mhurhangee/ep-ind-claims huggingface dataset:
A switch system (200, 300, 400), comprising: a mechanical switch for switching electrical currents, comprising a closed state and an open state; an actuator, configured to change the state of the mechanical switch, wherein the actuator comprises a Thomson-coil system including a Thomson coil; characterised in that the mechanical switch and the Thomson coil are electrically connected in series. a mechanical switch for switching electrical currents, comprising a closed state and an open state; an actuator, configured to change the state of the mechanical switch, wherein the actuator comprises a Thomson-coil system including a Thomson coil; characterised in that the mechanical switch and the Thomson coil are electrically connected in series.
A communications device connection method, applied to a terminal device, and the method comprising: acquiring an image identifier of a communications device, sending the image identifier to a server side, and receiving characteristic information of at least one dimension for a device type of the communications device, characterised by: the characteristic information being returned by the server side based on the image identifier; detecting connection information sent by at least one communications device, obtaining a device identifier of the at least one communications device by parsing the connection information, and obtaining to-be-matched characteristic information of at least one dimension for a type of the registered at least one communications device from the server side based on the device identifier; comparing the characteristic information of the at least one dimension for the device type of the communications device with the to-be-matched characteristic information of the at least one dimension for the type of the registered at least one communications device, and selecting a target communications device from the at least one communications device based on a comparison result; and binding to and establishing a communications connection to the target communications device. the characteristic information being returned by the server side based on the image identifier; detecting connection information sent by at least one communications device, obtaining a device identifier of the at least one communications device by parsing the connection information, and obtaining to-be-matched characteristic information of at least one dimension for a type of the registered at least one communications device from the server side based on the device identifier; comparing the characteristic information of the at least one dimension for the device type of the communications device with the to-be-matched characteristic information of the at least one dimension for the type of the registered at least one communications device, and selecting a target communications device from the at least one communications device based on a comparison result; and binding to and establishing a communications connection to the target communications device.
Electrically insulating mat comprising one or more layers of dielectric material, characterised in that it comprises an intermediate layer that reinforces against puncture and in that the intermediate layer is made of a weft material.
A computer-implemented method for training a neural network for use in optimizing a geometry of a physical structure with respect to at least one performance metric, wherein the physical structure is a part of an electrical machine, and wherein the at least one performance metric comprises electrical loads associated with the electrical machine, the method comprising: - providing training data comprising a plurality of training instances representing different geometries of the physical structure, each training instance comprising: - a pictorial representation (60-62, 70, 80, 90, 91) of a respective geometry of the physical structure, wherein the pictorial representation comprises one or more 2D raster images comprised of pixels or a 3D volumetric image comprised of voxels; - a value of at least one performance metric which is associated with the respective geometry of the physical structure; - providing a neural network (100, 101) comprising a plurality of convolutional layers (C1-C5) for receiving a respective pictorial representation of the training data as input and a plurality of dense layers (D1-D3) for generating an output of the neural network, wherein the output of the neural network comprises the at least one performance metric; and - training the neural network using the training data to obtain a trained neural network which is arranged to infer a value of the at least one performance metric from a pictorial representation of a geometry of the physical structure. - providing training data comprising a plurality of training instances representing different geometries of the physical structure, each training instance comprising: - a pictorial representation (60-62, 70, 80, 90, 91) of a respective geometry of the physical structure, wherein the pictorial representation comprises one or more 2D raster images comprised of pixels or a 3D volumetric image comprised of voxels; - a value of at least one performance metric which is associated with the respective geometry of the physical structure; - a pictorial representation (60-62, 70, 80, 90, 91) of a respective geometry of the physical structure, wherein the pictorial representation comprises one or more 2D raster images comprised of pixels or a 3D volumetric image comprised of voxels; - a value of at least one performance metric which is associated with the respective geometry of the physical structure; - providing a neural network (100, 101) comprising a plurality of convolutional layers (C1-C5) for receiving a respective pictorial representation of the training data as input and a plurality of dense layers (D1-D3) for generating an output of the neural network, wherein the output of the neural network comprises the at least one performance metric; and - training the neural network using the training data to obtain a trained neural network which is arranged to infer a value of the at least one performance metric from a pictorial representation of a geometry of the physical structure.
