mhurhangee/ep-ind-claims huggingface dataset:
A method of molding a shell half of a wind turbine blade, the blade having a profiled contour including a pressure side and a suction side, and a leading edge and a trailing edge with a chord having a chord length extending therebetween, the wind turbine blade extending in a spanwise direction between a root end and a tip end, said method comprising: - providing a mold comprising a mold cavity with a root end and an opposing tip end, - arranging three or more preformed sheets (72a, 72b, 72c) in the mold cavity, wherein each preformed sheet comprises a mixture of fibre rovings and a binding agent, wherein the fibre rovings are at least partially joined together by means of the binding agent, and - injecting the three or more preformed sheets (72a, 72b, 72c) with a resin to mold the shell half, wherein the preformed sheets (72a, 72b, 72c) are arranged in the mold cavity such that both longitudinally extending lateral edges of at least one preformed sheet abut respective longitudinally extending lateral edges of adjacent preformed sheets (72a, 72c) on either side, and/or wherein the preformed sheets are arranged in the mold cavity such that both longitudinally extending lateral edges of at least one preformed sheet overlap with respective adjacent preformed sheets (72a, 72c) on either side. - providing a mold comprising a mold cavity with a root end and an opposing tip end, - arranging three or more preformed sheets (72a, 72b, 72c) in the mold cavity, wherein each preformed sheet comprises a mixture of fibre rovings and a binding agent, wherein the fibre rovings are at least partially joined together by means of the binding agent, and - injecting the three or more preformed sheets (72a, 72b, 72c) with a resin to mold the shell half,
An input device comprising a plastic cover and a film sensor laminated together in a laminating direction with an optical transparent adhesive layer therebetween, wherein a resin flowing direction MD1 of the plastic cover is an extruding direction in manufacturing a plastic base material of the plastic cover, wherein the film sensor comprises an electrode layer disposed on a film base material layer, wherein a resin flowing direction MD2 of the film sensor is a roll drawing direction in manufacturing the film base material layer of the film sensor, wherein a resin constituting the plastic base material is different from a resin constituting the film base material layer, wherein a thickness of the plastic cover is greater than a thickness of the film sensor, and wherein the resin flowing direction MD1 of the plastic cover and the resin flowing direction MD2 of the film sensor are crossing each other in plan view in the laminating direction. wherein a resin flowing direction MD1 of the plastic cover is an extruding direction in manufacturing a plastic base material of the plastic cover, wherein the film sensor comprises an electrode layer disposed on a film base material layer, wherein a resin flowing direction MD2 of the film sensor is a roll drawing direction in manufacturing the film base material layer of the film sensor, wherein a resin constituting the plastic base material is different from a resin constituting the film base material layer, wherein a thickness of the plastic cover is greater than a thickness of the film sensor, and wherein the resin flowing direction MD1 of the plastic cover and the resin flowing direction MD2 of the film sensor are crossing each other in plan view in the laminating direction.
