mhurhangee/ep-ind-claims huggingface dataset:
Method for enhancing an audio signal of a hearing device, comprising the steps of: - using a microphone (11, 11') of the hearing device to receive an environmental audio signal originating from an environment of a user listening to the hearing device, - wirelessly transmitting the environmental audio signal to a processing unit with a communications unit of the hearing device, - processing the environmental audio signal by means of the processing unit to enhance the environmental audio signal by suppressing noise and/or amplifying audio data, - wirelessly receiving the enhanced audio signal from the processing unit with a receiver of the communications unit, - outputting the enhanced audio signal to the user listening to the hearing device by means of a speaker of the hearing device, wherein the processing unit is arranged in a communications network, away from the hearing device, on an Internet server or on a server in a cloud computing network, wherein the processing unit is configured for receiving the environmental audio signal from the microphone of the hearing device via the communications unit and retransmitting the enhanced audio signal to the speaker of the hearing device via the communications unit over the communications network, characterized by - accessing a database, comprised by a storage unit arranged at the server, containing an optimal hearing profile associated with the user, wherein the processing unit is in communication with the storage unit comprising the database, the optimal hearing profile comprising information of the user's hearing range, and - taking into account the user's optimal hearing profile when processing the environmental audio signal into the enhanced audio signal, such that the noise suppression and/or audio data amplification are based, albeit partly, on the optimal hearing profile of the user. - using a microphone (11, 11') of the hearing device to receive an environmental audio signal originating from an environment of a user listening to the hearing device, - wirelessly transmitting the environmental audio signal to a processing unit with a communications unit of the hearing device, - processing the environmental audio signal by means of the processing unit to enhance the environmental audio signal by suppressing noise and/or amplifying audio data, - wirelessly receiving the enhanced audio signal from the processing unit with a receiver of the communications unit, - outputting the enhanced audio signal to the user listening to the hearing device by means of a speaker of the hearing device, - accessing a database, comprised by a storage unit arranged at the server, containing an optimal hearing profile associated with the user, wherein the processing unit is in communication with the storage unit comprising the database, the optimal hearing profile comprising information of the user's hearing range, and - taking into account the user's optimal hearing profile when processing the environmental audio signal into the enhanced audio signal, such that the noise suppression and/or audio data amplification are based, albeit partly, on the optimal hearing profile of the user.
A nickel oxide powder material to be used for an anode material constituting a solid oxide type fuel cell, characterized in that it comprises a core particle (a) composed of a nickel oxide fine particle and a coating layer (b) comprising a zirconium hydroxide, which is formed on the surface of the core particle (a), as its main component and that the zirconium content to be contained in the coating layer (b) is 0.001 to 0.01 g/m 2 per surface area of the nickel oxide fine particle, wherein the layer thickness of said coating layer (b) is 0.5 to 5 nm, and wherein the particle diameter of said core particle (a) is 0.1 to 5 μm in the median diameter D50.
A method for forming light olefins, the method comprising: introducing a hydrocarbon feed stream into a reactor; reacting the hydrocarbon feed stream with a dehydrogenation catalyst in the reactor to form a high temperature dehydrogenated product, the dehydrogenated product comprising at least a portion of the hydrocarbon feed stream that was not catalytically reacted; separating at least a portion of the dehydrogenation catalyst from the high temperature dehydrogenated product in a primary separation device, wherein the temperature of the dehydrogenated product and dehydrogenation catalyst in the primary separation device is at least 550°C; following the exit of high temperature dehydrogenation product from the primary separation device, combining the high temperature dehydrogenation product with a quench stream to cool the high temperature dehydrogenation product and form an intermediate temperature dehydrogenation product, wherein the quench stream is a gas stream, and wherein temperature of the intermediate temperature dehydrogenation product is at least 10°C less than the temperature of the high temperature dehydrogenation product, cooling the intermediate temperature dehydrogenation product to form a cooled dehydrogenation product, wherein a portion of the cooled dehydrogenation product is utilized as at least a portion of the quench stream. introducing a hydrocarbon feed stream into a reactor; reacting the hydrocarbon feed stream with a dehydrogenation catalyst in the reactor to form a high temperature dehydrogenated product, the dehydrogenated product comprising at least a portion of the hydrocarbon feed stream that was not catalytically reacted; separating at least a portion of the dehydrogenation catalyst from the high temperature dehydrogenated product in a primary separation device, wherein the temperature of the dehydrogenated product and dehydrogenation catalyst in the primary separation device is at least 550°C; following the exit of high temperature dehydrogenation product from the primary separation device, combining the high temperature dehydrogenation product with a quench stream to cool the high temperature dehydrogenation product and form an intermediate temperature dehydrogenation product, wherein the quench stream is a gas stream, and wherein temperature of the intermediate temperature dehydrogenation product is at least 10°C less than the temperature of the high temperature dehydrogenation product, cooling the intermediate temperature dehydrogenation product to form a cooled dehydrogenation product, wherein a portion of the cooled dehydrogenation product is utilized as at least a portion of the quench stream.
