mhurhangee/ep-ind-claims huggingface dataset:
A controller for managing an energy storage and recovery system comprising an energy storage device, wherein the energy storage device is a flywheel and a transmission, capable of applying torque or transferring power between the flywheel and an energy source/sink, wherein the controller is arranged: to receive a first input representative of a torque or power demanded from the energy storage and recovery system, or to receive a first signal from which the controller calculates said first input; to receive a second signal, representative of motion or speed of the flywheel, from which the controller calculates a second input that is representative of a torque or power supplied by the energy storage and recovery system; and to manage torque applied by the energy storage and recovery system to the energy source/sink or to manage power transferred between the energy storage and recovery system and the energy source/sink in response to discrepancy between the torque demanded and the torque supplied or in response to discrepancy between the power demanded and the power supplied, and wherein the controller is arranged to estimate a demanded flywheel rotational speed or energy level from the first input or the first signal, to obtain a signal representative of the actual flywheel rotational speed, or energy level, and to manage the said torque applied or the said power transferred in response to the discrepancy between the demanded flywheel rotational speed, or energy energy level and the actual flywheel rotational speed, or energy level. to receive a first input representative of a torque or power demanded from the energy storage and recovery system, or to receive a first signal from which the controller calculates said first input; to receive a second signal, representative of motion or speed of the flywheel, from which the controller calculates a second input that is representative of a torque or power supplied by the energy storage and recovery system; and to manage torque applied by the energy storage and recovery system to the energy source/sink or to manage power transferred between the energy storage and recovery system and the energy source/sink in response to discrepancy between the torque demanded and the torque supplied or in response to discrepancy between the power demanded and the power supplied, and wherein the controller is arranged to estimate a demanded flywheel rotational speed or energy level from the first input or the first signal, to obtain a signal representative of the actual flywheel rotational speed, or energy level, and to manage the said torque applied or the said power transferred in response to the discrepancy between the demanded flywheel rotational speed, or energy energy level and the actual flywheel rotational speed, or energy level.
A mobile wireless communications device comprising: a housing; at least one wireless transceiver carried by said housing; and a multiple-band antenna carried by said housing and coupled to said at least one wireless transceiver, said multiple-band antenna comprising a first radiator comprising a radiator element and a parasitic element adjacent thereto, said parasitic element being selectively switchable between floating and grounded states, and a second radiator insulated from said first radiator, characterized in that, the second radiator comprises a first branch a second branch coupled to said first branch, said first and second branches defining a slot extending therebetween. a housing; at least one wireless transceiver carried by said housing; and a multiple-band antenna carried by said housing and coupled to said at least one wireless transceiver, said multiple-band antenna comprising a first radiator comprising a radiator element and a parasitic element adjacent thereto, said parasitic element being selectively switchable between floating and grounded states, and a second radiator insulated from said first radiator, a first radiator comprising a radiator element and a parasitic element adjacent thereto, said parasitic element being selectively switchable between floating and grounded states, and a second radiator insulated from said first radiator, a first branch a second branch coupled to said first branch, said first and second branches defining a slot extending therebetween.
A system for a gas turbine, comprising: a fuel system, comprising: a fuel blending system configured to blend a first fuel with a second fuel in a ratio to produce a third mixed fuel, wherein the first fuel has a first heating value, the second fuel has a second heating value, and the third mixed fuel has a third heating value, wherein the first heating value is lower than the second heating value; and a feedforward controller configured to adjust the ratio of the first and second fuels (84, 76) to correct the third heating value, wherein the feedforward controller is characterised in that it is configured to predict an adjusted flow rate of the second fuel to correct the third heating value based on measured flow rates of the first fuel and the third mixed fuel and measured heating values of the first fuel, the second fuel and the third mixed fuel. a fuel system, comprising: a fuel blending system configured to blend a first fuel with a second fuel in a ratio to produce a third mixed fuel, wherein the first fuel has a first heating value, the second fuel has a second heating value, and the third mixed fuel has a third heating value, wherein the first heating value is lower than the second heating value; and a feedforward controller configured to adjust the ratio of the first and second fuels (84, 76) to correct the third heating value, wherein the feedforward controller is characterised in that it is configured to predict an adjusted flow rate of the second fuel to correct the third heating value based on measured flow rates of the first fuel and the third mixed fuel and measured heating values of the first fuel, the second fuel and the third mixed fuel. a fuel blending system configured to blend a first fuel with a second fuel in a ratio to produce a third mixed fuel, wherein the first fuel has a first heating value, the second fuel has a second heating value, and the third mixed fuel has a third heating value, wherein the first heating value is lower than the second heating value; and a feedforward controller configured to adjust the ratio of the first and second fuels (84, 76) to correct the third heating value, wherein the feedforward controller is characterised in that it is configured to predict an adjusted flow rate of the second fuel to correct the third heating value based on measured flow rates of the first fuel and the third mixed fuel and measured heating values of the first fuel, the second fuel and the third mixed fuel.