X-ray device for a medical workstation, comprising: - a robot, having a plurality of axes, a control device, which is configured to control the axes for a movement of the robot, and a fastening device, and - a support device arranged on the fastening device and comprising an X-ray radiation source and an X-ray radiation receiver, wherein in the control device a 3D model (15, 15a) is saved of the robot with arranged support device, which models the spatial extension of the robot with arranged support device during the movement of the robot, wherein the 3D model (15, 15a) also models the spatial extension of a living being located within the medical workstation (1, 21), and the control device based on the 3D model (15, 15a) identifies a potential collision of the X-ray device with the living being and causes the robot to initiate a measure for avoiding the potential collision, further having at least one sensor coupled to the control device, by means of which sensor the area surrounding the X-ray device is detected and which sensor is configured to identify a movement of the living being in order to update the current position of the living being in the 3D model (15, 15a). - a robot, having a plurality of axes, a control device, which is configured to control the axes for a movement of the robot, and a fastening device, and - a support device arranged on the fastening device and comprising an X-ray radiation source and an X-ray radiation receiver,
A processor-implemented method comprising: obtaining geometrical parameters associated with a ladle, wherein the geometrical parameters comprise ladle top and bottom diameters, ladle height, a number of plugs, position of the plugs, and diameters of the plugs; capturing ladle process parameters for tapping, wherein the ladle process parameters comprise a range of tapping rates, a tapping inlet area, an initial slag height, a percentage of carry over slag in incoming steel and a duration of tapping; creating input data using the ladle process parameters and geometrical parameters; performing multi-phase computational fluid dynamics, CFD, using the created input data to obtain simulation results; calculating output data which is an air-steel interface area,and an amount of air entrapment from the simulation results; creating training data from the input data and corresponding output data; training an artificial neural network, ANN, model using the obtained training data; and determining an amount of air entrapment and an air-steel interface area in the ladle for new geometrical parameters and the ladle process parameters using the trained ANN model. obtaining geometrical parameters associated with a ladle, wherein the geometrical parameters comprise ladle top and bottom diameters, ladle height, a number of plugs, position of the plugs, and diameters of the plugs; capturing ladle process parameters for tapping, wherein the ladle process parameters comprise a range of tapping rates, a tapping inlet area, an initial slag height, a percentage of carry over slag in incoming steel and a duration of tapping; creating input data using the ladle process parameters and geometrical parameters; performing multi-phase computational fluid dynamics, CFD, using the created input data to obtain simulation results; calculating output data which is an air-steel interface area,and an amount of air entrapment from the simulation results; creating training data from the input data and corresponding output data; training an artificial neural network, ANN, model using the obtained training data; and determining an amount of air entrapment and an air-steel interface area in the ladle for new geometrical parameters and the ladle process parameters using the trained ANN model.
A method for use in watermarking a video signal having a plurality of frames, a frame comprising a plurality of blocks, the method comprising the steps of: replicating bits of additional information, the additional information to be impressed upon a video signal by placing, for a plurality of blocks, a respective one of said bits of additional information into a selected bit of an average value of a chrominance portion over a respective block of said video signal; and supplying said original and replicated bits to be impressed in a same block position in successive frames; wherein all of said bits of additional information that are to be impressed on a first one of said successive frames are replicated to be impressed on at least a second one of said successive frames that is for display without any frame being displayed between said first frame and said second ones of said successive frames; wherein said selected bit is selected based on an average variance of a luminance portion for the respective block. replicating bits of additional information, the additional information to be impressed upon a video signal by placing, for a plurality of blocks, a respective one of said bits of additional information into a selected bit of an average value of a chrominance portion over a respective block of said video signal; and supplying said original and replicated bits to be impressed in a same block position in successive frames; wherein all of said bits of additional information that are to be impressed on a first one of said successive frames are replicated to be impressed on at least a second one of said successive frames that is for display without any frame being displayed between said first frame and said second ones of said successive frames; wherein said selected bit is selected based on an average variance of a luminance portion for the respective block.
A genotype I Porcine Reproductive and Respiratory Syndrome (PRRS) virus whose genome is encoded by a nucleic acid molecule comprising a sequence selected from the group consisting of: SEQ ID NOS: 49, 56, 57, and 58.
Process for stabilizing an aqueous solution comprising an iron complex of an organic acid with a ferric component and a ferrous component of less solubility than the ferric component, the solution having a pH between 3 and 5, wherein the solution is at least partly subjected to electrolytic oxidation.
