mhurhangee/ep-ind-claims huggingface dataset:
Arrangement for charging cells of an energy store, in particular accumulator or battery, from a current source, characterised in that each cell is assigned a module, from the output voltage of which the assigned cell can be charged, wherein the modules can be supplied by the current source and are electrically isolated from one another on the input side, wherein each module is assigned, on the input side, a toroidal core, through which the primary conductor can be looped and around which a secondary winding is arranged, in particular provided in a wound manner, for input-side feeding of the module, wherein the modules are fixedly connected to the cells by being surrounded by a common housing, the toroidal cores protruding from the assembly, in particular being aligned parallel in such a manner that the primary conductor can be looped through the toroidal cores in a straight line, wherein each module has as compensation of the secondary winding a capacitance which is connected in parallel and/or in series to the secondary winding in such a manner that the associated resonant frequency corresponds substantially to the frequency of the current applied to the primary conductor, wherein from this resonant circuit a rectifier with downstream DC/DC converter can be supplied, from which the cell can be fed, wherein a respective further winding is arranged on the respective toroidal core, in particular wound around the toroidal core, so that a measure of the kickback voltage of the module is detectable from the induced voltage, wherein the further winding is connected to the control electronics of the current source, in particular which generates the pulse-width-modulated drive signals.
A building exterior panel comprising: - a front steel plate; - a rear steel plate spaced apart from the front steel plate in a rear direction of the front steel plate and facing a building structure; - an upper frame having a width in a thickness direction from the front steel plate toward the rear steel plate and disposed between upper ends of the front steel plate and the rear steel plate so as to be coupled; - a first side frame having a width in the thickness direction and disposed at an end of a first side among both ends of each of the front steel plate and the rear steel plate in a horizontal direction so as to be coupled; - a second side frame having a width in the thickness direction and disposed at an end of a second side among the both ends of each of the front steel plate and the rear steel plate in the horizontal direction so as to be coupled; and - a lower frame having a width in the thickness direction and disposed between lower ends of each of the front steel plate and the rear steel plate so as to be coupled; characterized in that - an insulation member is located between an inner surface of an upper end of the rear steel plate and an outer surface of the upper frame or between an inner surface of a lower end of the rear steel plate and an outer surface of the lower frame, wherein the insulation member comprises: - an adhesive portion adhered to an outer surface of the upper frame or the lower frame; and - an insulation portion having one side adhered to the adhesive portion and the other side allowing the rear steel plate to be in close contact therewith. - a front steel plate; - a rear steel plate spaced apart from the front steel plate in a rear direction of the front steel plate and facing a building structure; - an upper frame having a width in a thickness direction from the front steel plate toward the rear steel plate and disposed between upper ends of the front steel plate and the rear steel plate so as to be coupled; - a first side frame having a width in the thickness direction and disposed at an end of a first side among both ends of each of the front steel plate and the rear steel plate in a horizontal direction so as to be coupled; - a second side frame having a width in the thickness direction and disposed at an end of a second side among the both ends of each of the front steel plate and the rear steel plate in the horizontal direction so as to be coupled; and - a lower frame having a width in the thickness direction and disposed between lower ends of each of the front steel plate and the rear steel plate so as to be coupled; characterized in that - an insulation member is located between an inner surface of an upper end of the rear steel plate and an outer surface of the upper frame or between an inner surface of a lower end of the rear steel plate and an outer surface of the lower frame, wherein the insulation member comprises: - an adhesive portion adhered to an outer surface of the upper frame or the lower frame; and - an insulation portion having one side adhered to the adhesive portion and the other side allowing the rear steel plate to be in close contact therewith.
A power converter comprising a rectifier to convert AC power from an AC power supply into DC voltage at a load, a smoothing capacitor that is connected to a DC output of the rectifier, a short circuit unit to short-circuit the AC power supply via an inductor, and a controller capable of changing the number of short circuit operations of the short circuit unit during a half cycle of the AC power supply on a basis of a load condition, characterized in that the controller is configured to set a first number of short circuit operations of said number of short circuit operations after a first delay time (Tdll) from a zero crossing point of the AC power supply, and subsequently during a following cycle of the AC power set a second number of short circuit operations of said number of short circuit operations after a second delay time from the corresponding zero crossing point of the AC power supply, wherein when the second number of short circuit operations is set to be greater than the first number of short circuit operations, the length of the second delay time is controlled by the controller to be greater than the length of the first delay time (Tdll), and when the second number of short circuit operations is set to be less than the first number of short circuit operations, the length of the second delay time is controlled by the controller to be less than the length of the first delay time. when the second number of short circuit operations is set to be greater than the first number of short circuit operations, the length of the second delay time is controlled by the controller to be greater than the length of the first delay time (Tdll), and when the second number of short circuit operations is set to be less than the first number of short circuit operations, the length of the second delay time is controlled by the controller to be less than the length of the first delay time.
