mhurhangee/ep-ind-claims huggingface dataset:
A carriage assembly for an airplane transporting system on an airport apron, from a parking location to a runway and from a landing to the parking location, the system being formed by guiding grooves, in which leading mandrels move that are installed in docking stations, being latched to an airplane, the guiding grooves being covered from the top with pivotable covers having a segmented structure, characterised in that the carriage assembly is formed by the guiding groove with a rectangular cross-section, a floor of which being provided with lower guide rails, and side walls of which being provided with side guide rails and the carriage being a spatial structure, having a bottom part and side parts, the carriage being provided with a lower vehicle wheels set, fixed at the bottom part of the carriage, and a side vehicle wheels set fixed at both side parts of the carriage.
An elevator car panel comprising: a handrail configured on a first side of the elevator car panel; and characterized by a locking mechanism configured on a second side of the elevator car panel, the second side opposite the first side, wherein the handrail is operably connected to the locking mechanism such that movement of the handrail from a first position to a second position operates the locking mechanism to transition from a locked position to an unlocked position, and wherein, when in the unlocked position, the elevator car panel is openable. a handrail configured on a first side of the elevator car panel; and characterized by a locking mechanism configured on a second side of the elevator car panel, the second side opposite the first side, wherein the handrail is operably connected to the locking mechanism such that movement of the handrail from a first position to a second position operates the locking mechanism to transition from a locked position to an unlocked position, and wherein, when in the unlocked position, the elevator car panel is openable.
Method for operating a Coriolis mass flowmeter, wherein the Coriolis mass flowmeter comprises at least one measuring tube, at least one oscillation generator, at least two oscillation sensors, and at least one control and evaluation unit, wherein the oscillation generator and the oscillation sensors are arranged on the measuring tube, wherein the measuring tube can have a medium flowing through it, wherein the oscillation generator puts the measuring tube into a harmonic oscillation with the excitation frequency f 0 and the excitation amplitude A 0, wherein the first and the second oscillation sensors detect the oscillation of the measuring tube and wherein the first oscillation sensor forwards the oscillation to the control and evaluation unit as first measuring signal and wherein the second oscillation sensor forwards the oscillation to the control and evaluation unit as second measuring signal, and wherein at least one comparison measurement signal is determined from the first measuring signal and/or the second measuring signal, characterized in that, based on the excitation frequency f 0 and the excitation amplitude A 0 at at least one evaluation frequency, an expected value of the amplitude and/or phase and/or at least a variable derived therefrom is determined, wherein the evaluation frequency corresponds to the excitation frequency f 0 and/or at least to a harmonic of the excitation frequency f 0, that the amplitude and/or the phase and/or the variable derived therefrom of the comparison measurement signal is detected (11, 14, 15, 19) exclusively at the evaluation frequency, that the expected value of the amplitude and/or the phase and/or the variable derived therefrom is compared to the corresponding value of the comparison measurement signal and a measure for the deviation is determined, and an alert is issued when the deviation of the expected value with the corresponding value of the comparison measurement signal exceeds an upper limit value or falls below a lower limit value.
Process for the manufacture of a light-emitting diode, comprising the formation of a stack of layers intended to emit light comprising first, second and third layers of aluminium gallium nitride, the said second layer, positioned between the first and third layers (2, 4), having a different aluminium gallium nitride composition from that of the first and third layers (2, 4), characterized in that it comprises a step of implementation of a demixing of the second layer of aluminium gallium nitride carried out after formation of the said second layer.
A method of operating a speed control system of a vehicle, the method comprising: identifying a pattern or change in at least one component of vehicle drag, monitoring vehicle speed to predict where a pattern or change in said at least one component of vehicle drag may result in a speed overshoot event or a speed undershoot event; and in response to said predicted speed overshoot event or speed undershoot event, automatically commanding the application of an appropriate opposing torque to one or more wheels of the vehicle to counteract said predicted speed overshoot or undershoot. identifying a pattern or change in at least one component of vehicle drag, monitoring vehicle speed to predict where a pattern or change in said at least one component of vehicle drag may result in a speed overshoot event or a speed undershoot event; and in response to said predicted speed overshoot event or speed undershoot event, automatically commanding the application of an appropriate opposing torque to one or more wheels of the vehicle to counteract said predicted speed overshoot or undershoot.