A packaging material for cold forming comprising a polyamide resin film biaxially stretched based on a tenter method and an aluminum foil provided on one surface of the polyamide resin film and integrated with the polyamide resin film, wherein the stretching magnification factor in the transverse direction (TD magnification factor) and the stretching magnification factor in the longitudinal direction (MD magnification factor) of the polyamide resin film are 2 or more and less than 3.0, wherein a distortion of the polyamide resin film caused by applying thereto a tension corresponding to a tensile break tension of the aluminum foil is 20% or more and 45% or less in both longitudinal direction and transverse direction, the tensile break tension of the aluminum foil is determined by measuring the tensile strength at break of a sample and by normalizing the tensile load at the time of the breakage with the width of the sample to derive the tensile break tension of the aluminum foil, in accordance with the method indicated in the description, and the distortion representing the elongation rate due to tensile straining of the biaxially stretched polyamide resin film is determined on the basis of the following formula: Distortion A % = ( dimension after tensile straining − dimension before tensile straining) / ( dimension before tensile straining) × 100 in accordance with the method indicated in the description.
A process for producing a diblock copolymer comprising the steps of (a) reaction of at least one aromatic polyester having a melting point in the range from 160°C to 350°C and at least one polymer diol having a melting point of less than 100°C at a temperature of greater than 200°C to obtain a mixture (G-a); (b) reaction of the mixture (G-a) with at least one diisocyanate, wherein the diisocyanate is employed in a molar amount of at least 0.9 based on the alcohol groups of the polymer diols, wherein the aromatic polyester is selected from the group consisting of polybutylene terephthalate, polyethylene terephthalate and polyethylene naphthalate. (a) reaction of at least one aromatic polyester having a melting point in the range from 160°C to 350°C and at least one polymer diol having a melting point of less than 100°C at a temperature of greater than 200°C to obtain a mixture (G-a); (b) reaction of the mixture (G-a) with at least one diisocyanate,
A powder containing plate-like particles, the plate-like particles comprising: sodium niobate particles having a shape of a cuboid having an average side length of 0.1 μm or more to 100 μm or less, wherein at least one face of the cuboid is a plane in pseudo-cubic notation, and the sodium niobate particles have a perovskite single-phase structure; and an organic binder, wherein the plate-like particles have an aspect ratio of a width to a thickness (width/thickness) of 3 or more, and wherein a largest face of the plate-like particles is parallel to the plane in pseudo-cubic notation. sodium niobate particles having a shape of a cuboid having an average side length of 0.1 μm or more to 100 μm or less, wherein at least one face of the cuboid is a plane in pseudo-cubic notation, and the sodium niobate particles have a perovskite single-phase structure; and an organic binder, wherein the plate-like particles have an aspect ratio of a width to a thickness (width/thickness) of 3 or more, and wherein a largest face of the plate-like particles is parallel to the plane in pseudo-cubic notation.
Multilayer packaging film comprising a (a) paper layer as one of the surface layers with preferably regularly repeating, discontinuous apertures and/or continuous apertures of the paper layer extending as far as the transparent remainder of the film composite comprising the layers b)-d), (b) a transparent lamination layer made of at least one thermoplastic biopolymer selected from the group of polyhydroxyalkanoates, cellulose, cellulose derivatives, cellulose hydrates, thermoplastic starch, lactic acid homo- and copolymers, polyester made of lactones having 4-10 carbon atoms, copolymers made of at least two monomers of the biopolymers mentioned and transparent mixtures of at least two of the biopolymers mentioned, (c) optionally at least one transparent layer made of thermoplastic polymers with preferably a defined functionality and optionally with necessary adhesion-promoter layers, (d) a transparent, optionally multiple-ply heat-sealable layer made of at least one thermoplastic biopolymer selected from the group of polyhydroxyalkanoates, cellulose, cellulose derivatives, cellulose hydrates, thermoplastic starch, lactic acid homo- and copolymers, polyester made of lactones having 4-10 carbon atoms, copolymers made of at least two monomers of the biopolymers mentioned and transparent mixtures of at least two of the biopolymers mentioned. (a) paper layer as one of the surface layers with preferably regularly repeating, discontinuous apertures and/or continuous apertures of the paper layer extending as far as the transparent remainder of the film composite comprising the layers b)-d), (b) a transparent lamination layer made of at least one thermoplastic biopolymer selected from the group of polyhydroxyalkanoates, cellulose, cellulose derivatives, cellulose hydrates, thermoplastic starch, lactic acid homo- and copolymers, polyester made of lactones having 4-10 carbon atoms, copolymers made of at least two monomers of the biopolymers mentioned and transparent mixtures of at least two of the biopolymers mentioned, (c) optionally at least one transparent layer made of thermoplastic polymers with preferably a defined functionality and optionally with necessary adhesion-promoter layers, (d) a transparent, optionally multiple-ply heat-sealable layer made of at least one thermoplastic biopolymer selected from the group of polyhydroxyalkanoates, cellulose, cellulose derivatives, cellulose hydrates, thermoplastic starch, lactic acid homo- and copolymers, polyester made of lactones having 4-10 carbon atoms, copolymers made of at least two monomers of the biopolymers mentioned and transparent mixtures of at least two of the biopolymers mentioned.