A wave power plant rotor, which is mountable for rotation around a float's vertical shaft or which has its vertical center axle rotatably bearing-mounted on the float, said rotor comprising substantially vertical or inclined blades arranged at peripheral intervals and having what in radial direction are their innermost edges spaced from a center axle of the rotor, and the blades have such an orientation that the rotor is set in rotational motion by forces which are generated by the flow of liquid and/or the gravity of liquid in the rotor and which are working perpendicularly towards the blades, as well as a housing surrounding the rotor and containing a liquid, the housing being attached fixedly to the rotor for enabling the housing to rotate along with the rotor and the blades, characterized in that commencing from the axle of the rotor is power take-off to a generator.
Pharmaceutical composition containing ibuprofen lysinate combined with cyclodextrins, microcrystalline cellulose combined with sodium carboxymethylcellulose as colloidal agent to form the suspension and pharmaceutically acceptable excipients, in the form of oral suspension.
A battery module comprising: a battery cell stack in which a plurality of battery cells are stacked along a stacking direction of the plurality of battery cells; a U-shaped frame accommodating the battery cell stack and having an opened upper portion; and an upper plate covering the battery cell stack at the opened upper portion of the U-shaped frame; wherein a surface of the battery cell stack perpendicular to the stacking direction of the plurality of battery cells is mounted on a bottom portion of the U-shaped frame; wherein a stepped portion is formed on one side of the bottom portion of the U-shaped frame, and the battery cell includes a protruding portion protruding toward the stepped portion; and wherein the stepped portion is formed by a bending portion of the bottom portion of the U-shaped frame, wherein the bottom portion of the U-shaped frame member comprises a first portion (300a1) and a second portion (300a2), wherein a portion of the frame member extending from the second portion (300a2) to the first portion (300a1) is bent so as to form a stepped portion, wherein the first portion (300a1) is located at an edge based on a longitudinal direction of the battery cell, the second portion (300a2) is located inside the first portion (300a1), and the first portion (300a1) corresponds to the stepped portion. a battery cell stack in which a plurality of battery cells are stacked along a stacking direction of the plurality of battery cells; a U-shaped frame accommodating the battery cell stack and having an opened upper portion; and an upper plate covering the battery cell stack at the opened upper portion of the U-shaped frame; wherein a surface of the battery cell stack perpendicular to the stacking direction of the plurality of battery cells is mounted on a bottom portion of the U-shaped frame; wherein a stepped portion is formed on one side of the bottom portion of the U-shaped frame, and the battery cell includes a protruding portion protruding toward the stepped portion; and wherein the stepped portion is formed by a bending portion of the bottom portion of the U-shaped frame, wherein the bottom portion of the U-shaped frame member comprises a first portion (300a1) and a second portion (300a2), wherein a portion of the frame member extending from the second portion (300a2) to the first portion (300a1) is bent so as to form a stepped portion, wherein the first portion (300a1) is located at an edge based on a longitudinal direction of the battery cell, the second portion (300a2) is located inside the first portion (300a1), and the first portion (300a1) corresponds to the stepped portion.
A method for gluing which comprises the steps of: - Providing at least two adjacent substrates arranged side by side, - Providing a radiation curable adhesive composition which comprises from 0.1 wt.% to 30 wt.% of fibers compared to the total weight of the radiation curable adhesive composition, wherein the fibers have a length comprised from 100 microns to 50 mm, - Contacting the at least two adjacent substrates with the radiation curable adhesive composition, and - Exposing the at least two adjacent substrates and the radiation curable adhesive composition to radiation until the radiation curable adhesive composition is cured in order to bond the at least two adjacent substrates together. - Providing at least two adjacent substrates arranged side by side, - Providing a radiation curable adhesive composition which comprises from 0.1 wt.% to 30 wt.% of fibers compared to the total weight of the radiation curable adhesive composition, wherein the fibers have a length comprised from 100 microns to 50 mm, - Contacting the at least two adjacent substrates with the radiation curable adhesive composition, and - Exposing the at least two adjacent substrates and the radiation curable adhesive composition to radiation until the radiation curable adhesive composition is cured in order to bond the at least two adjacent substrates together.