An arrangement for electrical earthing the outer conductor or shield of a coaxial cable, the arrangement comprising a receiver and a drop unit that can be brought together to a mutual clamped position, the receiver comprises a cleft that is defined by a bottom element, two opposing side elements (7a, 7b), and two opposing open sides (8a, 8b) adopted to receive the said cable extending through the open sides, the drop unit comprising a connection to earth and a penetration means that is in electrical connection to said earth connection and adopted to penetrate through an outer insulating protective cover of the cable to contact the shield of the coaxial cable when the arrangement is brought in its clamped position, the penetration means having and edge (23a, 23b) which is designed to penetrate through the outer cover of the coaxial cable to contact the outer conductor or shield of the cable when the drop unit and the receiver is brought in their mutual clamped position by rotation, the arrangement being characterised in that the drop unit and the receiver comprise pins (19a, 19b) and tracks arranged on the drop unit and the receiver respectively, which pins and tracks allow the drop unit and receiver to be connected to each other by introducing the pins (19a, 19b) into the tracks, wherein the tracks transit into holes which allow the drop unit and receiver to be mutually rotated via an axis when the pins are located in the holes, wherein the axis extends through the opposing side elements (7a, 7b).
An operating microscope comprising: a base set on a floor surface; a post held for rotation around a vertical rotation axis with respect to the base; a horizontal motion arm a vertical motion arm held for rotation around a second horizontal rotation axis (O 3; X 7, X 11; R 9) with respect to the horizontal motion arm; and a lens barrel portion supported by the vertical motion arm, characterized in that the horizontal motion arm is held for rotation around a first horizontal rotation axis (O 2; X 2, X 5; R 5, R 6) with respect to the post; and by an elastic member (40; 236; 336) which is provided between the post and the horizontal motion arm and cancels an angular moment around the horizontal motion arm; a first fulcrum (A 14) which is provided on the horizontal motion arm and receives a force from the elastic member (40; 236; 336); and a fulcrum moving mechanism configured to shift the position of the fulcrum (A 14) in relation to the horizontal motion arm in a direction substantially perpendicular to a longitudinal direction of the horizontal motion arm. a base set on a floor surface; a post held for rotation around a vertical rotation axis with respect to the base; a horizontal motion arm a vertical motion arm held for rotation around a second horizontal rotation axis (O 3; X 7, X 11; R 9) with respect to the horizontal motion arm; and a lens barrel portion supported by the vertical motion arm, characterized in that the horizontal motion arm is held for rotation around a first horizontal rotation axis (O 2; X 2, X 5; R 5, R 6) with respect to the post; and by an elastic member (40; 236; 336) which is provided between the post and the horizontal motion arm and cancels an angular moment around the horizontal motion arm; a first fulcrum (A 14) which is provided on the horizontal motion arm and receives a force from the elastic member (40; 236; 336); and a fulcrum moving mechanism configured to shift the position of the fulcrum (A 14) in relation to the horizontal motion arm in a direction substantially perpendicular to a longitudinal direction of the horizontal motion arm.
A superfinishing stone equipped at a tip part thereof with a first inclined surface and a second inclined surface, each having a shape of a circular arc when viewed from a second direction, characterized in that the first inclined surface and the second inclined surface, when viewed from a first direction, extend from a central portion respectively toward both sides at an inclination angle of 3°-5° with the second direction that is perpendicular to the first direction and meet each other to form a ridge approximately in the shape of the letter V, and that the superfinishing stone is obtained by binding composite abrasive grains with a vitrified bond, the composite abrasive grains comprising soft abrasive grains which have chemical reactivity with a material to be machined but do not have abrasive properties thereagainst and hard abrasive grains which have abrasive properties against the material to be machined.
A process for producing a fuel cell electrode catalyst comprising: a step of mixing at least a transition metal-containing compound, a nitrogen-containing organic compound and a solvent to provide a catalyst precursor solution, a step of removing the solvent from the catalyst precursor solution, and a step of thermally treating a solid residue obtained in the step at a temperature of 500 to 1100°C to provide an electrode catalyst, wherein the transition metal-containing compound is partly or wholly a compound comprising at least one transition metal element selected from the group 4 and 5 elements of the periodic table as a transition metal element, characterized in that the nitrogen-containing organic compound is at least one selected from glycine, glycylglycine, pyrazine carboxylic acid and 2-pyridine carboxylic acid. a step of mixing at least a transition metal-containing compound, a nitrogen-containing organic compound and a solvent to provide a catalyst precursor solution, a step of removing the solvent from the catalyst precursor solution, and a step of thermally treating a solid residue obtained in the step at a temperature of 500 to 1100°C to provide an electrode catalyst, wherein the transition metal-containing compound is partly or wholly a compound comprising at least one transition metal element selected from the group 4 and 5 elements of the periodic table as a transition metal element, characterized in that the nitrogen-containing organic compound is at least one selected from glycine, glycylglycine, pyrazine carboxylic acid and 2-pyridine carboxylic acid.
