mhurhangee/ep-ind-claims huggingface dataset:
A cargo bike comprising a bicycle frame connected with a chainstay supporting at least one rear wheel and with a fork element supporting at least one front wheel, wherein the bicycle frame comprises a support element for receiving a cargo receiving container arranged between a handlebar tube and the fork element, and a battery supported by the bicycle frame, characterized in that the support element comprises two substantially horizontal frame elements between which a battery is arranged inside a housing, wherein the battery is connected via elastic support elements with the bicycle frame, in particular the support element of the bicycle frame, wherein the elastic support elements are preferably arranged between the housing and the bicycle frame, and/or the battery is supported by the elastic support elements inside the housing. a bicycle frame connected with a chainstay supporting at least one rear wheel and with a fork element supporting at least one front wheel, wherein the bicycle frame comprises a support element for receiving a cargo receiving container arranged between a handlebar tube and the fork element, and a battery supported by the bicycle frame, characterized in that the support element comprises two substantially horizontal frame elements between which a battery is arranged inside a housing, wherein the battery is connected via elastic support elements with the bicycle frame, in particular the support element of the bicycle frame, wherein the elastic support elements are preferably arranged between the housing and the bicycle frame, and/or the battery is supported by the elastic support elements inside the housing.
A process for producing water-absorbing polymer particles by polymerizing a monomer solution or suspension comprising a) an ethylenically unsaturated monomer which bears acid groups and may be at least partly neutralized, b) at least one crosslinker, c) at least one initiator, d) optionally one or more ethylenically unsaturated monomers copolymerizable with the monomers specified under a) and e) optionally one or more water-soluble polymers, in a kneader with a reaction volume of at least 0.1 m 3 and at least two shafts in axially parallel rotation, several kneading and transport elements present on the shafts bringing about conveying of the reaction mixture added at the start of the kneader in axial direction to the end of the kneader, wherein the monomer solution comprises from 0.01 to 0.2% by weight of initiator c), based on unneutralized monomer a), the outer kneader wall is trace-heated in the region of the feed and the temperature of the trace heating is at least 110°C. a) an ethylenically unsaturated monomer which bears acid groups and may be at least partly neutralized, b) at least one crosslinker, c) at least one initiator, d) optionally one or more ethylenically unsaturated monomers copolymerizable with the monomers specified under a) and e) optionally one or more water-soluble polymers,
A detector tile of an imaging system, comprising: a photosensor array; a scintillator optically coupled to the photosensor array; and electronics electrically coupled to the photosensor array, the electronics including: a dose determiner that determines a deposited dose for the detector tile and generates a signal indicative thereof; characterised by further including a parameter corrector that corrects an operational parameter of the electronics based on the signal. a photosensor array; a scintillator optically coupled to the photosensor array; and electronics electrically coupled to the photosensor array, the electronics including: a dose determiner that determines a deposited dose for the detector tile and generates a signal indicative thereof; characterised by further including a parameter corrector that corrects an operational parameter of the electronics based on the signal. a dose determiner that determines a deposited dose for the detector tile and generates a signal indicative thereof; characterised by further including a parameter corrector that corrects an operational parameter of the electronics based on the signal.