A compostable material in the form of a stratified sheet comprising a combination of film sheets made of compostable materials characterised in that it consists of two laminated layers of film sheets, where one layer constitutes a plastic sheet of at least one biodegradable polymer generated by a chemical or biocatalytic transformation with a thickness of 20 μm to 50 μm and the second layer constitutes a sheet of cellulose film with a thickness of 19μm to 23μm, the layers being connected to each other by glue constituting a water dispersion of a polyester polyurethane elastomer with a hardener.
Linear selector for power-free preselection of tap contacts (4, 5) of a tapped transformer, which comprises a fine selector and a reversing switch, the fine selector comprising uneven-numbered tap contacts (4 1, 4 3, 4 5,...) arranged in a first row and even-numbered tap contacts (5 0, 5 2, 5 4,...) arranged in a second row, characterised in that the linear selector carries a transmission, by which a single contact slide contacts the uneven-numbered tap contacts (4 1, 4 3, 4 5,...) and the even-numbered tap contacts (5 0, 5 2, 5 4,...) of the fine selector and a first contact fan and second contact fan, which are seated on a shaft, of the reversing switch are directly actuable.
A solid electrolyte assembly comprising: an anode, a cathode, and a solid electrolyte located therebetween, wherein an intermediate layer is provided between at least one of the anode and the cathode and the solid electrolyte, the intermediate layer is made of a cerium oxide containing lanthanum and a rare-earth element Ln, Ln represents samarium or gadolinium, an atomic ratio of La/Ce from 0.3 to 1.2, and the solid electrolyte contains an oxide of lanthanum, characterized by an atomic ratio of Ln/Ce from 0.05 to 0.5. an anode, a cathode, and a solid electrolyte located therebetween, wherein an intermediate layer is provided between at least one of the anode and the cathode and the solid electrolyte, the intermediate layer is made of a cerium oxide containing lanthanum and a rare-earth element Ln, Ln represents samarium or gadolinium, an atomic ratio of La/Ce from 0.3 to 1.2, and the solid electrolyte contains an oxide of lanthanum, characterized by an atomic ratio of Ln/Ce from 0.05 to 0.5.
An intravascular treatment system (100, 200, 300) comprising: a delivery tube (110, 210, 310) sized to traverse vasculature; a distal balloon (114, 214, 314) disposed on the delivery tube (110, 210, 310) and approximate a distal end (134, 234, 334) of the delivery tube (110, 210, 310); an angioplasty balloon (116, 216, 316) disposed on the delivery tube (110 210, 310) in the proximal direction in relation to the distal balloon (114, 214, 316); a balloon expandable stent (118, 218, 318) disposed over the angioplasty balloon (116, 216, 316); and one or more inflation lumens in communication with the distal balloon (114, 214, 314) and the angioplasty balloon and extending along the delivery tube such that the one or more inflation lumens are positioned to inflate the distal balloon (114, 214, 314) and the angioplasty balloon; wherein the one or more inflation lumens is a singular inflation lumen (120, 220) in communication with both the distal balloon (114, 214, 314) and the angioplasty balloon (116, 216), and wherein the distal balloon (114, 214, 314) is expandable at a lower pressure than the angioplasty balloon (116, 216). a delivery tube (110, 210, 310) sized to traverse vasculature; a distal balloon (114, 214, 314) disposed on the delivery tube (110, 210, 310) and approximate a distal end (134, 234, 334) of the delivery tube (110, 210, 310); an angioplasty balloon (116, 216, 316) disposed on the delivery tube (110 210, 310) in the proximal direction in relation to the distal balloon (114, 214, 316); a balloon expandable stent (118, 218, 318) disposed over the angioplasty balloon (116, 216, 316); and one or more inflation lumens in communication with the distal balloon (114, 214, 314) and the angioplasty balloon and extending along the delivery tube such that the one or more inflation lumens are positioned to inflate the distal balloon (114, 214, 314) and the angioplasty balloon; wherein the one or more inflation lumens is a singular inflation lumen (120, 220) in communication with both the distal balloon (114, 214, 314) and the angioplasty balloon (116, 216), and wherein the distal balloon (114, 214, 314) is expandable at a lower pressure than the angioplasty balloon (116, 216).
