mhurhangee/ep-ind-claims huggingface dataset:
A method of manufacturing a mould for a wind turbine blade shell, wherein the method comprises the steps of: providing a wind turbine blade mould geometry; dividing said wind turbine blade mould geometry into a plurality of separate geometrical slices; providing a plurality of mould blank elements, wherein said plurality of mould blank elements corresponds with said plurality of separate geometrical slices; cutting said plurality of mould blank elements to form a plurality of cut mould elements having cut surfaces, wherein said cutting is based on said plurality of separate geometrical slices; and assembling said plurality of cut mould elements, wherein the cut surfaces of said cut mould elements substantially form a consolidated wind turbine blade mould surface, characterised in that said mould blank elements are formed from a low-weight material, preferably a foam material, and wherein the method further comprises the step of applying a coating to said plurality of cut surfaces. providing a wind turbine blade mould geometry; dividing said wind turbine blade mould geometry into a plurality of separate geometrical slices; providing a plurality of mould blank elements, wherein said plurality of mould blank elements corresponds with said plurality of separate geometrical slices; cutting said plurality of mould blank elements to form a plurality of cut mould elements having cut surfaces, wherein said cutting is based on said plurality of separate geometrical slices; and assembling said plurality of cut mould elements, wherein the cut surfaces of said cut mould elements substantially form a consolidated wind turbine blade mould surface, characterised in that said mould blank elements are formed from a low-weight material, preferably a foam material, and wherein the method further comprises the step of applying a coating to said plurality of cut surfaces.
Method for recognising the origin and/or the content of an RF signal comprising the following steps: - spreading a digital signature in a hidden code, a time offset being applied to the hidden code in order to obtain a modulated hidden code, - distributing the modulated hidden code in a navigation spread public code by applying a private key algorithm with an "Exclusive OR" function in order to obtain sequences of modulated codes; - transmitting the sequences of modulated codes; - upon reception, applying a public key algorithm in order to select sequences of modulated codes and in order to generate a hidden spread code; and - correlating the sequences of modulated codes with the spread code in order to locate the hidden digital signature. - spreading a digital signature in a hidden code, a time offset being applied to the hidden code in order to obtain a modulated hidden code, - distributing the modulated hidden code in a navigation spread public code by applying a private key algorithm with an "Exclusive OR" function in order to obtain sequences of modulated codes; - transmitting the sequences of modulated codes; - upon reception, applying a public key algorithm in order to select sequences of modulated codes and in order to generate a hidden spread code; and - correlating the sequences of modulated codes with the spread code in order to locate the hidden digital signature.
A multiple-electrode ion meter, comprising: meter electronics configured to receive a plurality of ionic concentration voltage measurements and generate an ionic concentration measurement from the plurality of ionic concentration voltage measurements; and three or more individual electrode units in communication with the meter electronics, with the three or more electrode units generating the plurality of ionic concentration voltage measurements to the meter electronics, wherein a first electrode of the three or more individual electrode units includes a first ion sensitive region including a first ionic sensitivity characteristic and a second electrode includes a second ion sensitive region including a second ionic sensitivity characteristic, with the second ionic sensitivity characteristic differing from the first ionic sensitivity characteristic. meter electronics configured to receive a plurality of ionic concentration voltage measurements and generate an ionic concentration measurement from the plurality of ionic concentration voltage measurements; and three or more individual electrode units in communication with the meter electronics, with the three or more electrode units generating the plurality of ionic concentration voltage measurements to the meter electronics, wherein a first electrode of the three or more individual electrode units includes a first ion sensitive region including a first ionic sensitivity characteristic and a second electrode includes a second ion sensitive region including a second ionic sensitivity characteristic, with the second ionic sensitivity characteristic differing from the first ionic sensitivity characteristic.