Method for transferring electrical power in the sea, the method comprising: generating AC power; guiding, at least partially underwater, the AC power through a cable from a first end of the cable to a second end of the cable, wherein a first reactor is connected near the first end of the cable and a second reactor is connected near the second end of the cable, wherein inductances of the reactors (115,119) are selected, in order to at least partially compensate for reactive power generated in the cable, the method further comprising adjusting the frequency of the AC power such that a voltage ratio (Uload/Uin) between a second voltage (Uload) and a first voltage (Uin) changes less than a threshold (Δr), when a power consumption of a load connected to the second end of the cable changes from a first value to a second value, wherein the second voltage (Uload) is indicative of a potential difference between the second end of the cable and a reference potential, wherein the first voltage (Uin) is indicative of a potential difference between the first end of the cable and the reference potential, characterized in that adjusting the frequency comprises calculating plural voltage ratio changes (305,307,335,337) for plural test frequencies, for each test frequency considering at least two test power consumptions of loads, in order to obtain the respective voltage ratio change, wherein the frequency to be adjusted is selected from the plural test frequencies for which the calculated voltage ratio change (Δ(50Hz,200km), Δ(100Hz,600km)) is lower than the threshold (Δr). generating AC power; guiding, at least partially underwater, the AC power through a cable from a first end of the cable to a second end of the cable, wherein a first reactor is connected near the first end of the cable and a second reactor is connected near the second end of the cable, wherein inductances of the reactors (115,119) are selected, in order to at least partially compensate for reactive power generated in the cable, the method further comprising adjusting the frequency of the AC power such that a voltage ratio (Uload/Uin) between a second voltage (Uload) and a first voltage (Uin) changes less than a threshold (Δr), when a power consumption of a load connected to the second end of the cable changes from a first value to a second value, wherein the second voltage (Uload) is indicative of a potential difference between the second end of the cable and a reference potential, wherein the first voltage (Uin) is indicative of a potential difference between the first end of the cable and the reference potential, characterized in that adjusting the frequency comprises calculating plural voltage ratio changes (305,307,335,337) for plural test frequencies, for each test frequency considering at least two test power consumptions of loads, in order to obtain the respective voltage ratio change, wherein the frequency to be adjusted is selected from the plural test frequencies for which the calculated voltage ratio change (Δ(50Hz,200km), Δ(100Hz,600km)) is lower than the threshold (Δr).
An apparatus, in particular a high-performance slicer, for the slicing of a food product in accordance with a cutting program selected from a plurality of cutting programs stored in a process controller of the apparatus, wherein a product measurement device is connected to the process controller for the determination of product properties relevant to the cutting process, characterized in that the apparatus comprises different kinds of machine equipment having replaceable machine components which are to be installed in dependence on the cutting program; the selected cutting program includes information on the desired positions and/or desired settings of the machine components; a position or setting detection means is connected to the process controller for the detection of the position and/or setting of the machine components; and positions and/or settings of the machine components predefined by the cutting program can be automatically modified by the process controller in dependence on the determined product properties relevant to the cutting process.
Corrugated cardboard plant, comprising a) at least one corrugated cardboard production device for producing at least one corrugated cardboard web (8, 28) laminated on one side, having a respective corrugated web and cover web; b) a connection device, disposed downstream of the at least one corrugated cardboard production device, for connecting the at least one corrugated cardboard web (8, 28) laminated on one side and a lamination web (6, 34) to one another, while forming an at least three-ply corrugated cardboard web; and c) at least one cutting device for generating corrugated cardboard sheets from the at least three-ply corrugated cardboard web, d) at least one individual code reading device (77, 78, 79; 94, 98, 102) for reading corrugated cardboard sheet individual codes on at least one of the webs (6, 14, 18, 28, 34) of the at least three-ply corrugated cardboard web and/or on at least one of the webs (6, 8, 14, 18, 28, 34) for forming the at least three-ply corrugated cardboard web and/or on the corrugated cardboard sheets and e) at least one corrugated cardboard plant control device (83; 92, 96, 100) being connected in terms of information with the at least one individual code reading device (77, 78, 79; 94, 98, 102), characterized in that f) the at least one corrugated cardboard plant control device (83; 92) is capable of individually actuating a short transverse cutting device for diverting a defective piece of the at least three-ply corrugated cardboard web in a manner corresponding to the at least one read associated corrugated cardboard sheet individual code. a) at least one corrugated cardboard production device for producing at least one corrugated cardboard web (8, 28) laminated on one side, having a respective corrugated web and cover web; b) a connection device, disposed downstream of the at least one corrugated cardboard production device, for connecting the at least one corrugated cardboard web (8, 28) laminated on one side and a lamination web (6, 34) to one another, while forming an at least three-ply corrugated cardboard web; and c) at least one cutting device for generating corrugated cardboard sheets from the at least three-ply corrugated cardboard web, d) at least one individual code reading device (77, 78, 79; 94, 98, 102) for reading corrugated cardboard sheet individual codes on at least one of the webs (6, 14, 18, 28, 34) of the at least three-ply corrugated cardboard web and/or on at least one of the webs (6, 8, 14, 18, 28, 34) for forming the at least three-ply corrugated cardboard web and/or on the corrugated cardboard sheets and e) at least one corrugated cardboard plant control device (83; 92, 96, 100) being connected in terms of information with the at least one individual code reading device (77, 78, 79; 94, 98, 102), characterized in that f) the at least one corrugated cardboard plant control device (83; 92) is capable of individually actuating a short transverse cutting device for diverting a defective piece of the at least three-ply corrugated cardboard web in a manner corresponding to the at least one read associated corrugated cardboard sheet individual code.
