mhurhangee/ep-ind-claims huggingface dataset:
A method of controlling pitch of individual blades in a wind turbine, the method comprising: determining wind speed as a function of azimuthal angle; predicting wind speed for an individual blade over a prediction horizon using the determination of wind speed as a function of azimuthal angle; and determining in-plane forces and out-of-plane forces acting on the individual blade over the prediction horizon; and using the predicted wind speed, the in-plane forces and out-of-plane forces for each individual blade in a performance function, the performance function being a model predictive control function, and optimizing the performance function by performing a convex optimisation on the performance function; and controlling the pitch of individual blades of the wind turbine based on the optimized performance function. determining wind speed as a function of azimuthal angle; predicting wind speed for an individual blade over a prediction horizon using the determination of wind speed as a function of azimuthal angle; and determining in-plane forces and out-of-plane forces acting on the individual blade over the prediction horizon; and using the predicted wind speed, the in-plane forces and out-of-plane forces for each individual blade in a performance function, the performance function being a model predictive control function, and optimizing the performance function by performing a convex optimisation on the performance function; and controlling the pitch of individual blades of the wind turbine based on the optimized performance function.
A combustion grate for solid fuel combustion devices, comprising: - jet tubes arranged adjacent to one another and forming a grate portion, and - wherein the jet tubes reach into receiving elements with ends (2a, b) of the jet tubes, wherein the receiving elements are components of a support portion enveloping the grate portion, - wherein the jet tubes are connected with air supply channels (5a, b) in the receiving elements, - grate rods that are arranged adjacent to and off set from one another above the jet tubes and extend transversal to the jet tubes in top view, characterized in that the combustion grate includes spacers configured to change, in particular adjust an elevation offset between the jet tubes and the grate rods. - jet tubes arranged adjacent to one another and forming a grate portion, and - wherein the jet tubes reach into receiving elements with ends (2a, b) of the jet tubes, wherein the receiving elements are components of a support portion enveloping the grate portion, - wherein the jet tubes are connected with air supply channels (5a, b) in the receiving elements, - grate rods that are arranged adjacent to and off set from one another above the jet tubes and extend transversal to the jet tubes in top view,
Switching device suitable for direct current operation, comprising at least one contact pair (7, 8) having a first contact and a second contact, wherein at least one of the two contacts is movable, and the two contacts (9, 11) are in contact with each other in a switched-on state of the switching device and are not in contact with each other in a switched-off state of the switching device, an arc driver arrangement (16, 17) which generates a magnetic field at least in the region of the contact pair (7, 8), and a first arc guiding arrangement by means of which an arc produced between the contacts (9, 11) with a first current direction is guided to a quenching device for quenching the arc, wherein a second arc guiding arrangement is provided, by means of which an arc produced between the contacts (9, 11) with a second current direction, which is opposite the first current direction, is guided to said quenching device for quenching the arc, wherein the quenching device is constructed as a deionizing quenching chamber having a plurality of quenching plates which are electrically isolated from one another and arranged parallel to one another, characterised in that the first arc guiding arrangement and the second arc guiding arrangement are designed such that, independently of its current direction, the arc is deflected into the same quenching device due to the arc being guided along a rear side of a bridging contact member facing away from the first contact, wherein the arc is successively driven into gaps between the individual quenching plates.
An electrical connector for a safety restraint system, the connector comprising: a connector housing that can be plugged into a mating connector in a plug-in direction; at least two contact elements (6, 6'), which are electrically conductive, accommodated in said connector housing and designed to be brought into electrical contact with respective mating contact elements of the mating connector; and an activation member, which is movable relative to the connector housing in an activation direction, from a deactivation position, in which said at least two contact elements (6, 6') are electrically connected to one another, into an activation position, in which said at least two contact elements (6, 6') are not electrically connected to one another; wherein the connector further comprises a short-circuiting member, which is electrically conductive, provided on the activation member so as to connect said at least two contact elements (6, 6') to one another in the deactivation position; characterised in that said activation member comprises an actuation surface perpendicular to the plug-in direction when the activation member is preassembled on said connector housing; the plug-in direction corresponding to the activation direction, and further comprises a fitting area suitable for receiving said short-circuiting member in the activation direction. a connector housing that can be plugged into a mating connector in a plug-in direction; at least two contact elements (6, 6'), which are electrically conductive, accommodated in said connector housing and designed to be brought into electrical contact with respective mating contact elements of the mating connector; and an activation member, which is movable relative to the connector housing in an activation direction, from a deactivation position, in which said at least two contact elements (6, 6') are electrically connected to one another, into an activation position, in which said at least two contact elements (6, 6') are not electrically connected to one another; wherein the connector further comprises a short-circuiting member, which is electrically conductive, provided on the activation member so as to connect said at least two contact elements (6, 6') to one another in the deactivation position; characterised in that said activation member comprises an actuation surface perpendicular to the plug-in direction when the activation member is preassembled on said connector housing; the plug-in direction corresponding to the activation direction, and further comprises a fitting area suitable for receiving said short-circuiting member in the activation direction.
