mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: selectively growing carbon nanotubes via a Chemical Vapor Deposition process, comprising: aligning an electrical field in a first direction for a first set of carbon nanotubes; heating the first set of carbon nanotubes above a threshold temperature to trigger parallel growth of the first set of carbon nanotubes in the first direction via CVD; and repeatedly varying the first direction by adjusting the electrical field, causing the first set of carbon nanotubes to interweave into a second set of carbon nanotubes as growth continues (308, 310); wherein each set of carbon nanotubes comprises a different chirality of nanotube, wherein a plurality of catalysts are configured to facilitate carbon nanotube growth via said Chemical Vapor Deposition process, each catalyst corresponding with a different chirality of carbon nanotube; and wherein the method further comprises: heating the first set of carbon nanotubes by: identifying a photoluminescence frequency of light for the first set of carbon nanotubes; identifying an excitation frequency of light for the first set of carbon nanotubes; and applying light at both the excitation frequency and the photoluminescence frequency to the first set of carbon nanotubes. aligning an electrical field in a first direction for a first set of carbon nanotubes; heating the first set of carbon nanotubes above a threshold temperature to trigger parallel growth of the first set of carbon nanotubes in the first direction via CVD; and repeatedly varying the first direction by adjusting the electrical field, causing the first set of carbon nanotubes to interweave into a second set of carbon nanotubes as growth continues (308, 310); wherein each set of carbon nanotubes comprises a different chirality of nanotube, wherein a plurality of catalysts are configured to facilitate carbon nanotube growth via said Chemical Vapor Deposition process, each catalyst corresponding with a different chirality of carbon nanotube; and wherein the method further comprises: heating the first set of carbon nanotubes by: identifying a photoluminescence frequency of light for the first set of carbon nanotubes; identifying an excitation frequency of light for the first set of carbon nanotubes; and applying light at both the excitation frequency and the photoluminescence frequency to the first set of carbon nanotubes. identifying a photoluminescence frequency of light for the first set of carbon nanotubes; identifying an excitation frequency of light for the first set of carbon nanotubes; and applying light at both the excitation frequency and the photoluminescence frequency to the first set of carbon nanotubes.
A packaged product comprising: a packaging having a closed end and a peripheral wall extending from said closed end to an open neck, said peripheral wall having an interior surface comprising a material selected from the group consisting of polyethylene terephthalate, polypropylene, and mixtures thereof; and a liquid fabric softener composition contained in said packaging and in contact with said material, wherein said fabric softening composition comprises a quaternary ammonium ester softening active at a level of from 3% to 25%, dispersed perfume at a level of from 0.1% to 5.0%, and cellulose fibers at a level of from 0.01% to 5.0 %, by weight of the composition. a packaging having a closed end and a peripheral wall extending from said closed end to an open neck, said peripheral wall having an interior surface comprising a material selected from the group consisting of polyethylene terephthalate, polypropylene, and mixtures thereof; and a liquid fabric softener composition contained in said packaging and in contact with said material, wherein said fabric softening composition comprises a quaternary ammonium ester softening active at a level of from 3% to 25%, dispersed perfume at a level of from 0.1% to 5.0%, and cellulose fibers at a level of from 0.01% to 5.0 %, by weight of the composition.
Monopole wire-plate antenna that is reconfigurable in a frequency range of operation, comprising: - a ground plane; - a capacitive roof; - a probe feed, which is electrically insulated from the ground plane, and which extends between the ground plane and the capacitive roof so as to electrically feed the capacitive roof; - at least one shorting wire, which is arranged to electrically connect the capacitive roof to the ground plane, and which is coated in a magneto-dielectric material; characterized in that: - applying means are arranged to apply a static magnetic field to the magneto-dielectric material with a strength lower than or equal to 400 A.m -1; - the magneto-dielectric material has a complex magnetic permeability, which varies as a function of the static magnetic field applied to the magneto-dielectric material. - a ground plane; - a capacitive roof; - a probe feed, which is electrically insulated from the ground plane, and which extends between the ground plane and the capacitive roof so as to electrically feed the capacitive roof; - at least one shorting wire, which is arranged to electrically connect the capacitive roof to the ground plane, and which is coated in a magneto-dielectric material; - applying means are arranged to apply a static magnetic field to the magneto-dielectric material with a strength lower than or equal to 400 A.m -1; - the magneto-dielectric material has a complex magnetic permeability, which varies as a function of the static magnetic field applied to the magneto-dielectric material.
