mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling a wind turbine, the wind turbine comprising a tower, at least one nacelle mounted on the tower via a yaw system, a hub mounted rotatably on each nacelle, each hub comprising a blade carrying structure, and one or more wind turbine blades, each wind turbine blade being connected to the blade carrying structure via a hinge at a hinge position of the wind turbine blade, each wind turbine blade thereby being arranged to perform pivot movements relative to the blade carrying structure between a minimum pivot angle and a maximum pivot angle, the method being characterized by the steps of: - receiving a maximum noise level value representing a maximum allowable noise to be generated by the wind turbine, - deriving an optimal pair of tip speed for the wind turbine and rotational speed of the wind turbine, based on the received maximum noise level value, and - adjusting the pivot angle of the wind turbine blades to a pivot angle which results in the derived optimal pair of tip speed and rotational speed, wherein the method further comprises the step of applying an adjustable biasing force to the wind turbine blades which biases the wind turbine blades towards a position defining a minimum pivot angle, and wherein the step of adjusting the pivot angle of the wind turbine blades comprises adjusting the biasing force applied to the wind turbine blades. - receiving a maximum noise level value representing a maximum allowable noise to be generated by the wind turbine, - deriving an optimal pair of tip speed for the wind turbine and rotational speed of the wind turbine, based on the received maximum noise level value, and - adjusting the pivot angle of the wind turbine blades to a pivot angle which results in the derived optimal pair of tip speed and rotational speed,
A tractor with a hydro-static transmission which is positioned between a clutch and a secondary transmission, to transmit power, the tractor comprising: a clutch housing with the clutch and the HST positioned inside; said clutch and HST being connected through a main shaft; a partition to separate the clutch from the HST formed inside the clutch housing and having a through hole for the main shaft; and characterized in that, it further comprises: a heat-radiating opening formed in an upper part of the partition, distinct of the through hole, in order to discharge the heat generated by the operation of the clutch and a High Efficiency Particulate Air filter positioned at the heat-radiating opening of the partition, to prevent the clutch from being contaminated. a clutch housing with the clutch and the HST positioned inside; said clutch and HST being connected through a main shaft; a partition to separate the clutch from the HST formed inside the clutch housing and having a through hole for the main shaft; and characterized in that, it further comprises: a heat-radiating opening formed in an upper part of the partition, distinct of the through hole, in order to discharge the heat generated by the operation of the clutch and a High Efficiency Particulate Air filter positioned at the heat-radiating opening of the partition, to prevent the clutch from being contaminated.
A method for determining a route for a navigation system and/or a driver assistance system which is assigned at least one memory unit for storing digital map data for a road network and/or a path network of a predetermined area, wherein the digital map data comprise: - respective nodes of the area and connections between the respective nodes of the area, - respective edge costs (g) for the respective connections of the nodes, and - predetermined correction values for the respective nodes, wherein the route from a predetermined starting node to a predetermined destination node is determined subject to the digital map data, stored in the memory unit, such that for a possible expansion of a respective current node, total costs (f) are determined for the current node subject to a total of edge costs (g) of an optimum route from the starting node to the current node and a destination node-based heuristic value (h) for the current node which represents respectively estimated costs from the current node to the destination node, and a predetermined destination node-based correction value (k), characterised in that the correction value is representative of an average of cost ratios (cost) of respective nodes of a predetermined set which comprises the destination node, wherein the respective cost ratios (cost) are subject to - the edge costs (g) of the connections which lie between the current node and the respective node of the set and which represent an optimum route between the current node and this node of the set, and - a heuristic value of the current node with respect to this respective node of the set. - respective nodes of the area and connections between the respective nodes of the area, - respective edge costs (g) for the respective connections of the nodes, and - predetermined correction values for the respective nodes, wherein - the edge costs (g) of the connections which lie between the current node and the respective node of the set and which represent an optimum route between the current node and this node of the set, and - a heuristic value of the current node with respect to this respective node of the set.
A converter for supplying current to a light emitting means (8, 9), the converter (6, 7; 10; 90; 100) comprising: an input (11, 12) configured to receive a direct current supply voltage; at least one controllable switch (21, 22; 41-44) coupled to the input (11, 12); a first diode and a second diode connected in series; and an inductor having a terminal coupled to the at least one controllable switch (21, 22; 41-44) and another terminal coupled to an anode of the first diode and a cathode of the second diode, wherein a cathode of the first diode is coupled to a first output terminal of the converter (6, 7; 10; 90; 100) and an anode of the second diode is coupled to a second output terminal of the converter (6, 7; 10; 90; 100), characterized by a first capacitance connected in parallel with the first diode and a second capacitance connected in parallel with the second diode. an input (11, 12) configured to receive a direct current supply voltage; at least one controllable switch (21, 22; 41-44) coupled to the input (11, 12); a first diode and a second diode connected in series; and an inductor having a terminal coupled to the at least one controllable switch (21, 22; 41-44) and another terminal coupled to an anode of the first diode and a cathode of the second diode, wherein a cathode of the first diode is coupled to a first output terminal of the converter (6, 7; 10; 90; 100) and an anode of the second diode is coupled to a second output terminal of the converter (6, 7; 10; 90; 100), characterized by a first capacitance connected in parallel with the first diode and a second capacitance connected in parallel with the second diode.