A method of wireless communications, the method being implemented by a wireless device, which includes a first transceiver chain, comprising a first transmit chain and a first receive chain, and a second transceiver chain, comprising a second transmit chain and a second receive chain, the method comprising: receiving a first data signal via the first receive chain of the first transceiver chain of the wireless device; initiating a transmission of a second data signal via the second transmit chain of the second transceiver chain of the wireless device while concurrently receiving the first data signal via the first receive chain of the first transceiver chain; characterised in that it further comprises suspending updates to one or more tracking loops of the first transceiver chain in response to initiating the transmission of the second data signal. receiving a first data signal via the first receive chain of the first transceiver chain of the wireless device; initiating a transmission of a second data signal via the second transmit chain of the second transceiver chain of the wireless device while concurrently receiving the first data signal via the first receive chain of the first transceiver chain; characterised in that it further comprises suspending updates to one or more tracking loops of the first transceiver chain in response to initiating the transmission of the second data signal.
A non-transitory computer-readable storage medium comprising instructions stored thereon that, when executed by at least one processor, are configured to cause a computing system to at least: detect a position of a cursor within an AR display of a physical space captured by a camera, the AR display including an AR object, and the position simulating a three-dimensional position of the cursor within the physical space and relative to the camera and the AR object; and change a snapping range of a snap-select function of the cursor in response to the position of the cursor, characterised by including: increasing the snapping range in direct proportion to a distance of the cursor from the camera, as determined from the position of the cursor. detect a position of a cursor within an AR display of a physical space captured by a camera, the AR display including an AR object, and the position simulating a three-dimensional position of the cursor within the physical space and relative to the camera and the AR object; and change a snapping range of a snap-select function of the cursor in response to the position of the cursor, characterised by including: increasing the snapping range in direct proportion to a distance of the cursor from the camera, as determined from the position of the cursor.
A bone drill comprising: a shaft with a flexible portion having a proximal end and a distal end; a drill tip coupled to the distal end of the shaft, the shaft housing the drill tip; a cannulated sheath with a proximal end and a distal end, the sheath having a curved portion at the distal end and housing a portion of the shaft, the drill tip being housed within the curved portion of the sheath, characterised by; the sheath being provided at distal end with laser marks for marking a tunnel location, for referencing the center of a tunnel, or for measuring osteochondral defects; comprising an actuator mechanism for retracting the sheath so that the drill tip extends beyond the distal end of the sheath; and comprising a power system coupled to the shaft to drive the drill tip into bone. a shaft with a flexible portion having a proximal end and a distal end; a drill tip coupled to the distal end of the shaft, the shaft housing the drill tip; a cannulated sheath with a proximal end and a distal end, the sheath having a curved portion at the distal end and housing a portion of the shaft, the drill tip being housed within the curved portion of the sheath, characterised by; the sheath being provided at distal end with laser marks for marking a tunnel location, for referencing the center of a tunnel, or for measuring osteochondral defects; comprising an actuator mechanism for retracting the sheath so that the drill tip extends beyond the distal end of the sheath; and comprising a power system coupled to the shaft to drive the drill tip into bone.
Method for controlling a two-wheeled vehicle having an electric motor, including at least the following method steps: a. determining a tilt angle (β) of the two-wheeled vehicle at a first time, d. determining a speed (v) of the two-wheeled vehicle at a first time; b. comparing the determined tilt angle (β) to a first threshold value, and, if the determined tilt angle (β) is greater than the first threshold value, e. comparing the determined speed (v) to a second threshold value, and, if the determined speed (v) is smaller than the second threshold value, c. controlling the two-wheeled vehicle by not reading and/or not transmitting a signal from the accelerator, deactivating the electric motor and/or interrupting a mechanical connection between electric motor and drive wheel [page 2, lines 24 ff.] so that no torque can be provided to a drive wheel of the two-wheeled vehicle by the electric motor. a. determining a tilt angle (β) of the two-wheeled vehicle at a first time, d. determining a speed (v) of the two-wheeled vehicle at a first time; b. comparing the determined tilt angle (β) to a first threshold value, and, if the determined tilt angle (β) is greater than the first threshold value, e. comparing the determined speed (v) to a second threshold value, and, if the determined speed (v) is smaller than the second threshold value, c. controlling the two-wheeled vehicle by not reading and/or not transmitting a signal from the accelerator, deactivating the electric motor and/or interrupting a mechanical connection between electric motor and drive wheel [page 2, lines 24 ff.] so that no torque can be provided to a drive wheel of the two-wheeled vehicle by the electric motor.