A flexible spacer fabric, the fabric having a liquid permeable and breathable upper surface layer, a heat and liquid dissipating spacer layer, and a dimensionally stable lower surface layer, wherein the upper surface layer comprises a knitted mesh comprising sinusoidal mesh strands extending in parallel across the upper face of the fabric, said strands being spaced apart and linked at adjacent points by one or more straight threads forming holes, bounded by the mesh strands and threads, of generally oval shape, wherein the average width of the mesh strands in the upper surface layer is from 0.1 mm to 4 mm, and the parallel sinusoidal strands are offset from one another lengthwise, such that a peak of one strand faces a trough of an adjacent strand, characterised in that facing peaks and troughs are joined by four or more threads, to form the oval-shaped holes.
A method for manufacturing transparent electrodes, the method comprising: preparing a base substrate; forming a silver nanowire contacting one surface of the base substrate; heating the base substrate and the silver nanowire at a predetermined temperature; applying an uncured polymer to the one surface of the base substrate to cover the silver nanowire; disposing a flexible film on the uncured polymer; applying a predetermined pressure between the disposed flexible film and the base substrate; irradiating light having a specific wavelength on the flexible film and curing the uncured polymer to change to a cured polymer; separating the base substrate and the cured polymer so that the silver nanowire is separated from the base substrate and bonded to the cured polymer, thereby forming a silver nanowire assembly comprising the silver nanowire, the cured polymer, and the flexible film; exposing the silver nanowire assembly to an iodine mixture including a chloride-based mixture and potassium for a predetermined time to change only a part of the surface of the silver nanowire to silver chloride having gray or black color and to let the other part of the silver nanowire maintain the conductivity; and annealing the silver nanowire assembly exposed to the iodine mixture at a temperature of 100°C to 110°C for 2-5 minutes, wherein the predetermined pressure is applied by rolling of a roller having a hardness of 30HB to 50HB. preparing a base substrate; forming a silver nanowire contacting one surface of the base substrate; heating the base substrate and the silver nanowire at a predetermined temperature; applying an uncured polymer to the one surface of the base substrate to cover the silver nanowire; disposing a flexible film on the uncured polymer; applying a predetermined pressure between the disposed flexible film and the base substrate; irradiating light having a specific wavelength on the flexible film and curing the uncured polymer to change to a cured polymer; separating the base substrate and the cured polymer so that the silver nanowire is separated from the base substrate and bonded to the cured polymer, thereby forming a silver nanowire assembly comprising the silver nanowire, the cured polymer, and the flexible film; exposing the silver nanowire assembly to an iodine mixture including a chloride-based mixture and potassium for a predetermined time to change only a part of the surface of the silver nanowire to silver chloride having gray or black color and to let the other part of the silver nanowire maintain the conductivity; and annealing the silver nanowire assembly exposed to the iodine mixture at a temperature of 100°C to 110°C for 2-5 minutes, wherein the predetermined pressure is applied by rolling of a roller having a hardness of 30HB to 50HB.