Rail vehicle car comprising: - a first end (101, 201) and a second end (102, 202), wherein between said first and second ends (101, 102, 201, 202) - a bistro area (106, 206) with a kitchen unit, - a wheelchair area with at least one space (104, 204)suitable for wheelchair users, - a WC for disabled (112, 212), - at least one first seating area (116, 216), and - at least one entrance area (109, 209) each having at least one entrance door (108, 208) which are arranged on both longitudinal sides of the rail vehicle car, wherein the wheelchair area connects at least the bistro area (106, 206), the WC for disabled (112, 212) and the entrance area (109, 209) with each other, and wherein the kitchen unit of the bistro area (106, 206) and the WC for disabled 112, 212) are arranged on opposite longitudinal sides of the rail vehicle car. - a first end (101, 201) and a second end (102, 202), wherein between said first and second ends (101, 102, 201, 202) - a bistro area (106, 206) with a kitchen unit, - a wheelchair area with at least one space (104, 204)suitable for wheelchair users, - a WC for disabled (112, 212), - at least one first seating area (116, 216), and - at least one entrance area (109, 209) each having at least one entrance door (108, 208) which are arranged on both longitudinal sides of the rail vehicle car,
Arrangement for reducing fuel material slip to the atmosphere in an internal combustion piston engine with at least two cylinders and at least one turbo charger unit, and an exhaust gas system having an exhaust gas manifold which is in connection with the cylinders through channels, the exhaust gas system being arranged to connect a combustion chamber of each cylinder of the engine controllably by means of an exhaust valve or valves in a cylinder head to the atmosphere via a turbine section (28.2) of the at least one turbo charger unit, the arrangement comprising a fuel processing unit for oxidation of fuel material in the exhaust gas of the engine, characterized in that the arrangement further comprises an attachment part by means of which a body of an arrangement for collecting a portion of exhaust gas flow is attached to the cylinder head and a conduit by means of which a flow communication is provided from the channel of the exhaust gas system in the vicinity of the exhaust valve to the fuel processing unit and that the conduit is arranged to extend through the body and at least partly via the channel of the exhaust gas system into the vicinity of the exhaust valve, and that the conduit having an inlet, which the inlet is opening into the exhaust gas flow channel for collecting and processing the portion of the exhaust gas separately, and that the conduit is at least partly parallel to the channel of exhaust gas system.
An under bracket for a two-wheel vehicle and a three-wheel vehicle, which is formed of an Al alloy having an alloy composition comprising 6.6-7.6 mass% Zn, 1.0-1.6 mass% Mg, 0.50 mass% or less (and more than 0 mass%) Cu, and 0.10-0.18 mass% Zr, with the balance consisting of Al and inevitable impurities, in which Fe is controlled to be not higher than 0.40 mass%, Si is controlled to be not higher than 0.30 mass%, and Ti is controlled to be not higher than 0.10 mass%, the under bracket having a microstructure in the form of a fibrous structure, and a recrystallized-structure layer formed on its surface with a thickness not larger than 0.5mm.