An animal food composition comprising a protein source and corn starch, wherein native high-amylose corn starch comprises at least 50% by weight of the corn starch, wherein the composition comprises corn starch in an amount of from 40 to 70 wt% based on the total weight of the composition on a dry matter basis, wherein the protein source is hydrolysed protein, and wherein the native high-amylose corn starch has an amylose content of from 50 wt% to 70 wt% on a dry matter basis.
Electric motor, namely an electronically commutated brushless motor, comprising an essentially flat cylindrical housing consisting of a non-magnetic material, within which a shaft is embedded, to which a winding assembly is attached with the possibility of torque transmission, which winding assembly comprises conductors (21, 22, 23, 24, 25, 26, 27, 28) which are adapted to cooperate with a magnetic assembly which is furnished with magnets (11, 12, 13, 14, 15, 16, 17, 18) and is firmly attached to the housing, wherein said magnetic assembly comprises a pre-determined number of permanent magnets (11, 12, 13, 14, 15, 16, 17, 18) which are attached to at least two plate-like magnetic discs (101, 102, 103), optionally rings, which are attached to the housing and are spaced apart from each other in the axial direction of the shaft, and wherein on each magnetic disc (101, 102, 103) said magnets (11, 12, 13, 14, 15, 16, 17, 18) extend radially with respect of each corresponding magnetic disc (101, 102, 103), and wherein at least one winding disc (201, 202) is inserted within the gap between each pair of neighboring magnetic discs (101, 102, 103) with magnets (11, 12, 13, 14, 15, 16, 17, 18) and is with the possibility of torque transmission attached to the shaft and adapted to cooperate with magnets (11, 12, 13, 14, 15, 16, 17, 18) on each neighboring magnetic disc (101, 102, 103), characterized in that magnets (11, 12, 13, 14, 15, 16, 17, 18) on each magnetic disc (101, 102, 103) are equidistantly spaced apart from each other in the circumferential direction of the magnetic disc (101, 102, 103), where each winding disc (201, 202) is formed of a multi-layer printed conductor which belongs to said winding assembly, wherein each winding disc (201, 202) consists of at least two printed conductor layers (2011, 2012; 2021, 2022), each layer (2011, 2012; 2021, 2022) consisting of electric insulating material, onto which mesh-shaped electric conductors (21, 22, 23, 24, 25, 26, 27, 28) in the form of electric conductive layer are applied on that surface which is faced towards said magnets (11, 12, 13, 14, 15, 16, 17, 18), and wherein each conductor (21, 22, 23, 24, 25, 26, 27, 28) in the form of a surface layer consisting of an electric conductive material comprises at least one radial section (21', 22', 23', 24', 25', 26', 27', 28') which extends radially with respect to said winding disc (201, 202) and is adapted to cooperate with magnets (11, 12, 13, 14, 15, 16, 17, 18), and in addition to said radially extending section also a further section (21", 22", 23", 24", 25", 26", 27", 28") which extends in the circumferential direction of the winding disc (201, 202), and wherein the conductors (21, 22, 23, 24, 25, 26, 27, 28) are interconnected with each other by means of appropriate connectors, which extend throughout each corresponding winding disc (201, 202), and in that a Hall sensor is integrated on at least one winding disc (201, 202) of the winding assembly in the area between the conductors (21, 22, 23, 24, 25, 26, 27, 28), wherein said sensor is able to detect the magnetic field.