A method for anomaly management in a facility, the method comprising: monitoring the facility to detect one or more anomalies therein; determining, using a trained function, location information of a site of the detected one or more anomalies in the facility; navigating an autonomous vehicle to the site of the detected one or more anomalies in the facility in response to detection of the one or more anomalies therein, based on the determined location information of the site of the detected one or more anomalies in the facility; capturing, by the autonomous vehicle, information about the detected one or more anomalies in the facility at the site of the facility; and communicating the captured information about the detected one or more anomalies along with the determined location information of the site of the detected one or more anomalies in the facility, wherein monitoring the facility to detect the one or more anomalies comprises: capturing sound signals in the facility; and the method further comprises: filtering one or more ambient sound signals from the captured sound signals, using a dataset of the plurality of characteristic ambient sound signals, to provide filtered sound signals, wherein the dataset of the plurality of characteristic ambient sound signals includes multiple sound patterns which represent possible ambient sound patterns in the facility; identifying, by the trained function, one or more anomalous sound signals from the filtered sound signals; and detecting the one or more anomalies in the facility based on the identified one or more anomalous sound signals. monitoring the facility to detect one or more anomalies therein; determining, using a trained function, location information of a site of the detected one or more anomalies in the facility; navigating an autonomous vehicle to the site of the detected one or more anomalies in the facility in response to detection of the one or more anomalies therein, based on the determined location information of the site of the detected one or more anomalies in the facility; capturing, by the autonomous vehicle, information about the detected one or more anomalies in the facility at the site of the facility; and communicating the captured information about the detected one or more anomalies along with the determined location information of the site of the detected one or more anomalies in the facility, wherein monitoring the facility to detect the one or more anomalies comprises: capturing sound signals in the facility; filtering one or more ambient sound signals from the captured sound signals, using a dataset of the plurality of characteristic ambient sound signals, to provide filtered sound signals, wherein the dataset of the plurality of characteristic ambient sound signals includes multiple sound patterns which represent possible ambient sound patterns in the facility; identifying, by the trained function, one or more anomalous sound signals from the filtered sound signals; and detecting the one or more anomalies in the facility based on the identified one or more anomalous sound signals.
A container comprising: a container portion with an interior space in which articles to be transported can be stored; a lid pivotably connected to the container portion, wherein movement of the lid relative to the container portion between an opened and closed position permits and prevents access to the interior space; a latch arrangement constructed to secure the lid in covering relation with respect to the container portion; a hinge structure constructed to enable the lid to pivot relative to the container portion; characterized in that the container further comprises a support being constructed and arranged to engage a surface on which a bottom surface rests when the lid is in the opened position, so as to support the lid in the open position, the support being constructed and arranged to be positioned proximate to the container portion when the lid is in the closed position and movable to an extended position when the lid is in the open position, wherein manual force applied to the lid to generates pivotal movement of the lid from the closed position to the opened position is translated to the support during such pivotal movement of the lid so as to force the support from the position proximate to the container portion to the extended position. a container portion with an interior space in which articles to be transported can be stored; a lid pivotably connected to the container portion, wherein movement of the lid relative to the container portion between an opened and closed position permits and prevents access to the interior space; a latch arrangement constructed to secure the lid in covering relation with respect to the container portion; a hinge structure constructed to enable the lid to pivot relative to the container portion; characterized in that the container further comprises a support being constructed and arranged to engage a surface on which a bottom surface rests when the lid is in the opened position, so as to support the lid in the open position, the support being constructed and arranged to be positioned proximate to the container portion when the lid is in the closed position and movable to an extended position when the lid is in the open position, wherein manual force applied to the lid to generates pivotal movement of the lid from the closed position to the opened position is translated to the support during such pivotal movement of the lid so as to force the support from the position proximate to the container portion to the extended position.
Rail vehicle with at least a first car body and a second car body, wherein the rail vehicle has at least one connecting device for the first car body and the second car body of the rail vehicle by means of a chassis, wherein the first car body is connected to a first articulation device and the second car body to a second articulation device, wherein the first and the second articulation device are each connected to the chassis such that they can rotate, wherein the first and the second articulation device are not in direct contact with one another, and the first and the second car body rest on the chassis independently of one another, characterised in that the second articulation device is embodied as a spherical plain bearing.