A data access method, used in a first computing device and a network interface card, wherein the network interface card is configured in the first computing device, or is connected to the first computing device by using a bus; wherein the first computing device is connected to a host and a second computing device; and wherein the first computing device is connected to a storage pool through the network interface card; and the method comprises: receiving, by the first computing device, a second write operation command sent by the second computing device, wherein the second write operation command is obtained after the second computing device preprocesses a first write operation command generated by the host, and the first write operation command is used to write to-be-written data into the storage pool; performing, by the first computing device, a data processing operation on the to-be-written data according to the second write operation command; and writing, by the network interface card, processed to-be-written data into the storage pool. receiving, by the first computing device, a second write operation command sent by the second computing device, wherein the second write operation command is obtained after the second computing device preprocesses a first write operation command generated by the host, and the first write operation command is used to write to-be-written data into the storage pool; performing, by the first computing device, a data processing operation on the to-be-written data according to the second write operation command; and writing, by the network interface card, processed to-be-written data into the storage pool.
Cable, comprising a first thimble and a second thimble, and at least one main yarn, wherein the main yarn comprises fibres of a first type, the first thimble and the second thimble are provided at opposite ends of the cable, the main yarn extends from the first thimble to the second thimble, turns around the second thimble, extends from the second thimble to the first thimble, and turns around the first thimble, such that the main yarn forms turns around the first and second thimbles (2, 4), and each thimble (2, 4) comprises a bearing surface, and holds a stack of layers of turns of the main yarn, characterised in that the cable comprises fibres of a second type, wherein the second type is different from the first type, a stack comprising at least a first layer of the fibres of the second type, or a sheet made of the fibres of the second type, lies on the bearing surface of at least one of the first and second thimbles (2, 4), and the stack of layers of turns of the main yarn is located on top of the stack of the fibres of the second type, or on top of the sheet made of the fibres of the second type. the main yarn comprises fibres of a first type, the first thimble and the second thimble are provided at opposite ends of the cable, the main yarn extends from the first thimble to the second thimble, turns around the second thimble, extends from the second thimble to the first thimble, and turns around the first thimble, such that the main yarn forms turns around the first and second thimbles (2, 4), and each thimble (2, 4) comprises a bearing surface, and holds a stack of layers of turns of the main yarn, characterised in that the cable comprises fibres of a second type, wherein the second type is different from the first type, a stack comprising at least a first layer of the fibres of the second type, or a sheet made of the fibres of the second type, lies on the bearing surface of at least one of the first and second thimbles (2, 4), and the stack of layers of turns of the main yarn is located on top of the stack of the fibres of the second type, or on top of the sheet made of the fibres of the second type.
A method for identifying a particular one network lighting device from a network including a plurality of network lighting devices, each network lighting device including a unique associated network ID used in addressing the network lighting device over the network, comprising: a) exchanging wirelessly a plurality of disambiguation data between a portable configurator and a set of network lighting devices from the plurality of network lighting devices in communication range of said portable configurator, said set of network lighting devices including the particular one network lighting device; and b) determining automatically using said portable configurator a map of said set of network lighting devices, said map identifying, for each network lighting device of said set of network lighting devices, both a distance between said portable configurator and said unique associated network ID, said method being further characterized in that it comprises: c) addressing individually and sequentially one or more network lighting devices in a subset of said set of network lighting devices using said map to select candidate network IDs until said unique associated network ID of the particular one network lighting device is used to address the particular one network lighting device. a) exchanging wirelessly a plurality of disambiguation data between a portable configurator and a set of network lighting devices from the plurality of network lighting devices in communication range of said portable configurator, said set of network lighting devices including the particular one network lighting device; and b) determining automatically using said portable configurator a map of said set of network lighting devices, said map identifying, for each network lighting device of said set of network lighting devices, both a distance between said portable configurator and said unique associated network ID, said method being further characterized in that it comprises: c) addressing individually and sequentially one or more network lighting devices in a subset of said set of network lighting devices using said map to select candidate network IDs until said unique associated network ID of the particular one network lighting device is used to address the particular one network lighting device. c) addressing individually and sequentially one or more network lighting devices in a subset of said set of network lighting devices using said map to select candidate network IDs until said unique associated network ID of the particular one network lighting device is used to address the particular one network lighting device.