Method of gasification of char, coal and coal-bearing raw materials, involving conducting it in a co-current system with an advantageously turbulent gas flow, characteristic that it is implemented in a row of alternating homogeneous 1 and heterogeneous 2 reaction zones, with a mixture of steam, hydrocarbon vapours and/or combustible gases, with an oxygen or oxygen with steam injection into the homogeneous reaction zones, which increases the temperature in the homogeneous zone to no more than 1000°C, whereby fine-grained, preferably below 2 mm, coal or coal-bearing material as the feed, is distributed mechanically throughout the heterogeneous reaction zone to ensure the continuous development of the contact surface distributed in the form of curtains of solid phase with carbon dioxide and steam, while the gas temperature between successive heterogeneous reaction zones is raised to no more than 1000°C via the oxygen or oxygen with steam injection, adjusted for each homogeneous reaction zone.
A therapeutic agent comprising -7-(2-methoxy-3,5-dimethylpyridin-4-yl)-1-(tetrahydrofuran-3-yl)-1H-pyrazolo[4,3-c]qui noline-4 -one represented by formula: or a pharmaceutically acceptable salt thereof, and donepezil represented by formula: or a pharmaceutically acceptable salt thereof for combined use in treating Alzheimer's disease or Lewy body dementia.
A method for manufacturing a high-strength galvanized steel sheet, the method comprising performing hot rolling on a steel slab having a chemical composition containing, by mass%, C: 0.120% or more and 0.180% or less, Si: 0.01% or more and 1.00% or less, Mn: 2.20% or more and 3.50% or less, P: 0.001% or more and 0.050% or less, S: 0.010% or less, sol.Al: 0.005% or more and 0.100% or less, N: 0.0001% or more and 0.0060% or less, Nb: 0.010% or more and 0.100% or less, Ti: 0.010% or more and 0.100% or less, optionally one or more selected from among Mo: 0.05% or more and 1.00% or less, V: 0.02% or more and 0.50% or less, Cr: 0.05% or more and 1.00% or less, and B: 0.0001% or more and 0.0030% or less, and the balance being Fe and inevitable impurities in order to obtain a hot-rolled steel sheet, performing cold rolling on the hot-rolled steel sheet in order to obtain a cold-rolled steel sheet, then performing first annealing on the cold-rolled steel sheet, performing pickling on the annealed steel sheet, and then performing second annealing on the pickled steel sheet in order to obtain a galvanized steel sheet, wherein the first annealing includes performing heating to an annealing temperature of 780°C or higher and 850°C or lower at an average heating rate of 1°C/s or less in a temperature range from 700°C to the annealing temperature, holding the heated steel sheet at an annealing temperature of 780°C or higher and 850°C or lower for 10 seconds or more and 500 seconds or less, and cooling the held steel sheet from the annealing temperature to a cooling stop temperature of 500°C or lower at an average cooling rate of 5°C/s or more in order to obtain a steel sheet having a steel microstructure including ferrite in an amount of 10% or more and 60% or less in terms of area ratio, and martensite, bainite, and retained austenite in a total amount of 40% or more and 90% or less in terms of area ratio, wherein the pickling is performed so that the amount of decrease in the weight of the steel sheet due to pickling is 0.05 g/m 2 or more and 5 g/m 2 or less in terms of Fe, and wherein the second annealing includes heating the pickled steel sheet to an annealing temperature of 750°C or higher and 850°C or lower, holding the heated steel sheet at an annealing temperature of 750°C or higher and 850°C or lower for 10 seconds or more and 500 seconds or less, cooling the held steel sheet from the annealing temperature at an average cooling rate of 1°C/s or more and 15°C/s or less, performing a galvanizing treatment including dipping the steel sheet in a galvanizing bath, cooling the galvanized steel sheet to a temperature of 150°C or lower at an average cooling rate of 5°C/s or more and 100°C/s or less in order to obtain a steel sheet having a steel microstructure including, in terms of area ratio, 10% or more and 60% or less of ferrite and, in terms of area ratio, 40% or more and 90% or less of martensite.
