mhurhangee/ep-ind-claims huggingface dataset:
A gas turbine engine comprising: a fan section; a compressor section; a turbine section that drives the fan section and the compressor section; and a duct assembly comprising: a first duct including a main body and a first flange, the main body extending along an engine longitudinal axis to bound a gas path, the first flange extending radially outwardly from the main body at a junction having an arcuate profile, wherein the first duct is made of a composite layup including a plurality of ply layers in stacked relationship that follow a contour of the junction to establish the first main body and the first flange, the ply layers arranged in the stacked relationship to establish a J-shaped geometry comprising the junction; a second duct including a second flange; an interface ring trapped between the first and second flanges (70, 74), wherein the first flange sits on the interface ring along the contour, the interface ring including a mate face dimensioned to follow the contour of the junction such that the ply layers are supported on the mate face. a fan section; a compressor section; a turbine section that drives the fan section and the compressor section; and a duct assembly comprising: a first duct including a main body and a first flange, the main body extending along an engine longitudinal axis to bound a gas path, the first flange extending radially outwardly from the main body at a junction having an arcuate profile, wherein the first duct is made of a composite layup including a plurality of ply layers in stacked relationship that follow a contour of the junction to establish the first main body and the first flange, the ply layers arranged in the stacked relationship to establish a J-shaped geometry comprising the junction; a second duct including a second flange; an interface ring trapped between the first and second flanges (70, 74), wherein the first flange sits on the interface ring along the contour, the interface ring including a mate face dimensioned to follow the contour of the junction such that the ply layers are supported on the mate face. a first duct including a main body and a first flange, the main body extending along an engine longitudinal axis to bound a gas path, the first flange extending radially outwardly from the main body at a junction having an arcuate profile, wherein the first duct is made of a composite layup including a plurality of ply layers in stacked relationship that follow a contour of the junction to establish the first main body and the first flange, the ply layers arranged in the stacked relationship to establish a J-shaped geometry comprising the junction; a second duct including a second flange; an interface ring trapped between the first and second flanges (70, 74), wherein the first flange sits on the interface ring along the contour, the interface ring including a mate face dimensioned to follow the contour of the junction such that the ply layers are supported on the mate face.
An ablation lesion device for delivery of microwave energy to a selected region of tissue, the device including an elongated catheter and a microwave radiation antenna electrically connectible via a microwave feedline to an electrical microwave system, the microwave antenna configured to generate a microwave field able to ablate tissue in said selected region of tissue, the antenna positioned within an antenna-receiving portion of the catheter, the catheter configured to allow fluid flow therealong to exit through one or more orifices (36, 32) in the catheter wall, the catheter provided with an electrical sensing system including one or more metal electrodes (40E, 42E) and being independent of the electrical microwave system, the device configured such that in use the electrical sensing system includes an electric circuit which incorporates an ionic conductivity bridge formed between said one or more metal electrodes (40E, 42E) and the fluid exiting said one or more orifices (36, 32), the ionic conductivity bridge traversing said catheter antenna-receiving portion. the antenna positioned within an antenna-receiving portion of the catheter, the catheter configured to allow fluid flow therealong to exit through one or more orifices (36, 32) in the catheter wall, the catheter provided with an electrical sensing system including one or more metal electrodes (40E, 42E) and being independent of the electrical microwave system, the device configured such that in use the electrical sensing system includes an electric circuit which incorporates an ionic conductivity bridge formed between said one or more metal electrodes (40E, 42E) and the fluid exiting said one or more orifices (36, 32), the ionic conductivity bridge traversing said catheter antenna-receiving portion.
A MEMS gyroscope, comprising: a. a shared proof mass; b. one or more anchors (30a-30d); c. one or more movable combs (40a, 40b, 50a, 50b); and d. a plurality of suspensions; e. wherein the one or more movable combs are coupled to at least one of the shared proof mass and the one or more anchors via the plurality of suspensions; and f. wherein the proof mass is planar and the suspensions extend in a direction normal to the plane of the proof mass. a. a shared proof mass; b. one or more anchors (30a-30d); c. one or more movable combs (40a, 40b, 50a, 50b); and d. a plurality of suspensions; e. wherein the one or more movable combs are coupled to at least one of the shared proof mass and the one or more anchors via the plurality of suspensions; and f. wherein the proof mass is planar and the suspensions extend in a direction normal to the plane of the proof mass.