A method for constructing a wind energy plant having a tower which is based on a foundation, and also an electrical power module essentially consisting of a transformer and optionally an inverter or other electrical devices, such as switchgear cabinets, which is intended for controlling the wind energy plant and/or for passing on the electrical power which is made available by the generator of the wind energy plant and is fed into a grid system, wherein the power module is mounted on the tower foundation prior to construction of the tower, and the width and/or length of the power module are/is less than the diameter of the tower of the wind energy plant in the foundation area, wherein the power modules as far as possible are prefabricated and are mounted on supports, so that the power modules can be placed on the tower foundation by a crane, which is required for constructing a wind energy plant anyway, in particular the laying of cables and the entire commissioning of the wind energy plant by setting individual control modules, installing the switchgear cabinets etc. can take place in a protected space and these activities can be commenced once the tower has been constructed, and wherein the power module has a support, characterised in that the support of the power module has supporting feet which rest on plates which are set in in certain positions already during finishing of the foundation and are fixed with the foundation, and the plates being held by holding arms during finishing of the foundation and the holding arms being dismantled once the concrete of the foundation has set and the power module being in a two-part embodiment, it being possible for the power module to consist of further parts, the two parts of the power module being placed one above the other, the wind energy plant having a rated output which is in the region of 1.5 MW or significantly more, and the power module apart from the transformer having in particular units such as inverters or emergency current switches and medium-voltage cabinets or alternatively the low-voltage distributors.
Conductive composite material comprising an interconnected network of conductive particles, said conductive particles comprise a core made of organic material coated with at least one layer of a thermally and/or electrically conductive material, characterised in that said core made of organic material is a thermoplastic material chosen from the polyethylenes, the polypropylenes, the polyether ether ketones (PEEK), the polyether ketone ketones (PEKK), the polyvinyl chlorides, the polyvinylidene fluorides (PVDF), the polytetrafluoroethylenes (PTFE), the silicones, said core made of organic material has a particle size between 5μm and 300μm, and in that said conductive material is silver or a mixed compound containing tin, all the particles are interconnected in the internal structure of said conductive composite material, thus forming a three-dimensional continuous network of conductive material, and in that the mass proportion of the conductive coating element of said conductive composite material represents between 1% and 30% by weight of the total weight of the conductive composite material.
Alpha-MSH analogue compound that is a derivative of alpha-MSH which exhibits agonist activity for the melanocortin-1 receptor (MC1R), the receptor to which alpha-MSH binds to initiate the production of melanin within a melanocyte, wherein the alpha-MSH analogue comprises a quaternary ammonium group in the backbone attached to the N-terminal end and wherein the alpha-MSH analogue is a hexapeptide.
An epicyclic gear piston machine having an epicyclic gear and a lever system, wherein the axis of rotation and the lever axis are centrically mounted characterized in that the epicyclic gear comprises two gear wheels (3, 6) in the center, around which at least two further gear wheels (4, 5, 4', 5') revolve on a defined circular path with a constant diameter, wherein the aforementioned gear wheels (3, 4, 5, 6, 4', 5') are each, as two pairs, the same size and elliptically formed, and wherein the revolving gear wheels (4, 5, 4', 5') are rigidly connected to each other such that, between the gear wheels (3, 6) in the center and the revolving gear wheels (4, 5, 4', 5'), a constant axis distance results as a sum of the larger and the smaller half-diameter of the gear wheels (3, 4, 5, 6, 4', 5'), and wherein, further, a gear wheel is held rigidly in the center on the central axis (3, 6), whereas the second gear wheel can turn on the axis (3, 6) but is axially connected to the tilting axis of at least one lever such that the epicyclic gear, by means of a relative movement transferred to the axis of rotation of the lever, generates an oscillating movement of the lever which, with an attached pull- -push rod, can linearly move a working piston in a sleeve. the epicyclic gear comprises two gear wheels (3, 6) in the center, around which at least two further gear wheels (4, 5, 4', 5') revolve on a defined circular path with a constant diameter, wherein the aforementioned gear wheels (3, 4, 5, 6, 4', 5') are each, as two pairs, the same size and elliptically formed, and wherein the revolving gear wheels (4, 5, 4', 5') are rigidly connected to each other such that, between the gear wheels (3, 6) in the center and the revolving gear wheels (4, 5, 4', 5'), a constant axis distance results as a sum of the larger and the smaller half-diameter of the gear wheels (3, 4, 5, 6, 4', 5'), and wherein, further, a gear wheel is held rigidly in the center on the central axis (3, 6), whereas the second gear wheel can turn on the axis (3, 6) but is axially connected to the tilting axis of at least one lever such that the epicyclic gear, by means of a relative movement transferred to the axis of rotation of the lever, generates an oscillating movement of the lever which, with an attached pull- -push rod, can linearly move a working piston in a sleeve.