Base of outside mirror for front door of motor vehicle, including: - a body with o an extended portion capable of being fixed to an area generally vertical of the door of the vehicle, and o a bracket portion of the rearview mirror; - a cover intended to cover the body, the cover forms a visible part of the rearview mirror; characterized as cover consists of a lower portion and an upper portion, the upper portion consisting of an inner face intended to be opposite the extended portion of the body and including means of fastening per tightening capable of co-operating with at least one fastening screw passing through that extended portion) of the body. - a body with o an extended portion capable of being fixed to an area generally vertical of the door of the vehicle, and o a bracket portion of the rearview mirror; o an extended portion capable of being fixed to an area generally vertical of the door of the vehicle, and o a bracket portion of the rearview mirror; - a cover intended to cover the body, the cover forms a visible part of the rearview mirror;
A method for cleaning contaminating silicon dioxide, SiO 2, from turbine blades, said method being carried out in a dry vacuum process that takes place at elevated temperature inside a high-vacuum furnace and in which at least some of the silicon dioxide on the turbine blades that are to be cleaned is removed by means of a gas with reducing action, characterised in that the silicon dioxide, SiO 2, to be removed is reduced selectively to the silicon monoxide, SiO, stage by the gas with reducing action consisting of hydrogen gas, H 2, or carbon monoxide, CO, which contains a minimum quantity of H 2 O or CO 2, respectively, and is then vaporised in a vacuum and pumped out in gas form, wherein the dwell time of the turbine blades in the high-vacuum furnace is selected up to the time when the SiO concentration drops significantly.
External part element for a timepiece, comprising: - a frame provided with at least two housings; - a decorative element housed at least partially in one of the housings; - a locking system (19, 21) arranged to hold said decorative element in one of the housings; characterized in that said decorative element comprises a first body linked to a second body via at least one elastic link element, each body being situated in a corresponding housing. - a frame provided with at least two housings; - a decorative element housed at least partially in one of the housings; - a locking system (19, 21) arranged to hold said decorative element in one of the housings;
Hand valve for a fluid, in particular water, wherein the hand valve has an actuating element which can be pivoted along an actuating direction from a closing position into an open position about a pivot point, wherein a valve element for opening the hand valve is movable, in particular linearly displaceable, along an opening direction (Ö) between a locking position of the valve element corresponding to the closing position of the actuating element and a release position of the valve element corresponding to the open position of the actuating element, and wherein the hand valve has a resetting apparatus which is designed to move the actuating element in the opposite direction to the actuating direction, wherein the resetting apparatus is designed to move the actuating element beyond the closing position in the opposite direction to the actuating direction into an end position, characterized in that the resetting apparatus has a resetting device which has a guide surface, wherein the guide surface acts on a contact point on the actuating element, and wherein the angle of inclination of the guide surface with respect to a connecting line between the pivot point and the contact point decreases, starting from the open position of the actuating element, in the opposite direction to the actuating direction.
A method of probing a network between a probe node and a destination node, wherein the network comprises - a further node, wherein the further node is an end point; - a connection between the probe node and the destination node; - a connection between the probe node and the further node; - and a connection between the further node and the destination node; the method comprising: - selecting the probe node or the destination node to be a redirecting node, which redirecting node comprises routing rules to be applied to non-probing data traffic, and bypassing the routing rules by accessing further routing rules that are applied to a probe packet (205, 206, 207, 208); - selecting the further node to be a forwarding node and ensuring packet forwarding at the forwarding node; and - transmitting the probe packet (205, 206, 207, 208) between the probe node and the destination node, wherein the further routing rules cause the probe packet (205, 206, 207, 208) to travel between the probe node and the destination node via the forwarding node. - a further node, wherein the further node is an end point; - a connection between the probe node and the destination node; - a connection between the probe node and the further node; - and a connection between the further node and the destination node; - selecting the probe node or the destination node to be a redirecting node, which redirecting node comprises routing rules to be applied to non-probing data traffic, and bypassing the routing rules by accessing further routing rules that are applied to a probe packet (205, 206, 207, 208); - selecting the further node to be a forwarding node and ensuring packet forwarding at the forwarding node; and - transmitting the probe packet (205, 206, 207, 208) between the probe node and the destination node, wherein the further routing rules cause the probe packet (205, 206, 207, 208) to travel between the probe node and the destination node via the forwarding node.