A busbar board for connection of devices to a power busbar system, wherein the busbar board comprises several elongated electrically conductive power busbars which are arranged in parallel, the busbard board further comprises a front side touch protection cover plate having feedthrough openings for electrical connection contacts of devices to be connected to the busbar board, wherein the touch protection cover plate is adapted to cover the power busbars having contact openings lying directly beneath the feedthrough openings of the touch protection cover plate and comprising a touch protection base plate connected to said touch protection cover plate, wherein the touch protection base plate covers the power busbars enclosed by the busbar board from behind, characterized in that the busbar board further comprises power feed-in plugs, wherein a power feed-in of electrical power into the power busbars enclosed by the busbar board is provided by the power feed-in plugs being pluggable into sockets of the touch protection base plate of the busbar board, wherein the power busbars are contactable by means of associated feed-in plugs from behind to provide a rear side power feed-in.
A device for guiding a clip belt from a supply roll via compensating rollers (3, 4, 5) to a packaging machine, wherein the direction of the clip belt is repeatedly changed, the clip belt is guided at least partially in a guide tube and the guide tube is bent corresponding to the predetermined direction, characterised in that the guide tube has at least two directional changes.
A method of forming a dry molding sand additive having a maximum moisture content of 30% by weight, comprising the steps of: recovering a non-sand fraction from a foundry waste material, wherein said non-sand fraction comprises a recovered clay component and a recovered carbon component further comprising at least partially dewatering the non-sand fraction and wherein said dewatering includes spray drying; and adding the non-sand fraction to a dry molding sand additive formulation to form a dry molding sand additive to reduce the amount of fresh clay and carbon to produce the dry molding sand additive. recovering a non-sand fraction from a foundry waste material, wherein said non-sand fraction comprises a recovered clay component and a recovered carbon component further comprising at least partially dewatering the non-sand fraction and wherein said dewatering includes spray drying; and adding the non-sand fraction to a dry molding sand additive formulation to form a dry molding sand additive to reduce the amount of fresh clay and carbon to produce the dry molding sand additive.
Power machine array 1.1 comprising a plurality of power machines, each having a generator; 1.2 comprising an electrical network, which interconnects the generators of the power machines in order to feed the generated electrical power into a supply network; wherein 1.3 the power machines are adjacently arranged in the flow direction of the medium and transversely thereto in order to take energy from the medium simultaneously; 1.4 the power machines are wind or water power machines, each comprising a rotor having a hub (2.1) and at least one rotor blade (2.2) fastened thereto; 1.5 characterized in that the individual rotor blade (2.2) comprises, in the region of the rotor blade tip, end plates for influencing the medium flowing around the rotor blade (2.2) in order to deliberately increase the turbulence. 1.1 comprising a plurality of power machines, each having a generator; 1.2 comprising an electrical network, which interconnects the generators of the power machines in order to feed the generated electrical power into a supply network; wherein 1.3 the power machines are adjacently arranged in the flow direction of the medium and transversely thereto in order to take energy from the medium simultaneously; 1.4 the power machines are wind or water power machines, each comprising a rotor having a hub (2.1) and at least one rotor blade (2.2) fastened thereto; 1.5 characterized in that the individual rotor blade (2.2) comprises, in the region of the rotor blade tip, end plates for influencing the medium flowing around the rotor blade (2.2) in order to deliberately increase the turbulence.
Screw pump with two screws, in the case of which screw pump each screw has a first thread and a second thread, in the case of which screw pump the threads extend in each case from a suction side to a pressure side, and in the case of which screw pump the threads are in engagement with one another, with the result that the threads are divided into a multiplicity of working chambers, the volume of which decreases from the suction side to the pressure side, the threads being oriented in such a way that the suction side is arranged in the centre of the screw between the threads, the threads having two thread turns, and the housing being provided with an inlet opening which is larger than 60% of the cross-sectional area of the thread.