A process for preparing a high-temperature resistant foam, comprising the reaction of a) at least one mixture of organic polyisocyanates, and b) at least one organic compound having at least two epoxy groups in an amount that corresponds to an equivalent ratio of isocyanate groups to epoxy groups of from 1.2:1 to 500:1, in the presence of c) optionally at least one catalyst accelerating the isocyanate/epoxide reaction, e) optionally in the presence of auxiliary agents and additives, optionally containing multifunctional compounds containing hydroxy or amino groups e1), f) chemical and/or physical blowing agents, characterized in that said polyisocyanate a) contains more than 50% by weight of polyphenyl polymethylene polyisocyanates having a functionality f > 2 and the structural formula C 15 H 10 N 2 O 2 [C 8 H 5 NO] n, where n = integer > 0, and that the organic compound b) contains one or more polyglycidyl ethers selected from the group consisting of the polyglycidyl ethers of bisphenol A, bisphenol F and novolac, that the chemical and/or physical blowing agents f) include at least one carboxylic acid selected from formic acid and acetic acid, or that said blowing agent consists of water and optionally one or more compounds selected from the group containing hydrocarbons, fluorocarbons, and fluorohydrocarbons, and that the amount of component a) is such that the equivalent ratio of isocyanate groups of component a) to the total of the epoxy groups of component b), hydroxy groups and/or amino groups of component e1) and the hydroxy groups that are optionally present in component b) is at least 1.2:1, and that the reaction proceeds in the absence of a component d) acting as a stopper. a) at least one mixture of organic polyisocyanates, and b) at least one organic compound having at least two epoxy groups in an amount that corresponds to an equivalent ratio of isocyanate groups to epoxy groups of from 1.2:1 to 500:1, in the presence of c) optionally at least one catalyst accelerating the isocyanate/epoxide reaction, e) optionally in the presence of auxiliary agents and additives, optionally containing multifunctional compounds containing hydroxy or amino groups e1), f) chemical and/or physical blowing agents,
A composite electrolyte comprising: lithium-containing oxide particles having a specific surface area, which is measured by a BET adsorption method using N 2, of 10 m 2 /g to 500 m 2 /g, and a content of the lithium-containing oxide particles in the composite electrolyte falling within a range of from 90% by weight to 98% by weight; and an electrolytic composition comprising lithium ions, an organic solvent, and a polymer. lithium-containing oxide particles having a specific surface area, which is measured by a BET adsorption method using N 2, of 10 m 2 /g to 500 m 2 /g, and a content of the lithium-containing oxide particles in the composite electrolyte falling within a range of from 90% by weight to 98% by weight; and an electrolytic composition comprising lithium ions, an organic solvent, and a polymer.
A composite structural material comprising a hydrophobic structural material and a hydrophilic structural material, wherein, the proportion of the hydrophobic structural material to the hydrophilic structural material ranges from 1:0.1 to 1:3, the hydrophilic structural material is comprised of a hydrophilic structural material of high viscosity and a hydrophilic structural material of low viscosity; and the proportion of the hydrophilic structural material of high viscosity to the hydrophilic structural material of low viscosity ranges from 1:1 to 1:3; the hydrophobic structural material is a biodegradable structural material, the biodegradable structural material is selected from the group consisting of carnauba wax, glycerides of C 16 -C 22 fatty acid from at least one of C 16 -C 22 fatty glyceride, C 16 -C 22 fatty diglyceride and C 16 -C 22 fatty monoglyceride; the glyceride of C 16 -C 22 fatty acid is selected from at least one of the following types: glyceryl behenate, diglyceryl behenate, mono glyceryl behenate, and mixtures thereof; the hydrophilic structural material is selected from the group consisting of hydroxypropyl methylcellulose, hydroxy propyl cellulose, hydroxyethyl cellulose, sodium carboxymethylcellulose, sodium alginates, chitin and polyethylene oxide; the proportion used herein is accounted by weight; the "viscosity" used herein refers to the viscosity of the solution obtained by 2 g substance dissolving in 100 mL of distilled water at 20°C; the "low viscosity" used herein refers to that the viscosity of the hydrophilic structural material is 20-2,000 mPa.s; the "high viscosity" used herein refers to that the viscosity of the hydrophilic structural material is 3,000-500,000 mPa.s.