A print component comprising: a first column of fluidic actuating structures (FAS -(n)) addressable by a set of actuation addresses (A1-n), each fluidic actuating structure (FAS -(n)) having a different one of the actuation addresses (A1-n) and having a fluidic architecture type; and a second column of fluidic actuating structures (FAS -(n)) addressable by the set of actuation addresses (A1-n), each fluidic actuating structure (FAS -(n)) of the second column having a different one of the actuation addresses (A1-n) and having a same fluidic architecture type as the fluidic actuating structure (FAS -(n)) of the first column having the same address (A1-n), the first and second columns of actuating structures (FAS -(n)) each having a same number of column positions, each fluidic actuating structure (FAS -(n)) of the first and second columns disposed at a different one of the column positions, characterized in that the first and second columns are arranged to form first and second primitives respectively, each fluidic actuating structure (FAS -(n)) of the second column is offset by a same number of column positions from the fluidic actuating structure (FAS -(n)) of the first column having the same actuation address (A1-n), and address data representing the actuation addresses (A1-n) is communicated to the first and second primitives via an address bus shared by the first and second primitives. a first column of fluidic actuating structures (FAS -(n)) addressable by a set of actuation addresses (A1-n), each fluidic actuating structure (FAS -(n)) having a different one of the actuation addresses (A1-n) and having a fluidic architecture type; and a second column of fluidic actuating structures (FAS -(n)) addressable by the set of actuation addresses (A1-n), each fluidic actuating structure (FAS -(n)) of the second column having a different one of the actuation addresses (A1-n) and having a same fluidic architecture type as the fluidic actuating structure (FAS -(n)) of the first column having the same address (A1-n), the first and second columns of actuating structures (FAS -(n)) each having a same number of column positions, each fluidic actuating structure (FAS -(n)) of the first and second columns disposed at a different one of the column positions, characterized in that the first and second columns are arranged to form first and second primitives respectively, each fluidic actuating structure (FAS -(n)) of the second column is offset by a same number of column positions from the fluidic actuating structure (FAS -(n)) of the first column having the same actuation address (A1-n), and address data representing the actuation addresses (A1-n) is communicated to the first and second primitives via an address bus shared by the first and second primitives.
A profiled running rail for monorail overhead conveyors, which has an I-shaped design, comprising an upper flange and a lower flange forming running surfaces, the upper flange having on its upper side and/or the lower flange having on its lower side drive members for interaction with a driving machine which is guided on the lower flange and/or upper flange during operation, the upper flange and/or the lower flange having a U-shaped, in particular V-shaped cross-section, characterised in that - the upper flange and/or the lower flange has a recess (6b, 7b) of pocket-like cross-section with U legs (6a, 7a) arranged laterally of the recess (6b, 7b), and that - in a side view, the drive members protrude beyond the upper flange and/or the lower flange, and that - the drive members are arranged on a base rail which is connected to the U legs (6a, 7a) on both sides. - the upper flange and/or the lower flange has a recess (6b, 7b) of pocket-like cross-section with U legs (6a, 7a) arranged laterally of the recess (6b, 7b), and that - in a side view, the drive members protrude beyond the upper flange and/or the lower flange, and that - the drive members are arranged on a base rail which is connected to the U legs (6a, 7a) on both sides.
In vitro method for screening for subjects at risk of developing gestational diabetes mellitus, which comprises: (a) measuring the expression pattern or level of at least placental angiogenic peptide (PlGF) obtained from a gingival crevicular fluid sample of the subjects, preferably human subjects, to be screened; and (b) comparing said expression pattern or level of at least PlGF of the human subjects to be screened with an already established expression pattern or level, wherein overexpression of at least PlGF is indicative of gestational diabetes mellitus.