A vacuum compaction device for compacting a charge of composite material on a supporting surface, wherein the device is configured to be positioned on the supporting surface to define an enclosed volume, the device comprising: a barrier structure that includes a first side and an opposed second side; a sealing structure that is configured to form a fluid seal between the supporting surface and the barrier structure when compressed therebetween; and a vacuum distribution manifold that is in fluid communication with and configured to selectively apply a vacuum to the enclosed volume; wherein the barrier structure is defined by a first planar wall, a second planar wall, and a plurality of elongate webs that extend between the first planar wall and the second planar wall, wherein the first planar wall, the second planar wall, and the plurality of elongate webs define a plurality of elongate channels, and further wherein the plurality of elongate channels defines at least a portion of the vacuum distribution manifold. a barrier structure that includes a first side and an opposed second side; a sealing structure that is configured to form a fluid seal between the supporting surface and the barrier structure when compressed therebetween; and a vacuum distribution manifold that is in fluid communication with and configured to selectively apply a vacuum to the enclosed volume; wherein the barrier structure is defined by a first planar wall, a second planar wall, and a plurality of elongate webs that extend between the first planar wall and the second planar wall, wherein the first planar wall, the second planar wall, and the plurality of elongate webs define a plurality of elongate channels, and further wherein the plurality of elongate channels defines at least a portion of the vacuum distribution manifold.
Method for isolating a target molecule from a sample comprising: a) Providing the sample b) mixing one or more copolymers synthesized from monomer units whereby each monomer unit that is used for synthesizing the copolymer has at least one hydrophobic or one anionic group and the monomer unit having at least one hydrophobic group is selected from Benzylacrylamide (BzAAm), Benzylmethacrylate (BzMA), N-isopropylacrylamide (NIPAM), Methylmethacrylate, Butylacrylate, tert-Butylacrylate or 4-(Acryloylamido)benzoic acid (4-ABZ) and the monomer unit having at least one anionic group is selected from 2-Acrylamido-2-methylpropane sulfonic acid (AMPS), vinyl sulfonic acid, styrene sulfonic acid or (meth)acrylic acid, with the sample whereby a target molecule -copolymer precipitate is formed c) Separating the precipitate from the mixture of step b) whereby in step a) the pH of the sample is adjusted to a pH below the isoelectric point of the target molecule. a) Providing the sample b) mixing one or more copolymers synthesized from monomer units whereby each monomer unit that is used for synthesizing the copolymer has at least one hydrophobic or one anionic group and the monomer unit having at least one hydrophobic group is selected from Benzylacrylamide (BzAAm), Benzylmethacrylate (BzMA), N-isopropylacrylamide (NIPAM), Methylmethacrylate, Butylacrylate, tert-Butylacrylate or 4-(Acryloylamido)benzoic acid (4-ABZ) and the monomer unit having at least one anionic group is selected from 2-Acrylamido-2-methylpropane sulfonic acid (AMPS), vinyl sulfonic acid, styrene sulfonic acid or (meth)acrylic acid, with the sample whereby a target molecule -copolymer precipitate is formed c) Separating the precipitate from the mixture of step b) whereby in step a) the pH of the sample is adjusted to a pH below the isoelectric point of the target molecule.
A moving picture decoding method for realizing motion compensated prediction using a motion vector with sub-pixel accuracy, said method comprising steps of: causing each of a plurality of filters to use its respective filter coefficients, to perform a sub-pixel interpolation by applying a filtering to pixel values of a reconstructed image, thereby generating, with respect to each of the filters, an interpolated image; selecting one of the plurality of interpolated images based on filter coefficient information that is received as input; and reading, as prediction values, pixel values of sub-pixel positions from the selected interpolated image by using a motion vector that is received as an input, characterized in that: the filter coefficients with respect to a 1/2 sub-pixel motion vector position are phase-shifted by -1/4 pixel from filter coefficients that interpolate a 1/2 sub-pixel at the 1/2 sub-pixel motion vector position. causing each of a plurality of filters to use its respective filter coefficients, to perform a sub-pixel interpolation by applying a filtering to pixel values of a reconstructed image, thereby generating, with respect to each of the filters, an interpolated image; selecting one of the plurality of interpolated images based on filter coefficient information that is received as input; and reading, as prediction values, pixel values of sub-pixel positions from the selected interpolated image by using a motion vector that is received as an input, characterized in that: the filter coefficients with respect to a 1/2 sub-pixel motion vector position are phase-shifted by -1/4 pixel from filter coefficients that interpolate a 1/2 sub-pixel at the 1/2 sub-pixel motion vector position. the filter coefficients with respect to a 1/2 sub-pixel motion vector position are phase-shifted by -1/4 pixel from filter coefficients that interpolate a 1/2 sub-pixel at the 1/2 sub-pixel motion vector position.