A sensing apparatus comprising: a frame element and a displaceable element mounted relative to the frame element, wherein the displaceable element comprises a sensing surface and a surrounding non-sensing surface, and wherein the displaceable element is configured to move along a displacement direction towards the bottom side of the frame element under application of a displacement load to the displaceable element by an object; a plurality of displacement sensor elements (5, 12) each configured to provide a displacement sensor output signal indicative of a displacement between the frame element and the displaceable element, wherein the plurality of displacement sensor elements are arranged at different spatial locations relative to the displaceable element and configured to provide a displacement sensor output signal indicative of a displacement between the frame element and the displaceable element at the respective spatial location; and processing circuitry configured to obtain the displacement sensor output signals from the plurality of displacement sensor elements and determine whether displacement of the displaceable element is a valid displacement by comparing at least the ratio between the displacement sensor output signals from a pair of the plurality of displacement sensor elements to one or more expected ratios for the pair of displacement sensor elements obtained in advance, wherein a valid displacement corresponds to a displacement load applied within the sensing surface of the displaceable element. a frame element and a displaceable element mounted relative to the frame element, wherein the displaceable element comprises a sensing surface and a surrounding non-sensing surface, and wherein the displaceable element is configured to move along a displacement direction towards the bottom side of the frame element under application of a displacement load to the displaceable element by an object; a plurality of displacement sensor elements (5, 12) each configured to provide a displacement sensor output signal indicative of a displacement between the frame element and the displaceable element, wherein the plurality of displacement sensor elements are arranged at different spatial locations relative to the displaceable element and configured to provide a displacement sensor output signal indicative of a displacement between the frame element and the displaceable element at the respective spatial location; and processing circuitry configured to obtain the displacement sensor output signals from the plurality of displacement sensor elements and determine whether displacement of the displaceable element is a valid displacement by comparing at least the ratio between the displacement sensor output signals from a pair of the plurality of displacement sensor elements to one or more expected ratios for the pair of displacement sensor elements obtained in advance, wherein a valid displacement corresponds to a displacement load applied within the sensing surface of the displaceable element.
A two-component coating composition comprising a water-dispersible polyisocyanate component, comprising a) at least one polyisocyanate and b) at least one reaction product of at least one polyisocyanate b1) with compounds b2) having at least one hydrophilic, non-isocyanate-reactive group (group A) and at least one isocyanate-reactive group (group B) and a polyacrylate component comprising an aqueous polymer dispersion c) of at least one hydroxy-functional poly(meth)acrylate with bimodal or polymodal particle size distribution. a) at least one polyisocyanate and b) at least one reaction product of at least one polyisocyanate b1) with compounds b2) having at least one hydrophilic, non-isocyanate-reactive group (group A) and at least one isocyanate-reactive group (group B)
A linear compressor comprising: a driving assembly configured to reciprocated in an axial direction of the driving assembly; a spring elastically supporting the driving assembly in the axial direction, wherein the spring has a spring central axis extending in the axial direction; and a bracket fixed to the spring; wherein the spring comprises a plurality of spring strands (210, 220, 230), each of the spring strands (210, 220, 230) comprising: a spring body that spirally extends about the spring central axis, an inside end portion extending from one side of the spring body, and an outside end portion extending from the other side of the spring body, wherein the bracket is coupled to the plurality of inside end portions of the spring and the drive assembly. a driving assembly configured to reciprocated in an axial direction of the driving assembly; a spring elastically supporting the driving assembly in the axial direction, wherein the spring has a spring central axis extending in the axial direction; and a bracket fixed to the spring; wherein the spring comprises a plurality of spring strands (210, 220, 230), each of the spring strands (210, 220, 230) comprising: a spring body that spirally extends about the spring central axis, an inside end portion extending from one side of the spring body, and an outside end portion extending from the other side of the spring body, wherein the bracket is coupled to the plurality of inside end portions of the spring and the drive assembly. a spring body that spirally extends about the spring central axis, an inside end portion extending from one side of the spring body, and an outside end portion extending from the other side of the spring body, wherein the bracket is coupled to the plurality of inside end portions of the spring and the drive assembly.
A device for shuffling a deck of cards, a card of the deck of cards having a first face dimension and a second face dimension and a thickness orthogonal to the first and the second face dimensions, the deck of cards comprising a plurality of cards and having a deck thickness dimension orthogonal to the first and the second face dimensions of the card, the device characterised by comprising: a compartment having an interior shape of a rectangular parallelepiped and sized and dimensioned to receive the deck of cards, and having a first dimension larger than the first face dimension, a second dimension larger than twice the second face dimension and a third dimension larger than the deck thickness dimension; and a launching device (25, 27) arranged in use to apply an impulsive force to cards of the deck of cards to eject a group of cards from the deck of cards so as to introduce the group of cards into a space above the remainder of the deck of cards in the second dimension of the compartment. a compartment having an interior shape of a rectangular parallelepiped and sized and dimensioned to receive the deck of cards, and having a first dimension larger than the first face dimension, a second dimension larger than twice the second face dimension and a third dimension larger than the deck thickness dimension; and a launching device (25, 27) arranged in use to apply an impulsive force to cards of the deck of cards to eject a group of cards from the deck of cards so as to introduce the group of cards into a space above the remainder of the deck of cards in the second dimension of the compartment.