A method of making a nanostructure, comprising: providing a substrate, where the substrate is a (co)polymeric material, an inorganic material, an alloy, a solid solution, or a combination thereof, wherein a (co)polymeric material is a material having a molecular weight of at least about 10,000 g/mole and including homopolymers and copolymers, as well as homopolymers and copolymers that are formed in a miscible blend; mixing a first gaseous species capable of depositing a layer onto the substrate when formed into a plasma, with a second gaseous species capable of etching the substrate when formed into a plasma, thereby forming a gaseous mixture; forming the gaseous mixture into a plasma; and exposing a surface of the substrate to the plasma, wherein the surface is etched and a layer is deposited on at least a portion of the etched surface simultaneously, thereby forming a nanostructure having features of diverse height and aspect ratio, wherein the first gaseous species comprises a compound selected from the group consisting of organosilicon compounds, metal alkyl compounds, metal isopropoxide compounds, metal oxide compounds, metal acetylacetonate compounds, metal halide compounds, and combinations thereof. providing a substrate, where the substrate is a (co)polymeric material, an inorganic material, an alloy, a solid solution, or a combination thereof, wherein a (co)polymeric material is a material having a molecular weight of at least about 10,000 g/mole and including homopolymers and copolymers, as well as homopolymers and copolymers that are formed in a miscible blend; mixing a first gaseous species capable of depositing a layer onto the substrate when formed into a plasma, with a second gaseous species capable of etching the substrate when formed into a plasma, thereby forming a gaseous mixture; forming the gaseous mixture into a plasma; and exposing a surface of the substrate to the plasma, wherein the surface is etched and a layer is deposited on at least a portion of the etched surface simultaneously, thereby forming a nanostructure having features of diverse height and aspect ratio, wherein the first gaseous species comprises a compound selected from the group consisting of organosilicon compounds, metal alkyl compounds, metal isopropoxide compounds, metal oxide compounds, metal acetylacetonate compounds, metal halide compounds, and combinations thereof.
A recombinant FSH preparation, wherein the recombinant FSH in the preparation has a glycosylation pattern comprising the following characteristics: (i) a relative amount of glycans carrying bisecting N-acetylglucosamine (bisGlcNAc) of at least 20 % of the total amount of glycans attached to FSH in the preparation; and (ii) a relative amount of 2,6-coupled sialic acid of at least 30% of the total amount of sialic acids; and (iii) a relative amount of glycans carrying a sulfate group of at least 3% of the total amount of glycans attached to FSH in the preparation. (i) a relative amount of glycans carrying bisecting N-acetylglucosamine (bisGlcNAc) of at least 20 % of the total amount of glycans attached to FSH in the preparation; and (ii) a relative amount of 2,6-coupled sialic acid of at least 30% of the total amount of sialic acids; and (iii) a relative amount of glycans carrying a sulfate group of at least 3% of the total amount of glycans attached to FSH in the preparation.
A method for facilitating multiplexing of a sounding resource signal (206, 226, 432, 462, 522, 552), SRS, in a wireless communication environment, comprising: detecting presence of a SRS symbol (206, 226, 432, 462, 522, 552) in a slot of a sub-frame (200, 220, 430, 460, 520, 550); modifying a channel structure for at least one slot of a sub-frame (200, 220, 430, 460, 520, 550), said modifying comprising: reducing a number of reference signal, RS, symbols (466, 478, 556, 568) in the slot including the SRS (462, 552); determining a length and a type of a time domain orthogonal spreading code to apply to a channel in the slots of the sub-frame (200, 220, 430, 460, 520, 550) as a function of SRS presence; and applying the determined spreading code to the channel in at least one slot in the sub-frame (200, 220, 430, 460, 520, 550). detecting presence of a SRS symbol (206, 226, 432, 462, 522, 552) in a slot of a sub-frame (200, 220, 430, 460, 520, 550); modifying a channel structure for at least one slot of a sub-frame (200, 220, 430, 460, 520, 550), said modifying comprising: reducing a number of reference signal, RS, symbols (466, 478, 556, 568) in the slot including the SRS (462, 552); determining a length and a type of a time domain orthogonal spreading code to apply to a channel in the slots of the sub-frame (200, 220, 430, 460, 520, 550) as a function of SRS presence; and applying the determined spreading code to the channel in at least one slot in the sub-frame (200, 220, 430, 460, 520, 550). reducing a number of reference signal, RS, symbols (466, 478, 556, 568) in the slot including the SRS (462, 552); determining a length and a type of a time domain orthogonal spreading code to apply to a channel in the slots of the sub-frame (200, 220, 430, 460, 520, 550) as a function of SRS presence; and applying the determined spreading code to the channel in at least one slot in the sub-frame (200, 220, 430, 460, 520, 550).
