the fixing base, and extended oppositely from the fixing base; a blade, connected to a bottom surface of the support plate; and characterized by further comprising at least one pressing strip, disposed on the bottom side of the fixing base, and pressing the blade toward a direction away from the fixing base to contact with a glass surface. a fixing frame, comprising a fixing base and a pivot disposed on the fixing base; a support plate, connected on a bottom side of the fixing base, and extended oppositely from the fixing base; a blade, connected to a bottom surface of the support plate; and characterized by further comprising at least one pressing strip, disposed on the bottom side of the fixing base, and pressing the blade toward a direction away from the fixing base to contact with a glass surface.
- A rotorcraft comprising: - a fuselage having an opening, - a cowling suitable for closing such opening, - a fastening system for attaching the cowling to the fuselage, the fastening system in turn comprising: - at least one supporting means pivotally attached to an interior of the fuselage, so that the at least one supporting means can rotate between a closing position and an opening position, the at least one supporting means comprising a projecting region (3.1) located outside the fuselage when the at least one supporting means is at the opening position and located inside the fuselage when the at least one supporting means is at the closing position, - at least one translation means coupled to the projecting region (3.1) and to the cowling so as to enable a translation of the cowling with respect to the projecting region (3.1), and arranged in such a way that the cowling is at a closed position closing the opening when the at least one supporting means is at the closing position, - wherein pivotal attachments between the interior of the fuselage and the at least one supporting means are located on a first reference axis at the interior of the fuselage, and a second reference axis is provided at the projecting region (3.1) along which the translation of the cowling with respect to the projecting region (3.1) can take place; and wherein the first and the second reference axis extend along a longitudinal direction of the rotorcraft, such that the cowling is able to reach a final position in which the cowling extends perpendicularly to an elevation direction. - a fuselage having an opening, - a cowling suitable for closing such opening, - a fastening system for attaching the cowling to the fuselage, the fastening system in turn comprising: - at least one supporting means pivotally attached to an interior of the fuselage, so that the at least one supporting means can rotate between a closing position and an opening position, the at least one supporting means comprising a projecting region (3.1) located outside the fuselage when the at least one supporting means is at the opening position and located inside the fuselage when the at least one supporting means is at the closing position, - at least one translation means coupled to the projecting region (3.1) and to the cowling so as to enable a translation of the cowling with respect to the projecting region (3.1), and arranged in such a way that the cowling is at a closed position closing the opening when the at least one supporting means is at the closing position, - wherein pivotal attachments between the interior of the fuselage and the at least one supporting means are located on a first reference axis at the interior of the fuselage, and a second reference axis is provided at the projecting region (3.1) along which the translation of the cowling with respect to the projecting region (3.1) can take place; and wherein the first and the second reference axis extend along a longitudinal direction of the rotorcraft, such that the cowling is able to reach a final position in which the cowling extends perpendicularly to an elevation direction.
A process for the preparation of a catheter, wherein the catheter comprises as component parts thereof a catheter body and at least one connector, the catheter body and connector having an exterior surface and at least one lumen having an aspect ratio of at least 3:1 (lumen length:lumen diameter), the process comprising forming a reaction mixture comprising a hydrophilic monomer, a free radical initiator and a solvent system, charging the reaction mixture into said catheter body lumen and connector lumen and polymerizing the monomer in the reaction mixture to graft a hydrophilic polymer from the intraluminal surface of said lumens, the reaction mixture having a viscosity of less than 0.03 Pa.s (30 cP) during polymerization and continuously or intermittently replacing the reaction mixture charged into said catheter body lumen and connector lumen until the grafted hydrophilic polymer layer has an Average Dry Thickness that exceeds at least 50 nanometers, wherein the coating solution is flowed at a sufficient rate to displace the coating solution in the lumens at least once per hour.
Hydraulic actuator comprising a cylinder housing, a piston with a piston rod being displaceably arranged inside the cylinder housing and a pressure amplifier comprising an inlet section with a pressure inlet port, an active section with a high pressure outlet port, a low pressure chamber and a high pressure chamber, characterized in that the hydraulic actuator comprises a sleeve being arranged at least partially inside the piston rod, wherein the pressure amplifier is stationarily arranged inside the sleeve, and the pressure amplifier and the sleeve form a cartridge pressure amplifier.