A method, implemented by a processor, the method comprising: receiving, by the processor, sensor data related to a physical asset; obtaining, by the processor, at least a stored model of the physical asset from a data storage device, said stored model being based on data received from one or more sensors embedded or integrated with the physical asset; generating, by the processor, a visualization representation of the physical asset based on an integration of the sensor data related to the physical asset and the stored model of the physical asset; presenting, by the processor in a shared virtual workspace accessible by a first user entity and at least one second user entity located remotely from the first user entity, the virtualization representation of the physical asset; annotating the visualization representation with text-based comments and/or markings generated in the shared virtual workspace in response to commands and instructions of the second user entity; characterised by transmitting the annotations to a field location containing the physical asset; projecting the annotations onto the physical asset. receiving, by the processor, sensor data related to a physical asset; obtaining, by the processor, at least a stored model of the physical asset from a data storage device, said stored model being based on data received from one or more sensors embedded or integrated with the physical asset; generating, by the processor, a visualization representation of the physical asset based on an integration of the sensor data related to the physical asset and the stored model of the physical asset; presenting, by the processor in a shared virtual workspace accessible by a first user entity and at least one second user entity located remotely from the first user entity, the virtualization representation of the physical asset; annotating the visualization representation with text-based comments and/or markings generated in the shared virtual workspace in response to commands and instructions of the second user entity; characterised by transmitting the annotations to a field location containing the physical asset; projecting the annotations onto the physical asset.
A method for correcting vertical position defects of a track after a lifting-tamping process, with a stabilizing process carried out by means of a dynamic track stabilizer in which a stabilizing unit acts on the track at a forward-moving working point in a working direction, with track position data of the untreated track being recorded before the lifting-tamping process, and with track position data of the tamped track being recorded after the lifting-tamping process at a measuring point located in front of the stabilizing unit in the working direction, characterized in that additional track position data of the stabilized, lowered track are recorded outside the sphere of influence of the stabilizing unit at a post-measuring point located behind the stabilizing unit in the working direction, and that the dynamic track stabilizer is actuated during the stabilizing process as a function of track position data of the untreated and the tamped track at the working point and of track position data of the stabilized, lowered track at the post-measuring point, that a track position measuring system comprising a plurality of measuring devices is carried along with the dynamic track stabilizer, and that the corresponding track position with respect to a common reference system is recorded at the respective measuring point (10, 21) by means of the assigned measuring devices.
Mixing element for a static mixer, in particular a dental static mixer, for mixing low-to high-viscosity components, comprising a flat middle part extending along a longitudinal axis L and having a front side and a rear side opposite the front side, characterized in that at least two flow influencing elements (101A, 102A, 101B, 102B) are arranged on the front side and/or on the rear side of the middle part, each of the flow influencing elements (101A, 102A, 101B, 102B) enclosing at least one passage opening (101.1, 101.2, 102.1, 102.2) located in the middle part, characterized in that the flow-influencing elements (101A, 102A, 101B, 102B) having the form of prism shells standing substantially perpendicularly on the front side and/or the rear side, which overlap or are connected to one another in pairs at a respective side edge (1011A/1023A, 1011B/ 1023B). comprising a flat middle part extending along a longitudinal axis L and having a front side and a rear side opposite the front side, characterized in that at least two flow influencing elements (101A, 102A, 101B, 102B) are arranged on the front side and/or on the rear side of the middle part, each of the flow influencing elements (101A, 102A, 101B, 102B) enclosing at least one passage opening (101.1, 101.2, 102.1, 102.2) located in the middle part, characterized in that the flow-influencing elements (101A, 102A, 101B, 102B) having the form of prism shells standing substantially perpendicularly on the front side and/or the rear side, which overlap or are connected to one another in pairs at a respective side edge (1011A/1023A, 1011B/ 1023B).
Adaptor for a drug delivery device comprising at least a container for a product, said container comprising a distal tip and an axial passageway defined through said distal tip, said adaptor having a longitudinal axis A and being intended to be mounted on said distal tip, wherein said adaptor includes at least a first part and a second part, said first part being provided with attaching means able to attach said first part to said distal tip, said second part being provided with connecting means able to connect said second part to a connector, said adaptor further includes securing means (30, 31) for securing said first part to said second part, said second part being provided with at least one thread forming at least partially said connecting means, wherein at least one of said first part and second part is provided with at least one anchoring abutment, the other one of said second part and first part being provided with at least one anchoring hook, one of said anchoring abutment and said anchoring hook being elastically deformable to allow its engagement respectively with said anchoring hook or said anchoring abutment, said anchoring hook and said anchoring abutment being arranged to prevent, when engaged with each other, the longitudinal displacement of said first part and said second part apart from each other, said anchoring abutment and said anchoring hook forming at least part of said securing means, and characterized in that the anchoring hook is engageable in at least one traversing anchoring hole provided on the other one of the first part and second part.