A rubber composition for tire treads, containing a diene rubber, silica and a silane coupling agent; wherein the silane coupling agent is a polysiloxane represented by an average composition formula of formula below; silica content is from 5 to 200 parts by mass per 100 parts by mass of the diene rubber; and silane coupling agent content is from 1 to 20 mass% relative to the silica content: a b c d e SiO (4-2a-b-c-d-e)/2 (wherein, in formula, A denotes a divalent organic group containing a sulfide group; B denotes a monovalent hydrocarbon group having from 5 to 20 carbons; C denotes a hydrolyzable group; D denotes an organic group containing a mercapto group; R 1 denotes a monovalent hydrocarbon group having from 1 to 4 carbons; and a to e satisfy the relationships 0 < a < 1, 0 < b < 1, 0 < c < 3, 0 ≤ d < 1, 0 ≤ e < 2, 0 < 2a + b + c + d + e < 4).
A method to produce a wear resistant foil, comprising providing a first foil comprising a first thermoplastic material, applying a second foil comprising a second thermoplastic material on the first foil, applying wear resistant particles on the first foil and/or on the second foil prior to applying the second foil on the first foil, and adhering the first foil to the second foil with the wear resistant particles therebetween for forming a wear resistant foil, characterised in that the wear resistant particles do not protrude from an upper surface of the second foil being opposite the first foil. providing a first foil comprising a first thermoplastic material, applying a second foil comprising a second thermoplastic material on the first foil, applying wear resistant particles on the first foil and/or on the second foil prior to applying the second foil on the first foil, and adhering the first foil to the second foil with the wear resistant particles therebetween for forming a wear resistant foil, characterised in that the wear resistant particles do not protrude from an upper surface of the second foil being opposite the first foil.
Cable sleeve for structured storage and handling of optical waveguides which are routed in optical waveguide cables, in particular shroud sleeve, having a covering body which defines an interior space, in particular a covering shroud, having at least one sealing body which can be inserted into an opening of the covering body and serves for routing optical waveguide cables into the interior space and/or for routing optical waveguide cables out of the interior space, wherein a sealing region which is formed between an outer contour of the sealing body and an inner contour of the covering body is sealed off by a sealing ring which is positioned in a groove which is made in the outer contour of the sealing body, and having a clamping ring which presses the inner contour of the covering body in the region of the opening against the outer contour of the sealing body, characterized in that the covering body only partially covers the groove, so that a projection of the clamping ring engages into the groove and bears against the sealing ring, with deformation of the said sealing ring, in such a way that the projection of the clamping ring presses the sealing ring against the groove of the sealing body by way of a first section, against the inner contour of the covering body by way of a second section and against a side wall of the groove by way of a third section.
Abandonment plug for plug and abandonment of a well, the abandonment plug comprising: - a first end part being closable or closed, - a second end part being tubular and having a groove in an inner face, - an expandable metal sleeve arranged between the end parts, the end parts being more rigid than the expandable metal sleeve, and - a unit releasably connected to the second tubular end part, and where the unit is configured to be retracted from the well, the unit comprising: - at least one radially projectable fastening element, - a unit sleeve, and - a piston movable in the unit sleeve for, in a first position, forcing the radially projectable fastening element radially outwards in engagement with the groove and, in a second position, being offset in relation to the radially projectable fastening element, allowing the radially projectable fastening element to move radially inwards, characterized in that the abandonment plug comprises: - a first breakable element for maintaining the piston in the first position in relation to the unit sleeve until the breakable element breaks at a predetermined force. - a first end part being closable or closed, - a second end part being tubular and having a groove in an inner face, - an expandable metal sleeve arranged between the end parts, the end parts being more rigid than the expandable metal sleeve, and - a unit releasably connected to the second tubular end part, and where the unit is configured to be retracted from the well, the unit comprising: - at least one radially projectable fastening element, - a unit sleeve, and - at least one radially projectable fastening element, - a unit sleeve, and - a piston movable in the unit sleeve for, in a first position, forcing the radially projectable fastening element radially outwards in engagement with the groove and, in a second position, being offset in relation to the radially projectable fastening element, allowing the radially projectable fastening element to move radially inwards, characterized in that the abandonment plug comprises: - a first breakable element for maintaining the piston in the first position in relation to the unit sleeve until the breakable element breaks at a predetermined force.