A decorated printed matter comprising: a resin substrate with a light permeability, the resin substrate has a convexo-concave pattern, which consists of a plurality of grooves, on a rear-side surface (1 b) thereof; and an ink coating covering the convexo-concave pattern; the convexo-concave pattern is visible from a front-side of the resin substrate, wherein the ink coating is formed by removing a solvent from an ink composition coated on the rear-side surface of the resin substrate, the ink composition includes a coloring pigment as colorant and a binder as adhesive, characterized in that a ratio of the coloring pigment to the binder is determined such that the distribution of the coloring pigment in the ink coating becomes the distribution by which an incident light incoming into the resin substrate from the front-side surface thereof reflects at an interface between the resin substrate and the ink coating. a resin substrate with a light permeability, the resin substrate has a convexo-concave pattern, which consists of a plurality of grooves, on a rear-side surface (1 b) thereof; and an ink coating covering the convexo-concave pattern; the convexo-concave pattern is visible from a front-side of the resin substrate, wherein the ink coating is formed by removing a solvent from an ink composition coated on the rear-side surface of the resin substrate, the ink composition includes a coloring pigment as colorant and a binder as adhesive, characterized in that a ratio of the coloring pigment to the binder is determined such that the distribution of the coloring pigment in the ink coating becomes the distribution by which an incident light incoming into the resin substrate from the front-side surface thereof reflects at an interface between the resin substrate and the ink coating.
A method of forming a conductor pattern on a silicon semiconductor substrate having a silicon nitride anti-reflective layer thereon, the method comprising the steps of: (a) modifying surface energy of the anti-reflective layer by contacting the anti-reflective layer with a composition comprising a fluorine-containing surfactant, wherein the fluorine-containing surfactant is selected from the group consisting of perfluoroalkyl sulfonic acid and salts thereof, perfluoroalkyl phosphates, perfluoroalkyl amines, perfluoroalkyl oxides and perfluoroalkyl sulfonates; (b) applying an etch resist to the treated anti-reflective layer formed from step (a) thereby creating exposed areas of the anti-reflective layer and resist covered areas of the anti-reflective layer; (c) contacting the exposed areas of the anti-reflective layer formed from step (b) with a chemical etchant composition to remove the anti-reflective layer in the exposed areas thereby creating exposed areas of the silicon semiconductor substrate; (d) applying a metal coating on the exposed areas of the silicon semiconductor substrate; and (e) stripping away the etch resist, wherein step (e) is carried out between steps (c) and (d), or after step (d). (a) modifying surface energy of the anti-reflective layer by contacting the anti-reflective layer with a composition comprising a fluorine-containing surfactant, wherein the fluorine-containing surfactant is selected from the group consisting of perfluoroalkyl sulfonic acid and salts thereof, perfluoroalkyl phosphates, perfluoroalkyl amines, perfluoroalkyl oxides and perfluoroalkyl sulfonates; (b) applying an etch resist to the treated anti-reflective layer formed from step (a) thereby creating exposed areas of the anti-reflective layer and resist covered areas of the anti-reflective layer; (c) contacting the exposed areas of the anti-reflective layer formed from step (b) with a chemical etchant composition to remove the anti-reflective layer in the exposed areas thereby creating exposed areas of the silicon semiconductor substrate; (d) applying a metal coating on the exposed areas of the silicon semiconductor substrate; and (e) stripping away the etch resist, wherein step (e) is carried out between steps (c) and (d), or after step (d).
A multimeric aptamer comprising a plurality of monomers, wherein at least one monomer of said plurality of monomers comprises a nucleic acid sequence which specifically binds to an ErbB receptor molecule and wherein said multimeric aptamer is devoid of spacers between said plurality of monomers.
Brushware comprising the constituents: - monofilaments or bristles and - at least one head, handle and/or neck, wherein the constituents comprise or consist of polymers from the same polymer class selected from polymer and wherein the polymer class is selected from polyamide, characterized in that the polymer is a polymer derived from the monomers ω-aminododecanoic acid and/or laurolactam. - monofilaments or bristles and - at least one head, handle and/or neck, the constituents comprise or consist of polymers from the same polymer class selected from polymer and wherein the polymer class is selected from polyamide, characterized in that the polymer is a polymer derived from the monomers ω-aminododecanoic acid and/or laurolactam.