A convertible anchor for friable walls, characterized in that it comprises a fixture for holding an article to a support and anchoring means being frangibly connected to and extending from said fixture, said anchoring means being rotatable about an axis thereof to engagingly extend into a friable wall for securing said fixture to the wall, said fixture being selectively separable from said anchoring means for allowing said fixture to be used alone with an appropriate fastener that mounts said fixture to a rigid structure.
A snow thrower comprising: a frame (14, 214); a prime mover supported by the frame (14, 214); a handle assembly coupled to the frame (14, 214), the handle assembly including a grip (40, 240) for an operator to grasp; an auger housing supported by the frame (14, 214); an auger blade rotationally coupled to and disposed within the auger housing; and a track drive system (18, 218) coupled to the frame (14, 214) to facilitate movement along a ground surface, the track drive system (18, 218) including a drive wheel (46, 246) rotatably driven by the prime mover, an idler wheel (58, 258) rotatably supported by the frame (14, 214), and a flexible track (62, 262) interconnecting the drive wheel (46, 246) and the idler wheel (58, 258), wherein the idler wheel (58, 258) is translatable relative to the frame (14, 214) to adjust an orientation of the auger housing relative to the ground surface, and characterized in that the idler wheel (58, 258) is moved away from the ground surface so that only a portion of the flexible track (62, 262) adjacent the drive wheel (46, 246) engages the ground surface, thereby allowing the snow thrower (10, 210) to be more easily turned or maneuvered about the drive wheel (46, 246). a frame (14, 214); a prime mover supported by the frame (14, 214); a handle assembly coupled to the frame (14, 214), the handle assembly including a grip (40, 240) for an operator to grasp; an auger housing supported by the frame (14, 214); an auger blade rotationally coupled to and disposed within the auger housing; and a track drive system (18, 218) coupled to the frame (14, 214) to facilitate movement along a ground surface, the track drive system (18, 218) including a drive wheel (46, 246) rotatably driven by the prime mover, an idler wheel (58, 258) rotatably supported by the frame (14, 214), and a flexible track (62, 262) interconnecting the drive wheel (46, 246) and the idler wheel (58, 258), a drive wheel (46, 246) rotatably driven by the prime mover, an idler wheel (58, 258) rotatably supported by the frame (14, 214), and a flexible track (62, 262) interconnecting the drive wheel (46, 246) and the idler wheel (58, 258), wherein the idler wheel (58, 258) is translatable relative to the frame (14, 214) to adjust an orientation of the auger housing relative to the ground surface, and characterized in that the idler wheel (58, 258) is moved away from the ground surface so that only a portion of the flexible track (62, 262) adjacent the drive wheel (46, 246) engages the ground surface, thereby allowing the snow thrower (10, 210) to be more easily turned or maneuvered about the drive wheel (46, 246).
A power converter system that receives an input supply voltage to power at least one load, comprising: at least one power converter that supplies uninterrupted power to the at least one load anytime the power converter is operating at a desired efficiency; a power storage system coupled to the at least one power converter for receiving power supplied from the at least one power converter and storing power therein when the at least one power converter operates at an efficiency that is below the desired efficiency while the power converter system receives uninterrupted input supply voltage; and a controller that turns on the power converter during a first time interval and turns off the power converter during a second time interval any time the at least one power converter receives the input supply voltage, wherein during the first time interval, the power converter operates at the desired efficiency to supply the power storage system and the at least one load, and wherein, during the second time interval when the at least one power converter is turned off, the power storage system supplies power to the at least one load, wherein the ratio of the first time interval and the second time interval is controlled to operate the power converter at the desired efficiency. at least one power converter that supplies uninterrupted power to the at least one load anytime the power converter is operating at a desired efficiency; a power storage system coupled to the at least one power converter for receiving power supplied from the at least one power converter and storing power therein when the at least one power converter operates at an efficiency that is below the desired efficiency while the power converter system receives uninterrupted input supply voltage; and a controller that turns on the power converter during a first time interval and turns off the power converter during a second time interval any time the at least one power converter receives the input supply voltage, wherein during the first time interval, the power converter operates at the desired efficiency to supply the power storage system and the at least one load, and wherein, during the second time interval when the at least one power converter is turned off, the power storage system supplies power to the at least one load, wherein the ratio of the first time interval and the second time interval is controlled to operate the power converter at the desired efficiency.