A sheet former comprising: at least one vessel which stores slurry as a raw material; a wire cylinder immersed in the slurry inside the vessel and making sheets from solid components in the slurry while being rotated; and a sheet-forming amount regulator which regulates an amount of the solid components for making sheets by the wire cylinder in a width direction in accordance with a thickness of a sheet forming body in the approximately width direction formed for making sheets by the wire cylinder, characterized in that the sheet-forming amount regulator includes a sheet-shaped regulator covering at least part of the surface of the wire cylinder in a circumferential direction, the sheet-shaped regulator being divided into plural divided sheet pieces in a width direction of the wire cylinder, wherein the sheet-shaped regulator regulates the amount of solid components by covering the surface of the wire cylinder by each divided sheet piece by changing the surface area of the wire cylinder contacting the slurry. at least one vessel which stores slurry as a raw material; a wire cylinder immersed in the slurry inside the vessel and making sheets from solid components in the slurry while being rotated; and a sheet-forming amount regulator which regulates an amount of the solid components for making sheets by the wire cylinder in a width direction in accordance with a thickness of a sheet forming body in the approximately width direction formed for making sheets by the wire cylinder, characterized in that the sheet-forming amount regulator includes a sheet-shaped regulator covering at least part of the surface of the wire cylinder in a circumferential direction, the sheet-shaped regulator being divided into plural divided sheet pieces in a width direction of the wire cylinder, wherein the sheet-shaped regulator regulates the amount of solid components by covering the surface of the wire cylinder by each divided sheet piece by changing the surface area of the wire cylinder contacting the slurry.
A system for calculation of a functional index parameter in at least one blood vessel of a patient, comprising: at least one processor configured for: receiving a dataset of registered functional image data and anatomical image data, wherein the functional image data and the anatomical image data include data indicative of anatomical and functional data for at least one blood vessel of a certain patient, said blood vessel having at least one anatomical region of the at least one blood vessel; wherein the functional image data is obtained from a nuclear imaging device; calculating at least one value for at least one functional index parameter for at least one of: the (i) at least one blood vessel, and the (ii) for the anatomical region of the at least one blood vessel, wherein the at least one value of the at least one functional index parameter is computed based on the functional image data of the dataset; outputting the calculated at least one value for the at least one functional index parameter for the at least one blood vessel or for the anatomical region of the at least one blood vessel of the certain patient; computing a flow related value using a mathematical model, based on anatomical imaging data of the patient without registered nuclear imaging data; and identifying a mismatch between the flow related value and the at least one value of the functional index parameter, the mismatch potentially indicative of microvascular disease in the at least one vessel. receiving a dataset of registered functional image data and anatomical image data, wherein the functional image data and the anatomical image data include data indicative of anatomical and functional data for at least one blood vessel of a certain patient, said blood vessel having at least one anatomical region of the at least one blood vessel; wherein the functional image data is obtained from a nuclear imaging device; calculating at least one value for at least one functional index parameter for at least one of: the (i) at least one blood vessel, and the (ii) for the anatomical region of the at least one blood vessel, wherein the at least one value of the at least one functional index parameter is computed based on the functional image data of the dataset; outputting the calculated at least one value for the at least one functional index parameter for the at least one blood vessel or for the anatomical region of the at least one blood vessel of the certain patient; computing a flow related value using a mathematical model, based on anatomical imaging data of the patient without registered nuclear imaging data; and identifying a mismatch between the flow related value and the at least one value of the functional index parameter, the mismatch potentially indicative of microvascular disease in the at least one vessel.