A method, performed in a digital home communication terminal DHCT, of assembling a multimedia transport stream from a layer-2 packet, the method characterized by the steps of: receiving, in kernel mode of a processor, a command from a video playback component executing in user mode on the processor; in response to the received command, processing on the processor, in kernel mode, layer-2 packets received through a binding to a network interface driver in order to assemble multimedia transport packets encapsulated within the received layer-2 packets into an MPEG elementary stream; and supplying the MPEG elementary stream to a decoder. receiving, in kernel mode of a processor, a command from a video playback component executing in user mode on the processor; in response to the received command, processing on the processor, in kernel mode, layer-2 packets received through a binding to a network interface driver in order to assemble multimedia transport packets encapsulated within the received layer-2 packets into an MPEG elementary stream; and supplying the MPEG elementary stream to a decoder.
A method performed in an initiating runtime for migrating an actor instance (5a1) of an actor to a target runtime, the method comprising: - obtaining, from a blockchain entity, an ownership token associated with the actor instance (5a1) of the actor, the ownership token being verifiable by a blockchain of the blockchain entity, and - using the ownership token for migrating the actor instance (5a1), wherein the using comprises: - initiating the migration of the actor instance (5a1) to the target runtime by sending, to the blockchain entity, a request for registering a transfer of the ownership token to the target runtime, - verifying, with the blockchain entity, that the transfer of the ownership token is registered, - migrating, upon successful verification, the actor instance (5a1) to the target runtime by transferring the actor instance (5a1) to the target runtime, wherein the verifying comprises: - providing to the blockchain entity, one or more conditions that the target runtime has to fulfil for registering the transfer, and - verifying with the blockchain entity that the target runtime fulfils each of the one or more conditions, and comprising, prior to the obtaining, sending one or more requests to the blockchain entity requesting an entry (6a, 6b) in the blockchain for each of the actor instances (5a1, 5a2), each of the one or more requests comprising a unique identification for a respective actor instance (5a1, 5a2) of the actor. - obtaining, from a blockchain entity, an ownership token associated with the actor instance (5a1) of the actor, the ownership token being verifiable by a blockchain of the blockchain entity, and - using the ownership token for migrating the actor instance (5a1), wherein the using comprises: - initiating the migration of the actor instance (5a1) to the target runtime by sending, to the blockchain entity, a request for registering a transfer of the ownership token to the target runtime, - verifying, with the blockchain entity, that the transfer of the ownership token is registered, - migrating, upon successful verification, the actor instance (5a1) to the target runtime by transferring the actor instance (5a1) to the target runtime, wherein the verifying comprises: - providing to the blockchain entity, one or more conditions that the target runtime has to fulfil for registering the transfer, and - verifying with the blockchain entity that the target runtime fulfils each of the one or more conditions,
Electronic beacon for localizing a physical intermediate product in a printed product production process comprising production modules for producing physical intermediate products and/or physical end products according to a digital print job for the printed product production process, wherein the electronic beacon is digitally assignable to the digital print job, placeable on top of, attachable to or insertable in a physical intermediate product resulting from the digital print job or a physical end product resulting from the digital print job, the electronic beacon comprising receiving means for receiving a localization request issued by a mobile device, signaling means for giving an electronic signal when the localization request is received by the receiving means, proximity determining means for determining if a mobile device is in the proximity of the electronic beacon in order to assign a digital print job to the mobile device or to the electronic beacon, and sending means for sending a de-assignment request for removing an assignment of the digital print job from the electronic beacon and for adding an assignment of said digital print job to a mobile device which is determined to be in the proximity of the electronic beacon by the proximity determining means, and for sending an assignment request for removing an assignment of the digital print job from a mobile device which is determined to be in the proximity of the electronic beacon by the proximity determining means, and for adding an assignment of said digital print job to the electronic beacon, operating means for deactivating the electronic beacon, wherein upon deactivation of the electronic beacon by the operating means the de-assignment request is sent by the sending means.
A method comprising: positioning a movement surface into an active position using a movement assembly configured to move a base relative to a workpiece, wherein the movement surface is on a face of the base, and wherein the movement assembly is configured to hold the base at any angle relative to the ground; driving a plurality of robots, each having a respective movement system, independently of each other and on and along the movement surface in any direction; and laying composite tape from the plurality of robots in a coordinated manner on the workpiece. positioning a movement surface into an active position using a movement assembly configured to move a base relative to a workpiece, wherein the movement surface is on a face of the base, and wherein the movement assembly is configured to hold the base at any angle relative to the ground; driving a plurality of robots, each having a respective movement system, independently of each other and on and along the movement surface in any direction; and laying composite tape from the plurality of robots in a coordinated manner on the workpiece.