A self-propelling cleaning robot, comprising: a main body; a driving part configured to propel the main body; a cleaning part attached to the main body and configured to clean a cleaning area; a sensor part attached to the main body and configured to detect an obstacle (41,42); and a control unit mounted on the main body and configured to control the driving part and the cleaning part, wherein the control unit includes a memory configured to store programs that cause the driving part and the cleaning part to operate, and a controller configured to write the programs in the memory, and read the programs from the memory, the controller being connectable with a display device and an input device, which are external devices, and in addition to performing the desired operation by selecting the programs prepared in advance, a code of the programs may be created and rewritten by programming by the user using the display device and the input devices. a main body; a driving part configured to propel the main body; a cleaning part attached to the main body and configured to clean a cleaning area; a sensor part attached to the main body and configured to detect an obstacle (41,42); and a control unit mounted on the main body and configured to control the driving part and the cleaning part, wherein the control unit includes a memory configured to store programs that cause the driving part and the cleaning part to operate, and a controller configured to write the programs in the memory, and read the programs from the memory, the controller being connectable with a display device and an input device, which are external devices, and in addition to performing the desired operation by selecting the programs prepared in advance, a code of the programs may be created and rewritten by programming by the user using the display device and the input devices.
A vitamin C derivative represented by the following Chemical Formula 1, or a pharmaceutically acceptable salt thereof: wherein R1 and R2 are -OH or and are different from each other; X is -OC (CH 2) m C -; is a peptide molecule wherein identical or different amino acid residues are linked through amide bonds, and the amino acid residues are selected from the group consisting of glycine, lysine, histidine, serine, proline, hydroxyproline, threonine, glutamic acid, methionine, glutamine, and arginine; R is a side chain of the amino acid; n is an integer of 3 to 10; m is an integer of 2 to 5; Wis and R3 is selected from the group consisting of -N(CH 3) 2, -N(CH 2 CH 3) 2,-NHCH 2 CH 2 CH 3, -NHCH 2 C 6 H 5, and -OH. R1 and R2 are -OH or and are different from each other; X is -OC (CH 2) m C -; is a peptide molecule wherein identical or different amino acid residues are linked through amide bonds, and the amino acid residues are selected from the group consisting of glycine, lysine, histidine, serine, proline, hydroxyproline, threonine, glutamic acid, methionine, glutamine, and arginine; R is a side chain of the amino acid; n is an integer of 3 to 10; m is an integer of 2 to 5; Wis and R3 is selected from the group consisting of -N(CH 3) 2, -N(CH 2 CH 3) 2,-NHCH 2 CH 2 CH 3, -NHCH 2 C 6 H 5, and -OH.
A method for extracting genetic material from a biological sample stored on a solid medium, comprising: obtaining the solid medium, wherein the biological sample is applied on the solid medium, and the solid medium comprises chemicals that lyse the biological sample and preserve the genetic material wherein said chemicals comprise a weak base, chelating agent, anionic surfactant or detergent, and/or uric acid or urate salt; and electroeluting the genetic material directly from the solid medium to a subsequent medium. obtaining the solid medium, wherein the biological sample is applied on the solid medium, and the solid medium comprises chemicals that lyse the biological sample and preserve the genetic material wherein said chemicals comprise a weak base, chelating agent, anionic surfactant or detergent, and/or uric acid or urate salt; and electroeluting the genetic material directly from the solid medium to a subsequent medium.
A spring brake actuator, comprising: a spring housing connected with an intermediate flange to form a parking brake actuator chamber; a service brake housing connected with the intermediate flange on a side opposite the spring housing; a parking brake release actuator located within the parking brake actuator chamber, the parking brake release actuator including a parking brake release piston and a diaphragm which divide the parking brake actuator chamber into a parking brake release chamber on an intermediate flange side of the parking brake release actuator and a power spring chamber on an opposite side of the parking brake release actuator; a parking brake actuating power spring located in the power spring chamber biasing the parking brake release piston away from the rear of the spring housing; and an internal breather valve arranged to control air flow between the parking brake release chamber and the power spring chamber, characterized in that the internal breather valve is co-axial with a parking brake application rod connected to the parking brake release piston and is in fluid communication with a passage of the parking brake application rod extending between the parking brake release chamber and the power spring chamber. a spring housing connected with an intermediate flange to form a parking brake actuator chamber; a service brake housing connected with the intermediate flange on a side opposite the spring housing; a parking brake release actuator located within the parking brake actuator chamber, the parking brake release actuator including a parking brake release piston and a diaphragm which divide the parking brake actuator chamber into a parking brake release chamber on an intermediate flange side of the parking brake release actuator and a power spring chamber on an opposite side of the parking brake release actuator; a parking brake actuating power spring located in the power spring chamber biasing the parking brake release piston away from the rear of the spring housing; and an internal breather valve arranged to control air flow between the parking brake release chamber and the power spring chamber, characterized in that the internal breather valve is co-axial with a parking brake application rod connected to the parking brake release piston and is in fluid communication with a passage of the parking brake application rod extending between the parking brake release chamber and the power spring chamber.