A filter unit comprising: a cyclone body member receiving a fluid introduced thereinto in one direction and having an internal circular cross section, to form a rotational flow of the fluid; and a discharge member disposed on a central upper end portion of the cyclone body member and having at least a portion of which a cross section has a noncircular shape, to reduce the rotational flow of the fluid and then discharge the fluid, wherein the discharge member has a lower end coupled to the cyclone body member and an upper end through which the fluid is discharged, wherein the lower end of the discharge member has a circular cross section, and the upper end of the discharge member has an elliptical cross section. a cyclone body member receiving a fluid introduced thereinto in one direction and having an internal circular cross section, to form a rotational flow of the fluid; and a discharge member disposed on a central upper end portion of the cyclone body member and having at least a portion of which a cross section has a noncircular shape, to reduce the rotational flow of the fluid and then discharge the fluid, wherein the discharge member has a lower end coupled to the cyclone body member and an upper end through which the fluid is discharged, wherein the lower end of the discharge member has a circular cross section, and the upper end of the discharge member has an elliptical cross section.
Stand-alone integrated renewable electric power system comprising a container, when closed, inside of the container at least one wind energy system, attached to the wind energy system at least one PV-system, and the container having on a side thereof at least one protection wall for the PV-system, wherein the wind energy system comprises at least one wind turbine, characterized in that the wind energy system further comprises duct defining elements (2,4) defining at least one duct comprising at least one air constriction member (2,4) for accelerating an air flow towards the at least one wind turbine, and wherein the wind energy system comprises at least one obstruction means (5,6,7) per duct, the obstruction means being positionable in at least a start-up position, a free flow position, and closed position.
A nozzle head for emitting a spray jet of an application agent, in particular of an insulating agent, wherein a) a specific volumetric flow of the application agent is applied through the spray jet, b) the spray jet extends essentially flat in a jet plane, and c) the spray jet has in the jet plane a specific jet width, which depends on the volumetric flow of the application agent, comprising d) two outer plates (6, 7), and e) a middle plate, which is disposed between the two outer plates (6, 7) and has a front edge on the spraying side with a predetermined contour, wherein f) the middle plate has outer tips (19, 20) on both sides which protrude in the spraying direction, and g) the middle plate has a recess in the middle, and comprising h) a plate holder having a bottom plate, which carries the outer plates (6, 7) and the middle plate, wherein i) the plate holder carries a mounting plate in order to allow mounting of the nozzle head on a robot, j) the bottom plate is attached by means of a releasable mechanical connection to the mounting plate, k) the bottom plate can be mounted in different angular positions relative to the mounting plate. a) a specific volumetric flow of the application agent is applied through the spray jet, b) the spray jet extends essentially flat in a jet plane, and c) the spray jet has in the jet plane a specific jet width, which depends on the volumetric flow of the application agent, comprising d) two outer plates (6, 7), and e) a middle plate, which is disposed between the two outer plates (6, 7) and has a front edge on the spraying side with a predetermined contour, wherein f) the middle plate has outer tips (19, 20) on both sides which protrude in the spraying direction, and g) the middle plate has a recess in the middle, and comprising h) a plate holder having a bottom plate, which carries the outer plates (6, 7) and the middle plate, wherein i) the plate holder carries a mounting plate in order to allow mounting of the nozzle head on a robot, j) the bottom plate is attached by means of a releasable mechanical connection to the mounting plate, k) the bottom plate can be mounted in different angular positions relative to the mounting plate.