A compressed air energy storage power generation device, comprising: a plurality of motors (3a-3c) driven by power generated using natural energy, the motors (3a-3c) being connected electrically in parallel to each other; a plurality of compressors (4a-4c) for compressing air, mechanically connected to the motors (3a-3c); at least two tanks (5a-5c) of different capacities for storing the air compressed by the compressors (4a-4c); a plurality of expanders (7a-7c) driven by the compressed air supplied from the tanks (5a-5c); a plurality of generators (9a-9c) mechanically connected to the expanders (7a-7c), the generators (9a-9c) being connected electrically in parallel to each other; and a control means performing control for leveling out both a long-period and short-period power variations caused in power generated by the natural energy by supplying the compressed air from the tank having a relatively large capacity to the expanders (7a-7c) to drive the generators (9a-9c) to cope with the long-period power variation and supplying the compressed air from the tank (5a, 5b) having a relatively small capacity to the expanders (7a-7c) to drive the generators (9a-9c) to cope with the short-period power variation, thereby outputting power according to power demand. a plurality of motors (3a-3c) driven by power generated using natural energy, the motors (3a-3c) being connected electrically in parallel to each other; a plurality of compressors (4a-4c) for compressing air, mechanically connected to the motors (3a-3c); at least two tanks (5a-5c) of different capacities for storing the air compressed by the compressors (4a-4c); a plurality of expanders (7a-7c) driven by the compressed air supplied from the tanks (5a-5c); a plurality of generators (9a-9c) mechanically connected to the expanders (7a-7c), the generators (9a-9c) being connected electrically in parallel to each other; and a control means performing control for leveling out both a long-period and short-period power variations caused in power generated by the natural energy by supplying the compressed air from the tank having a relatively large capacity to the expanders (7a-7c) to drive the generators (9a-9c) to cope with the long-period power variation and supplying the compressed air from the tank (5a, 5b) having a relatively small capacity to the expanders (7a-7c) to drive the generators (9a-9c) to cope with the short-period power variation, thereby outputting power according to power demand.
An impact-driven threaded nail including a threaded portion with a lead angle of about 45°, the threaded portion being formed along an outer circumference of a nail shank that has one end in the form of a pointed tip, and a head having a larger diameter than the nail shank, the head being integrally provided at the other end of the nail shank, wherein a portion of the head on a back-surface side in continuation with the nail shank is formed in a pyramidal shape with a diameter decreasing gradually toward the nail shank (2, characterized in that the pyramidal shape has a regular polygonal cross-section.
Tyre having a radial carcass reinforcement, consisting of at least one layer of metal reinforcing elements, the seat diameter of which is less than or equal to 19.5 inches, said tyre comprising a crown reinforcement, itself capped radially with a tread, said tread being joined to two beads via two sidewalls, wherein the metal reinforcing elements of said at least one layer of the carcass reinforcement are layered cords consisting of several steel threads having a weight content of carbon C such that 0.01% ≤ C < 0.4%, characterized in that said at least one carcass reinforcement layer having a breaking force per unit width of between 20 daN/mm and 50 daN/mm and in that the diameter of said cords is less than 0.7mm, the measurement of said breaking force is carried out under traction, according to standard ISO 6892 of 1984.
An artificial turf infill comprising an olive pit material (24, 26), characterized in that the artificial turf infill further comprises: - microporous zeolite particles, - wherein the olive pit material has a bimodal size distribution with a major mode and a minor mode, - wherein the major mode comprises rounded, thermally treated olive pit fragments and has a peak between 0.5 mm to 4.0 mm, more in particular 0.5 mm to 2.5 mm, and most in particular 0.5 mm to 2.0 mm, and - wherein the minor mode comprises olive pit particles of less than 63 μm in an amount of at least 0.5 wt% and has a peak at less than 63 μm. - microporous zeolite particles, - wherein the olive pit material has a bimodal size distribution with a major mode and a minor mode, - wherein the major mode comprises rounded, thermally treated olive pit fragments and has a peak between 0.5 mm to 4.0 mm, more in particular 0.5 mm to 2.5 mm, and most in particular 0.5 mm to 2.0 mm, and - wherein the minor mode comprises olive pit particles of less than 63 μm in an amount of at least 0.5 wt% and has a peak at less than 63 μm.