A knitted component, comprising: a course of a first yarn type and a course (48, 62, 66) of a second yarn type; a first surface at least partially formed by the course of the first yarn type; a cavity (30, 42) formed within the knitted component that is recessed relative to the first surface; and a first float (44, 78) formed by the course (48, 62, 66) of the second yarn type that extends across the cavity (30, 42) and is exposed; wherein the course (48, 62, 66) of the second yarn type comprises a stitch that is knitted into the knitted component adjacent the float (44, 78), characterised in that the first surface conceals the stitch of the course (48, 62, 66) of the second yarn type from the perspective facing the first surface.
Device for filling a container to be filled with a carbonated filling product, preferably in a bottling plant, comprising a filling valve for filling a container to be filled, a relief arrangement with a relief valve for relieving excess pressure in the filled container, and a sterile area in which at least one outlet opening of the filling valve is mounted for connecting to a container opening of the container to be filled, wherein the relief arrangement for relieving the excess pressure into the sterile area communicates with the sterile area, the relief arrangement has a relief channel with an outlet opening and the outlet opening of the relief channel leads into the sterile area, characterised in that the relief channel is connected to a sterile outgoing air pipe system of the sterile area.
A system to treat a region of a cornea of an eye, the region comprising an epithelial layer disposed over a stromal layer, the system comprising: a device configured to map the thickness of the epithelial layer over the region of the cornea; a laser to generate a laser beam of an ablative radiation; a movable scan component coupled to the laser to scan the laser beam over the region; and a processor system coupled to the laser and the movable scan component, the processor system comprising a tangible medium configured to arrange pulses of laser beam to ablate the epithelial layer of the region in response to the mapped epithelial layer thickness to expose at least one of the stromal layer or a Bowman's membrane and the processor system being configured to determine a desired optical profile to correct an optical property of the eye and to determine a healed profile of the epithelial layer over the stromal layer in response to the desired optical profile and the mapped epithelial layer thickness, wherein the processor system is coupled to the laser to ablate a profile in the stromal layer in response to the healed epithelial layer profile to contour the region and correct the optical property of the eye. a device configured to map the thickness of the epithelial layer over the region of the cornea; a laser to generate a laser beam of an ablative radiation; a movable scan component coupled to the laser to scan the laser beam over the region; and a processor system coupled to the laser and the movable scan component, the processor system comprising a tangible medium configured to arrange pulses of laser beam to ablate the epithelial layer of the region in response to the mapped epithelial layer thickness to expose at least one of the stromal layer or a Bowman's membrane and the processor system being configured to determine a desired optical profile to correct an optical property of the eye and to determine a healed profile of the epithelial layer over the stromal layer in response to the desired optical profile and the mapped epithelial layer thickness, wherein the processor system is coupled to the laser to ablate a profile in the stromal layer in response to the healed epithelial layer profile to contour the region and correct the optical property of the eye.