Method for producing at least one deformable membrane micropump comprising a first substrate and a second substrate assembled together, the first substrate comprising at least one cavity and the second substrate comprising at least one deformable membrane arranged facing said cavity, said first and second substrates (10, 20) defining a portion of a microchannel together wherein said cavity and said deformable membrane are situated, said method comprising the following steps: - said cavity is produced in the first substrate, then - the first and second substrates are assembled together, characterized in that said deformable membrane is produced in the second substrate after the assembly step. - said cavity is produced in the first substrate, then - the first and second substrates are assembled together,
1. A process for preparing amorphous calcium carbonate, the process comprising the steps of: a) providing at least one calcium oxide containing material; b) providing at least one gaseous CO 2 source, c) preparing a milk of lime by mixing the at least one calcium oxide containing material of step a) with water to convert the calcium oxide at least partially into dissolved calcium hydroxide, d) separating the dissolved calcium hydroxide in the milk of lime obtained in step c) from undissolved materials such as to obtain a solution of dissolved calcium hydroxide, e) drying the solution of dissolved calcium hydroxide obtained in step d), and f) carbonating the dissolved calcium hydroxide obtained in step d) with the at least one gaseous CO 2 source of step b) to convert the calcium hydroxide at least partially into amorphous calcium carbonate, wherein process steps e) and f) are carried out simultaneously in a spray dryer. a) providing at least one calcium oxide containing material; b) providing at least one gaseous CO 2 source, c) preparing a milk of lime by mixing the at least one calcium oxide containing material of step a) with water to convert the calcium oxide at least partially into dissolved calcium hydroxide, d) separating the dissolved calcium hydroxide in the milk of lime obtained in step c) from undissolved materials such as to obtain a solution of dissolved calcium hydroxide, e) drying the solution of dissolved calcium hydroxide obtained in step d), and f) carbonating the dissolved calcium hydroxide obtained in step d) with the at least one gaseous CO 2 source of step b) to convert the calcium hydroxide at least partially into amorphous calcium carbonate,
A clamping device for rod-shaped profiled elements having a substantially circular cross section and having a central axis which runs along a longitudinal direction of the rod-shaped profiled element, and having at least two centering clamps (1, 2) distanced from each other along a theoretical central axis, and having at least two opposing clamping cheeks (6, 7, 11, 12) that are centrally movable between a clamping position and a release position in a moving plane arranged transversely to the theoretical central axis, which cheeks each have a support and jointly surround the rod-shaped profiled element in the clamped position and align the central axis of the profiled element along the theoretical central axis, characterized in that a shape of the supports can be changed by an adjustable adjusting device which reduces an offset of the theoretical central axis from the central axis of the profiled element in the clamped position and the adjusting device comprises at least one spacer structural component that can be adjustably changed in width and that is insertable in an associated slot (13a, 13b, 13c, 14a, 14b, 14c) so as to rest on slot walls and in that each of the clamping cheeks (6, 7, 11, 12) has at least three adjacently arranged slots (13a, 13b, 13c, 14a, 14b, 14c) and the slots (13a, 13b, 13c, 14a, 14b, 14c) extend in a longitudinal direction of the clamped-in, rod-shaped profiled element over the entire length of the clamping cheek (6, 7, 11, 12) and form at least one deformable tongue (16a, 16b, 17a, 17b) between themselves on which tongue a partial support (8a, 8b, 9a, 9b) is formed.
A method for adjusting the angle of powered two-wheeler rear view mirrors in relation to the rider's head, by a processor acting on the mirrors' X and Y axes control motors, characterized in that the mirrors' (la, 1b) X and Y axes location is adjusted after the rider sits down in a most upright position, and approved with a button (7a, 7b), then the mirrors' (1a, 1b) X and Y axes location is adjusted with the rider's most leaned forward position and approved with the button (7a, 7b), after which the data is recorded by a processor, and then switching into automatic operation mode, where the processor receives data from the rider's head distance sensor, processes the data with the rider's inclination input data, and converts them to the mirrors' (1a, 1b) X and Y axes control motor control signals.
Inorganic solid nutritive composition comprising at least one polyphosphate and at least one source of iron as a micronutrient, characterised in that said solid nutritive composition is a water-soluble solid nutritive composition comprising a concentration of iron between 0.1 and 5 % iron by weight with respect to the total weight of said solid composition, preferably between 1 and 3 % iron by weight with respect to the total weight of said solid composition, in that said at least one polyphosphate is chosen from the group consisting of the sodium and potassium alkali polyphosphates in powder or granular form, said polyphosphates having 2 to 3 atoms of P, and in that the composition has a molar ratio of P poly /Fe between 5 and 50, where P poly designates the number of moles of phosphorus in the form of polyphosphate chains.