A control apparatus that is mounted in a vehicle and that is configured to output first alarm information including an alarm according to a first request operation influencing a traveling state of the vehicle and to control output of alarm information to the driver, wherein when the first request operation contradicts a driving operation of the driver, the control apparatus is configured to modify the first request operation to an alarm that does not influence the traveling state of the vehicle and that notifies a driving state to the driver, and to output a second alarm information including an alarm according to the modified first request operation.
A camera arrangement, in particular for a vehicle, having a movably mounted camera unit which can be moved between a passive position and an active position, and a cable system which is attached to the camera unit and which is in operative connection with a cable winch which can be rotated about an axis of rotation, characterized in that the cable system comprises a first cable and a second cable and the camera unit has a first attachment point and a second attachment point for the cable system, the second attachment point being spaced apart from the first attachment point in the direction of movement of the camera unit, with the first cable being attached at its one end to the first attachment point and at its other end to the cable winch and the second cable being attached at its one end to the second attachment point and at its other end to the cable winch. a cable system which is attached to the camera unit and which is in operative connection with a cable winch which can be rotated about an axis of rotation, characterized in that the cable system comprises a first cable and a second cable and the camera unit has a first attachment point and a second attachment point for the cable system, the second attachment point being spaced apart from the first attachment point in the direction of movement of the camera unit, with the first cable being attached at its one end to the first attachment point and at its other end to the cable winch and the second cable being attached at its one end to the second attachment point and at its other end to the cable winch.
A spray canister device, comprising: a sleeved cover element; and a canister element comprises interior content and a bottom portion; characterised in that the sleeved cover element comprises: a top flat surface portion; a sleeve portion; a top cap portion, wherein the top cap portion includes a ring portion, a top body portion, and a cut-out portion, wherein the cut-out portion includes an opening; a trigger bar; wherein the interior content of the canister element is sprayed out by triggering the trigger bar of the sleeved cover element against the canister element and moving the bottom portion of the canister element to be closer to the opening of the sleeved cover element; wherein the ring portion conforms to the shape of the sleeve portion. a sleeved cover element; and a canister element comprises interior content and a bottom portion; a top flat surface portion; a sleeve portion; a top cap portion, wherein the top cap portion includes a ring portion, a top body portion, and a cut-out portion, wherein the cut-out portion includes an opening; a trigger bar; wherein the interior content of the canister element is sprayed out by triggering the trigger bar of the sleeved cover element against the canister element and moving the bottom portion of the canister element to be closer to the opening of the sleeved cover element;
An integrated circuit structure, comprising: a plurality of conductive lines in an inter-layer dielectric layer above a substrate, wherein each of the plurality of conductive lines is recessed relative to an uppermost surface of the ILD layer; a plurality of conductive caps on corresponding ones of the plurality of conductive lines, in recess regions above each of the plurality of conductive lines; a hardmask layer on the plurality of conductive caps and on the uppermost surface of the ILD layer, the hardmask layer comprising a first hardmask component on and aligned with the plurality of conductive caps, and a second hardmask component on an aligned with regions of the uppermost surface of the ILD layer, the first and second hardmask components differing in composition from one another; and a conductive via in an opening in the hardmask layer and on a conductive cap of one of the plurality of conductive lines, wherein a portion of the conductive via is on a portion of the second hardmask component of the hardmask layer; and characterized by: a second ILD layer above the hardmask layer, wherein the conductive via is further in an opening of the second ILD layer; and wherein the opening of the second ILD layer has a width approximately equal to 3⁄4 pitch of the plurality of conductive lines. a plurality of conductive lines in an inter-layer dielectric layer above a substrate, wherein each of the plurality of conductive lines is recessed relative to an uppermost surface of the ILD layer; a plurality of conductive caps on corresponding ones of the plurality of conductive lines, in recess regions above each of the plurality of conductive lines; a hardmask layer on the plurality of conductive caps and on the uppermost surface of the ILD layer, the hardmask layer comprising a first hardmask component on and aligned with the plurality of conductive caps, and a second hardmask component on an aligned with regions of the uppermost surface of the ILD layer, the first and second hardmask components differing in composition from one another; and a conductive via in an opening in the hardmask layer and on a conductive cap of one of the plurality of conductive lines, wherein a portion of the conductive via is on a portion of the second hardmask component of the hardmask layer; and characterized by: a second ILD layer above the hardmask layer, wherein the conductive via is further in an opening of the second ILD layer; and wherein the opening of the second ILD layer has a width approximately equal to 3⁄4 pitch of the plurality of conductive lines.