A screen panel designed to be mounted or fixed on a surface, in particular to act as a "visual obstruction", comprising a sheet, preferably made of plastic material and preferably rectangular in shape, held by its edges in a rigid, preferably metallic, frame consisting of assembled profiles, the frame comprising two uprights able to be placed or fixed on a surface, comprising internally at least one channel, characterized in that the uprights are connected to crosspieces (3, 3') by bracket-shaped assembly parts each engaging with one arm in a channel of a corresponding upright and with its other, preferably orthogonal, arm in a channel of a corresponding crosspiece.
A cone brake device, comprising: an outer member having an annular inner surface; a friction element attached to the annular inner surface of the outer member; a brake drum having an outer surface and configured to move toward the friction element; and a thermal sprayed coating attached to the outer surface of the brake drum and having a thickness of several millimeters, and the thermal sprayed coating is configured to engage the friction element when one of the brake drum and the friction element is moved toward the other of the brake drum and the friction element; wherein the thermal sprayed coating is a tungsten carbide - 17 % cobalt hard material. an outer member having an annular inner surface; a friction element attached to the annular inner surface of the outer member; a brake drum having an outer surface and configured to move toward the friction element; and a thermal sprayed coating attached to the outer surface of the brake drum and having a thickness of several millimeters, and the thermal sprayed coating is configured to engage the friction element when one of the brake drum and the friction element is moved toward the other of the brake drum and the friction element; wherein the thermal sprayed coating is a tungsten carbide - 17 % cobalt hard material.
A material breaking device comprising: - a frame structure with an upper bracket and a lower bracket for support of other elements of the material breaking device; - an inlet tube fixedly attached to the upper bracket; - an outlet tube fixedly attached to the lower bracket; - a tubular housing arranged between said brackets (1A, IB), wherein the tubular housing is attached to the inlet tube for receiving particles to be milled and to the outlet tube for output of milled particles, wherein the tubular housing is attached to said tubes (2, 3) in a rotatable manner such that the tubular housing can rotate relative to the frame structure; - at least one conical distributor arranged in the tubular housing and comprising recesses therearound allowing particles to pass along said conical distributor, wherein the conical distributor defines a first milling chamber; - at least one outlet cone arranged in the tubular housing downstream from the conical distributor and comprising a through hole allowing particles to pass through said outlet cone, wherein the outlet cone defines a second milling chamber; - a permanent magnet unit comprising a permanent magnet and the permanent magnet unit is attached to the tubular housing such that at least two permanent magnet units are provided for each milling chamber (6, 8); - a drive unit for providing rotation of the tubular housing relative to the frame structure, the inlet tube and the outlet tube creating rotating magnetic field within the milling chambers (6, 8). - a frame structure with an upper bracket and a lower bracket for support of other elements of the material breaking device; - an inlet tube fixedly attached to the upper bracket; - an outlet tube fixedly attached to the lower bracket; - a tubular housing arranged between said brackets (1A, IB), wherein the tubular housing is attached to the inlet tube for receiving particles to be milled and to the outlet tube for output of milled particles, wherein the tubular housing is attached to said tubes (2, 3) in a rotatable manner such that the tubular housing can rotate relative to the frame structure; - at least one conical distributor arranged in the tubular housing and comprising recesses therearound allowing particles to pass along said conical distributor, wherein the conical distributor defines a first milling chamber; - at least one outlet cone arranged in the tubular housing downstream from the conical distributor and comprising a through hole allowing particles to pass through said outlet cone, wherein the outlet cone defines a second milling chamber; - a permanent magnet unit comprising a permanent magnet and the permanent magnet unit is attached to the tubular housing such that at least two permanent magnet units are provided for each milling chamber (6, 8); - a drive unit for providing rotation of the tubular housing relative to the frame structure, the inlet tube and the outlet tube creating rotating magnetic field within the milling chambers (6, 8).