A unit for grouping together and aligning capsules for extraction or infusion products in multi-capsule packages, comprising: - a first rotary unit, designed to rotate about a first axis of rotation and equipped with a plurality of first seats for receiving capsules designed to receive a corresponding capsule from a transport element of a machine for forming capsules, at least a part of the first seats being designed to rotate about a respective horizontal radial axis so as to modify the orientation of the capsules; - a second rotary unit designed to rotate about a second axis of rotation, acting in conjunction with the first rotary unit to receive from it capsules in a predetermined transfer region, equipped with a first rotary element designed to rotate about the second axis of rotation and equipped with respective second seats for receiving capsules, and a second rotary element designed to rotate about the second axis of rotation and equipped with respective third seats for receiving capsules, with the first and second rotary elements (7A, 7B) which can be rotated independently in a same direction of rotation for picking up alternatively and in succession, capsules from the first rotary element; - at least one grouping together and aligning line designed to group together and align capsules, acting in conjunction with the second rotary unit for receiving, in a receiving region, capsules alternatively from the first and second rotary element (7A, 7B) so as to form a group of capsules in a delivery region. - a first rotary unit, designed to rotate about a first axis of rotation and equipped with a plurality of first seats for receiving capsules designed to receive a corresponding capsule from a transport element of a machine for forming capsules, at least a part of the first seats being designed to rotate about a respective horizontal radial axis so as to modify the orientation of the capsules; - a second rotary unit designed to rotate about a second axis of rotation, acting in conjunction with the first rotary unit to receive from it capsules in a predetermined transfer region, equipped with a first rotary element designed to rotate about the second axis of rotation and equipped with respective second seats for receiving capsules, and a second rotary element designed to rotate about the second axis of rotation and equipped with respective third seats for receiving capsules, with the first and second rotary elements (7A, 7B) which can be rotated independently in a same direction of rotation for picking up alternatively and in succession, capsules from the first rotary element; - at least one grouping together and aligning line designed to group together and align capsules, acting in conjunction with the second rotary unit for receiving, in a receiving region, capsules alternatively from the first and second rotary element (7A, 7B) so as to form a group of capsules in a delivery region.
A method of forming an additively manufactured aluminum part, comprising: establishing an arc between a metal-cored aluminum wire and the additively manufactured aluminum part, wherein the metal-cored aluminum wire comprises a metallic sheath and a granular core disposed within the metallic sheath; melting a portion of the metal-cored aluminum wire using the heat of the arc to form molten droplets; transferring the molten droplets to the additively manufactured aluminum part under an inert gas flow; and solidifying the molten droplets under the inert gas flow to form deposits of the additively manufactured aluminum part, characterized in that the solidus of the metallic sheath of the metal-cored aluminum wire is at least 5% greater than the solidus of the granular core, wherein the granular core of the metal-cored aluminum wire, which is a compressed mixture of powdered metals, alloys, and/or non-metallic components, includes a first alloy comprising a plurality of elements, and wherein the first alloy has a solidus that is lower than each of the respective melting points of the plurality of elements of the first alloy, wherein the first alloy is a eutectic alloy or near-eutectic alloy. establishing an arc between a metal-cored aluminum wire and the additively manufactured aluminum part, wherein the metal-cored aluminum wire comprises a metallic sheath and a granular core disposed within the metallic sheath; melting a portion of the metal-cored aluminum wire using the heat of the arc to form molten droplets; transferring the molten droplets to the additively manufactured aluminum part under an inert gas flow; and solidifying the molten droplets under the inert gas flow to form deposits of the additively manufactured aluminum part, characterized in that the solidus of the metallic sheath of the metal-cored aluminum wire is at least 5% greater than the solidus of the granular core, wherein the granular core of the metal-cored aluminum wire, which is a compressed mixture of powdered metals, alloys, and/or non-metallic components, includes a first alloy comprising a plurality of elements, and wherein the first alloy has a solidus that is lower than each of the respective melting points of the plurality of elements of the first alloy, wherein the first alloy is a eutectic alloy or near-eutectic alloy.
A cash box, with a receiving area for receiving a value note stack, a first opening for manually feeding and/or removing notes of value to and from the receiving area, respectively, which first opening is closable by a cover, a bottom unit delimiting the receiving area toward a box bottom, with a retaining element, and with a height limiter for adjusting the height of the receiving area, which height limiter is mounted to the cover, wherein the height limiter comprises at least one finger (40, 42), and wherein the retaining element has at least one recess (44, 46) into which the finger (40, 42) of the height limiter projects when the cover is closed, characterized in that the retaining element, in a retaining position, retains the notes of value received in the receiving area in said receiving area and, in a feeding position, enables a feeding and/or removing of the notes of value through a second opening for automatically feeding and/or removing notes of value, that the retaining element is pivotable between the retaining position and the feeding position, and that the recess (44, 46) comprises a through hole delimited by means of a wall, and that the wall has a cut-out (48, 50) toward the cover, through which the finger (40, 42) is movable when the cover is opened.