A plastic container (10, 20) comprising: a bag body which is formed into a bag shape by a sheet member and has a storage part on the inside thereof; and a tubular port member attached to said bag body, in which one end of the tubular port member communicates with the storage part and an opening part of the other end is exposed outside of the bag body, wherein said sheet member is formed from two or more layers including a base resin layer and an innermost layer, and said innermost layer is formed from an amorphous polymer, as a main component, formed by polymerizing at least one type or two or more types of olefin monomers, in which at least one type of said olefin monomers is a monomer having a cyclic hydrocarbon skeleton, and said port member is formed from a resin having a crystalline polyolefin having no cyclic hydrocarbon skeleton, as a main component, wherein a material of said innermost layer is a cycloolefin copolymer or a cycloolefin polymer, and said crystalline polyolefin for a material of said port member is selected from one or more types of polyethylene, polypropylene, and ethylene/alpha-olefin copolymer, characterized in that a relationship between a content contact area S B (cm 2) of said bag body and a content contact area S P (cm 2) of said port member satisfies the following (Expression 1): 0.01 ≤ S P / S B ≤ 0.15. wherein said sheet member is formed from two or more layers including a base resin layer and an innermost layer, and said innermost layer is formed from an amorphous polymer, as a main component, formed by polymerizing at least one type or two or more types of olefin monomers, in which at least one type of said olefin monomers is a monomer having a cyclic hydrocarbon skeleton, and said port member is formed from a resin having a crystalline polyolefin having no cyclic hydrocarbon skeleton, as a main component, wherein a material of said innermost layer is a cycloolefin copolymer or a cycloolefin polymer, and said crystalline polyolefin for a material of said port member is selected from one or more types of polyethylene, polypropylene, and ethylene/alpha-olefin copolymer, characterized in that a relationship between a content contact area S B (cm 2) of said bag body and a content contact area S P (cm 2) of said port member satisfies the following (Expression 1): 0.01 ≤ S P / S B ≤ 0.15.
An orthopaedic fixation plate system, comprising: a fixation plate including a bone contacting surface and an opposite surface, and a hole extending between the surfaces, the hole being spherically curved between the surfaces and the system further comprising: a polyaxial bushing provided in the hole; and a removable guide coupled in the polyaxial bushing, the guide having a top portion, a bottom portion, and a central passageway, characterised in that the guide has a length of not more than about 25 mm (1 inch), and in that the polyaxial bushing can be locked in a fixed orientation relative to the plate. a fixation plate including a bone contacting surface and an opposite surface, and a hole extending between the surfaces, the hole being spherically curved between the surfaces and the system further comprising: a polyaxial bushing provided in the hole; and a removable guide coupled in the polyaxial bushing, the guide having a top portion, a bottom portion, and a central passageway, characterised in that the guide has a length of not more than about 25 mm (1 inch), and in that the polyaxial bushing can be locked in a fixed orientation relative to the plate. a polyaxial bushing provided in the hole; and a removable guide coupled in the polyaxial bushing, the guide having a top portion, a bottom portion, and a central passageway, characterised in that the guide has a length of not more than about 25 mm (1 inch), and in that the polyaxial bushing can be locked in a fixed orientation relative to the plate.
A laminated porous film for a separator comprising: a layer A consisting of a porous layer containing polypropylene resin at not less than 50 mass% and a β crystal nucleating agent; and a layer B consisting of a porous layer containing polyethylene resin at not less than 50 mass%; and having β activity, wherein an electric resistance at 25°C is not more than 10Ω; and an electric resistance after said laminated porous film is heated at 135°C for 5 seconds is not less than 100Ω or/and an air permeability at 25°C is not more than 1000 seconds/100ml; and an air permeability after said laminated porous film is heated at 135°C for 5 seconds is not less than 10000 seconds/100ml. a layer A consisting of a porous layer containing polypropylene resin at not less than 50 mass% and a β crystal nucleating agent; and a layer B consisting of a porous layer containing polyethylene resin at not less than 50 mass%; and having β activity, wherein an electric resistance at 25°C is not more than 10Ω; and an electric resistance after said laminated porous film is heated at 135°C for 5 seconds is not less than 100Ω or/and an air permeability at 25°C is not more than 1000 seconds/100ml; and an air permeability after said laminated porous film is heated at 135°C for 5 seconds is not less than 10000 seconds/100ml.
A dental article comprising at least one segment defining a complex three-dimensional shape configured to follow contours of an oral anatomy, wherein the at least one segment comprises a core component, wherein the core component comprises a majority of parylene.