A power and/or telecommunications cable comprising at least one conductive element surrounded by at least one insulating and/or protective cross-linked polymer layer, said cross-linked polymer layer being obtained from a silicone rubber composition resulting from the cross-linking, by an organic peroxide under the action of heat, of a cross-linkable composition comprising at least one cross-linkable silicone polymer, at least one inorganic filler, at least one platinum- and magnesium oxide-based compound, characterized in that within said cross-linkable composition the amount of inorganic filler is 50 % by weight or less and the amount of magnesium oxide (MgO) varies from 1 to 3 weight % inclusive, said percentages being expressed relative to the total weight of said cross-linkable composition.
A gear drive comprising: a motor having a motor output shaft; and a gearing operatively coupled to the motor; wherein the gearing includes: a face gear having a toothed ridge engaging the motor output shaft, and a central sun gear; and planetary gears (36, 38, 40) engaging the sun gear; and wherein the motor output shaft defines a motor output shaft axis about which the motor output shaft rotates; and wherein the motor shaft output axis intersects the sun gear, with the motor output shaft axis substantially perpendicular to a sun gear shaft axis of the sun gear; and wherein the motor output shaft axis also intersects a volume swept out by the planetary gears as the planetary gears rotate about the sun gear. a motor having a motor output shaft; and a gearing operatively coupled to the motor; wherein the gearing includes: a face gear having a toothed ridge engaging the motor output shaft, and a central sun gear; and planetary gears (36, 38, 40) engaging the sun gear; and a face gear having a toothed ridge engaging the motor output shaft, and a central sun gear; and planetary gears (36, 38, 40) engaging the sun gear; and wherein the motor output shaft defines a motor output shaft axis about which the motor output shaft rotates; and wherein the motor shaft output axis intersects the sun gear, with the motor output shaft axis substantially perpendicular to a sun gear shaft axis of the sun gear; and wherein the motor output shaft axis also intersects a volume swept out by the planetary gears as the planetary gears rotate about the sun gear.
An apparatus, comprising: a flexible substrate comprising a base for one or more electronic devices (112, 122, 132); and one or more layers (120, 130) on the flexible substrate, wherein the one or more layers form components for the one or more electronic devices (112, 122, 132), wherein a top layer of the one or more layers (120, 130) is exposed to an environment around the apparatus and includes components to interact with the environment, wherein a second layer of the one or more layers comprises an inductive power coil configured to receive power for operating the one or more electronic devices, wherein the top layer of the one or more layers comprises one or more light emitting diodes, wherein the light emitting diodes are configured to receive power from the inductive power coil, wherein a first layer of the one or more layers comprises a wireless module, wherein the wireless module is coupled to the inductive power coil and to the light emitting diodes, wherein the wireless module is configured to receive commands to operate the light emitting didoes and to operate the light emitting diodes based, at least in part, on the received commands, and wherein, when a mobile phone is tapped on the apparatus, the power coil is configured to be energized by a battery of the mobile phone and to activate the wireless module, which is paired with the mobile phone to control the light emitting diodes. a flexible substrate comprising a base for one or more electronic devices (112, 122, 132); and one or more layers (120, 130) on the flexible substrate, wherein the one or more layers form components for the one or more electronic devices (112, 122, 132),
A separation device for a spacecraft or launcher, the separation device comprising an inner housing divided into at least two portions locked to each other by a locking device in a locking position and thereby hindering the at least two portions from separating, the locking device is engaging the inner housing by locking means and being arranged to move between a locking position and a releasing position, the separation device comprising an initiator comprising means for providing high pressure fluid to an expansion chamber when the separation device is switched from a locked state to a released state, wherein the high pressure fluid in the expansion chamber moves the locking device from the locking position to the releasing position when the separation device is switched from the locked state to the released state, characterized in that the separation device comprises a dampening arrangement arranged to attenuate a peak load when the separation device is switched from the locked state to the released state, wherein the dampening arrangement comprises a guiding means arranged to guide the locking device into a rotational movement when the locking device moves from the locking position to the releasing position, and wherein the guiding means comprises a spirally formed recess in the locking device arranged to cooperate with a protrusion arranged in a surrounding housing or wherein the guiding means is a spirally formed recess in the surrounding housing arranged to cooperate with a protrusion arranged in the locking device.