A process comprising distilling in a distillation zone comprised of 20 or more theoretical distillation stages, at a pressure of no greater than 0.04 MPa and a reflux ratio (D/L) of at least 1:1, an amount of an initial solution comprised of tert-butyl hydroperoxide in tert-butyl alcohol, the initial solution having a tert-butyl hydroperoxide concentration of up to 60 wt.% and a total impurity content greater than 0.01 wt.%, for a time and under distillation conditions so that a concentrated solution comprised of tert-butyl hydroperoxide in tert-butyl alcohol is formed; and separating an overhead distillate from the distillation zone so that the concentrated solution thereafter has a tert-butyl hydroperoxide concentration greater than 60 wt.%, a tert-butyl alcohol concentration less than 40 wt.%, a water impurity content no greater than 0.1 wt.% and a total impurity content of no greater than 1 wt.%. distilling in a distillation zone comprised of 20 or more theoretical distillation stages, at a pressure of no greater than 0.04 MPa and a reflux ratio (D/L) of at least 1:1, an amount of an initial solution comprised of tert-butyl hydroperoxide in tert-butyl alcohol, the initial solution having a tert-butyl hydroperoxide concentration of up to 60 wt.% and a total impurity content greater than 0.01 wt.%, for a time and under distillation conditions so that a concentrated solution comprised of tert-butyl hydroperoxide in tert-butyl alcohol is formed; and separating an overhead distillate from the distillation zone so that the concentrated solution thereafter has a tert-butyl hydroperoxide concentration greater than 60 wt.%, a tert-butyl alcohol concentration less than 40 wt.%, a water impurity content no greater than 0.1 wt.% and a total impurity content of no greater than 1 wt.%.
Production module for producing solid dosage forms in individual batches (37, 38, 39, 40), encompassing • a feeder device for conveying powdery starting materials, • a mixing device connected to the feeder device for processing the conveyed powdery starting substances into a product, • a final processing device connected to the mixing device for creating a final product from the processed starting materials, and • a control device for automatically controlling the feeder device and mixing device and the final processing device, - whereby collection sluices (6, 7, 9, 12) are used to forward a batch (37, 38, 39, 40) from the feeder device to the mixing device and from the mixing device to the final processing device. - whereby between the feeder device and mixing device there is a first collection sluice in order to prevent fluid communication between the feeder device and mixing device, and whereby there is a second collection sluice between the mixing device and final processing device in order to prevent fluid communication between the mixing device and final processing device, distinguished by the fact that - the first collection sluice and/or the second collection sluice have at least one stirring attachment. • a feeder device for conveying powdery starting materials, • a mixing device connected to the feeder device for processing the conveyed powdery starting substances into a product, • a final processing device connected to the mixing device for creating a final product from the processed starting materials, and • a control device for automatically controlling the feeder device and mixing device and the final processing device, - whereby collection sluices (6, 7, 9, 12) are used to forward a batch (37, 38, 39, 40) from the feeder device to the mixing device and from the mixing device to the final processing device. - whereby between the feeder device and mixing device there is a first collection sluice in order to prevent fluid communication between the feeder device and mixing device, and whereby there is a second collection sluice between the mixing device and final processing device in order to prevent fluid communication between the mixing device and final processing device, distinguished by the fact that - the first collection sluice and/or the second collection sluice have at least one stirring attachment. - whereby collection sluices (6, 7, 9, 12) are used to forward a batch (37, 38, 39, 40) from the feeder device to the mixing device and from the mixing device to the final processing device. - whereby between the feeder device and mixing device there is a first collection sluice in order to prevent fluid communication between the feeder device and mixing device, and whereby there is a second collection sluice between the mixing device and final processing device in order to prevent fluid communication between the mixing device and final processing device, distinguished by the fact that - the first collection sluice and/or the second collection sluice have at least one stirring attachment.