A method for producing plant growing substrate, characterized by that the method comprises steps of: a) preparing a polyvinyl formal solution with a concentration between 5 to 15% by placing PVF granules into distilled water and mixing at 70 °C-95 °C, in a controlled water bath for 0.5-6 hours; b) mixing starch into the solution and the stirring obtained mixture; c) pouring aldehyde, into the mixture and stirring the mixture; d) mixing concentrated sulfuric acid with water and adding it to the mixture of step c) while constantly stirring; e) heating the mixture of step d) to 30 °C-70 °C and adding coir, peat, and mineral components; f) pouring the mixture of step e) into molds and heating the molds 55 °C-95 °C for 1-24 hours; g) removing the excess acid from material obtained in step f); and h) drying the material. a) preparing a polyvinyl formal solution with a concentration between 5 to 15% by placing PVF granules into distilled water and mixing at 70 °C-95 °C, in a controlled water bath for 0.5-6 hours; b) mixing starch into the solution and the stirring obtained mixture; c) pouring aldehyde, into the mixture and stirring the mixture; d) mixing concentrated sulfuric acid with water and adding it to the mixture of step c) while constantly stirring; e) heating the mixture of step d) to 30 °C-70 °C and adding coir, peat, and mineral components; f) pouring the mixture of step e) into molds and heating the molds 55 °C-95 °C for 1-24 hours; g) removing the excess acid from material obtained in step f); and h) drying the material.
A method for performing, by a user equipment, UE, time or frequency tracking in a multi-cellular wireless communication system, the method comprising: receiving a configuration of a frequency for a time or frequency tracking reference carrier, wherein the time or frequency tracking reference carrier is a licensed carrier of 3rd generation partnership project, 3GPP, long-term evolution, LTE; searching for a best cell in the frequency; determining the time or frequency tracking reference carrier which corresponds to the best cell; receiving a signal from the determined time or frequency tracking reference carrier used for the time or frequency tracking in an unlicensed carrier which is collocated with said licensed carrier; and performing the time or frequency tracking in the unlicensed carrier based on the signal. receiving a configuration of a frequency for a time or frequency tracking reference carrier, wherein the time or frequency tracking reference carrier is a licensed carrier of 3rd generation partnership project, 3GPP, long-term evolution, LTE; searching for a best cell in the frequency; determining the time or frequency tracking reference carrier which corresponds to the best cell; receiving a signal from the determined time or frequency tracking reference carrier used for the time or frequency tracking in an unlicensed carrier which is collocated with said licensed carrier; and performing the time or frequency tracking in the unlicensed carrier based on the signal.
A wire drawing apparatus comprising a wire pressing device including a main body and a plurality of roller units assembled on the main body, the main body having a hole through which a metal wire is in use extended, the roller units being assembled relative to the hole for surrounding and applying compression forces on the metal wire; and a lubricating unit disposed on the wire pressing device and including a lubricant inlet provided on the main body, and a plurality of passages formed respectively in the roller units, the apparatus being characterized in that a lubricant outlet is provided on the main body and in that each of the passages is in fluid communication with the lubricant inlet and the lubricant outlet.