A holding device for arranging an additional container inside a waste container, said holding device comprises a first profile element, said first profile element comprising an arrangement area for arranging the holding device at the waste container and a fastening area for fastening the additional container, and a second profile element, said second profile element comprising an arrangement area for arranging the holding device at the waste container and a fastening area for fastening the additional container; the first profile element and the second profile element are connected to one another; said first profile element is formed as a first leg of said holding device and said second profile element is formed as a second leg of said holding device characterized in that the holding device has an L-shape, T-shape or V-shape.
An age-tailored nutrition system for an infant, comprising: a first infant formula being designed to meet the nutritional requirement of an infant from birth to two months and having a phosphorus source and a calcium source such that the calcium: phosphorus ratio is between 1.0:1 and 2.5:1, preferably from more than 2.0:1 to 2.5:1, more preferably from more than 2.0:1 to 2.3:1 and a second infant formula being designed to meet the nutritional requirement of an infant from above two to six months and having a phosphorus source and a calcium source such that the calcium: phosphorus ratio is between 1.0:1 and 2.5:1, preferably from more than 2.0:1 to 2.5:1, more preferably between 2.2:1 and 2.5:1 and optionally, a third infant formula being designed to meet the nutritional requirement of an infant from above six to twelve months and having a phosphorus source and a calcium source such that the calcium: phosphorus ratio is between 1.0:1 and 2.5:1, preferably from more than 2.0:1 to 2.5:1, more preferably between 2.4:1 and 2.5:1, wherein the calcium: phosphorus ratio in the second infant formula is higher than that in the first infant formula, and the calcium: phosphorus ratio in the optional third infant formula is higher than that in the second infant formula, and wherein at least one of the first, second and optional third infant formulae has a calcium: phosphorus ratio from more than 2.0:1 to 2.5:1. a first infant formula being designed to meet the nutritional requirement of an infant from birth to two months and having a phosphorus source and a calcium source such that the calcium: phosphorus ratio is between 1.0:1 and 2.5:1, preferably from more than 2.0:1 to 2.5:1, more preferably from more than 2.0:1 to 2.3:1 and a second infant formula being designed to meet the nutritional requirement of an infant from above two to six months and having a phosphorus source and a calcium source such that the calcium: phosphorus ratio is between 1.0:1 and 2.5:1, preferably from more than 2.0:1 to 2.5:1, more preferably between 2.2:1 and 2.5:1 and optionally, a third infant formula being designed to meet the nutritional requirement of an infant from above six to twelve months and having a phosphorus source and a calcium source such that the calcium: phosphorus ratio is between 1.0:1 and 2.5:1, preferably from more than 2.0:1 to 2.5:1, more preferably between 2.4:1 and 2.5:1, wherein the calcium: phosphorus ratio in the second infant formula is higher than that in the first infant formula, and the calcium: phosphorus ratio in the optional third infant formula is higher than that in the second infant formula, and wherein at least one of the first, second and optional third infant formulae has a calcium: phosphorus ratio from more than 2.0:1 to 2.5:1.
A method for reporting power headroom to a base station, comprising: establishing a first wireless connection between a user equipment and a first base station using a first subscriber identity module in the user equipment; establishing a further wireless connection between the user equipment and a further base station using a second subscriber identity module in the user equipment; calculating a first power headroom value for the user equipment to uplink to the first base station; calculating a further power headroom value for the user equipment to uplink to the further base station; generating a first power headroom report that includes the first power headroom value reduced by the further power headroom value; generating a further power headroom report that includes the further power headroom value; reporting the first power headroom report to the first base station; and reporting the further power headroom report to the further base station; characterized in that the generating of the first power headroom report includes reducing the first power headroom value by an average of the further power headroom value over time. establishing a first wireless connection between a user equipment and a first base station using a first subscriber identity module in the user equipment; establishing a further wireless connection between the user equipment and a further base station using a second subscriber identity module in the user equipment; calculating a first power headroom value for the user equipment to uplink to the first base station; calculating a further power headroom value for the user equipment to uplink to the further base station; generating a first power headroom report that includes the first power headroom value reduced by the further power headroom value; generating a further power headroom report that includes the further power headroom value; reporting the first power headroom report to the first base station; and reporting the further power headroom report to the further base station; characterized in that the generating of the first power headroom report includes reducing the first power headroom value by an average of the further power headroom value over time.