A surface-coated boron nitride sintered body tool, in which at least a cutting edge portion includes a cubic boron nitride sintered body and a coating film formed on a surface of the cubic boron nitride sintered body, said cubic boron nitride sintered body comprising 30 vol% or more and 80 vol% or less of cubic boron nitride particles, and further comprising a binder phase including at least one compound selected from the group consisting of nitride, carbide, boride, oxide, and solid solutions thereof in group 4 elements, group 5 elements and group 6 elements in a periodic table, an aluminum compound, and inevitable impurities, said coating film including an A layer and a B layer, said A layer including MLa za1, wherein M represents one or more of group 4 elements, group 5 elements and group 6 elements in the periodic table, Al and Si; La represents one or more of B, C, N, and O; and za1 is 0.85 or more and 1.0 or less, said B layer being formed by alternately stacking two or more of each of two or more compound layers having different compositions, said compound layers each having a thickness of 30 nm or more and 300 nm or less, one of said compound layers being a B1 compound layer, said B1 compound layer including (Ti 1-xb1-yb1 Si xb1 M1 yb1) (C 1-zb1 N zb1), wherein M1 represents one or more of group 4 elements except for Ti, group 5 elements and group 6 elements in the periodic table, and Al; xb1 is 0.01 or more and 0.25 or less; yb1 is 0 or more and 0.7 or less; and zb1 is 0.4 or more and 1 or less, one of said compound layers being a B2 compound layer, said B2 compound layer being different from said B1 compound layer, and including (Al 1-xb2 M2 xb2) (C 1-zb2 N zb2), wherein M2 represents one or more of group 4 elements, group 5 elements and group 6 elements in the periodic table, and Si; xb2 is 0.2 or more and 0.7 or less; and zb2 is 0.4 or more and 1 or less, t2/t1 that is a ratio between an average thickness t1 of said B1 compound layers and an average thickness t2 of said B2 compound layers satisfying a relation of 0.5 < t2/t1 ≤ 10.0, and said A layer having a thickness of 0.2 μm or more and 10 μm or less, said B layer having a thickness of 0.1 μm or more and 5 μm or less, and said coating film having an entire thickness of 0.5 μm or more and 15 μm or less, and assuming that a thickness of said B1 compound layer is indicated as t1 0, a thickness of said B2 compound layer is indicated as t2 0, and a thickness ratio between said B1 compound layer and said B2 compound layer that are in contact with each other is indicated as t2 0 /t1 0, said t2 0 /t1 0 gradually decreasing from a cubic boron nitride sintered body-side toward an A layer-side, a relation of 1.0 < t2 0 /t1 0 ≤ 5.0 being satisfied on said cubic boron nitride sintered body-side, and a relation of 0.5 < t2 0 /t1 0 < 3.0 being satisfied on said A layer-side.
A method of sharing keys among a plurality of conditional access vendors having differing CA systems used at a distribution headend, the method comprising: receiving a CA Value contribution from each of the plurality of CA vendors at the headend; hashing the CA Values from each of the plurality of CA vendors together using a hashing function to produce an output control word; at an encrypter at the headend, using the output control word as a content key, wherein the content key is used as an encryption key to encrypt content provided to a plurality of receivers that decrypt the content using any of the conditional access systems; and sending the CA Value contributions to the plurality of receivers in Entitlement Control Messages (ECMs) for each CA vendor, an ECM for a CA vendor representing that CA vendor's CA Value contribution as a function of access criteria in that ECM and including one or more values which, when hashed with the respective CA vendor's CA Value contribution, generate the control word. receiving a CA Value contribution from each of the plurality of CA vendors at the headend; hashing the CA Values from each of the plurality of CA vendors together using a hashing function to produce an output control word; at an encrypter at the headend, using the output control word as a content key, wherein the content key is used as an encryption key to encrypt content provided to a plurality of receivers that decrypt the content using any of the conditional access systems; and sending the CA Value contributions to the plurality of receivers in Entitlement Control Messages (ECMs) for each CA vendor, an ECM for a CA vendor representing that CA vendor's CA Value contribution as a function of access criteria in that ECM and including one or more values which, when hashed with the respective CA vendor's CA Value contribution, generate the control word.