A method for rendering biological tissue sufficiently optically transparent for three-dimensional light microscopy imaging, the method comprising incubating biological tissue with an optical clearing solution for sufficient time for the optical clearing solution to impregnate the biological tissue and make the biological tissue sufficiently optically transparent for three-dimensional light microscopy imaging, wherein said optical clearing solution comprises (i) formamide in an amount of 20-50 wt%, (ii) glycerol in an amount of 10-90 wt%, and (iii) water as remainder; and optionally wherein the method further comprises performing three-dimensional light microscopy imaging on the biological tissue that has been rendered sufficiently optically transparent by the optical clearing solution; and wherein said biological tissue is impregnated with the optical clearing solution by impregnating the biological solution in successive steps comprising: a first impregnating step employing an optical clearing solution consisting only of 20-50 wt% formamide in water; an intermediate impregnating step employing an optical clearing solution comprising 20-50 wt% formamide, 30-60 wt% glycerol, and water; and a final impregnating step employing an optical clearing solution consisting only of 20-40 wt% formamide and 60-80 wt% glycerol, wherein the glycerol content increases from the intermediate impregnating step to the final impregnating step. wherein said optical clearing solution comprises (i) formamide in an amount of 20-50 wt%, (ii) glycerol in an amount of 10-90 wt%, and (iii) water as remainder; and optionally wherein the method further comprises performing three-dimensional light microscopy imaging on the biological tissue that has been rendered sufficiently optically transparent by the optical clearing solution; and wherein said biological tissue is impregnated with the optical clearing solution by impregnating the biological solution in successive steps comprising: a first impregnating step employing an optical clearing solution consisting only of 20-50 wt% formamide in water; an intermediate impregnating step employing an optical clearing solution comprising 20-50 wt% formamide, 30-60 wt% glycerol, and water; and a final impregnating step employing an optical clearing solution consisting only of 20-40 wt% formamide and 60-80 wt% glycerol, wherein the glycerol content increases from the intermediate impregnating step to the final impregnating step.
A method for making a pigment grind dispersion of titanium dioxide pigment-polymer composite particles, which method comprises: mixing titanium dioxide particles with an aqueous emulsion containing water-insoluble film-forming first polymer particles that do not by themselves form composite particles with the titanium dioxide particles, and then adding an aqueous emulsion containing water-insoluble film-forming second polymer particles that adsorb to the titanium dioxide particles, or circulating an aqueous emulsion containing water-insoluble film-forming first polymer particles that do not by themselves form composite particles with titanium dioxide particles, and independently and concurrently adding to such first polymer particles (i) a dispersion of titanium dioxide particles and (ii) an aqueous emulsion containing water-insoluble film-forming second polymer particles that adsorb to the titanium dioxide particles, wherein the first polymer is an acrylic emulsion, ethylene vinyl acetate emulsion, polybutadiene emulsion, polyvinylidene emulsion, styrene acrylic emulsion, vinyl acrylic emulsion, vinyl acetate-vinyl versatate emulsion or mixture thereof; and wherein the second polymer particles include pendant phosphorus groups, acetoacetoxy groups, 1,3-dicarbonyl groups, aldehyde groups, acid groups, amine groups, epoxy groups, isocyanate groups, thiorane groups, isothiocyanate groups, alcohol groups, carbodiimides groups, aziridine groups, haloalkane groups, or halophenyl groups. mixing titanium dioxide particles with an aqueous emulsion containing water-insoluble film-forming first polymer particles that do not by themselves form composite particles with the titanium dioxide particles, and then adding an aqueous emulsion containing water-insoluble film-forming second polymer particles that adsorb to the titanium dioxide particles, or circulating an aqueous emulsion containing water-insoluble film-forming first polymer particles that do not by themselves form composite particles with titanium dioxide particles, and independently and concurrently adding to such first polymer particles (i) a dispersion of titanium dioxide particles and (ii) an aqueous emulsion containing water-insoluble film-forming second polymer particles that adsorb to the titanium dioxide particles,