mhurhangee/ep-ind-claims huggingface dataset:
A straight fiber rod extending along a longitudinal axis, comprising: - an elongated cladding extending along a longitudinal axis, - a monolithic frustoconical rare-earth ion-doped core surrounded by and coextending with the cladding between a small-diameter input region which supports propagation of a single mode and a large-diameter output region which supports multiple modes, the core being configured with a frustoconical elongated cross-section flaring towards the large-diameter output region - the core being configured for amplifying substantially only the SM along an entire length of the core, - wherein the core is configured to emit the output beam with average and peak powers in a kW to MW power range in about 976 - 1030 nm wavelenght range, - the core having a length varying between about five and about thirty centimeters and - the fiber rod further comprising an optical component spliced to a downstream end of the fiber rod and having an entire area thereof doped with a gain medium, a length of the frustoconically-shaped core is selected so that when the the output is emitted from the output region of the core and coupled into the optical component, the SM expands at an angle smaller than a cone angle of the core. - an elongated cladding extending along a longitudinal axis, - a monolithic frustoconical rare-earth ion-doped core surrounded by and coextending with the cladding between a small-diameter input region which supports propagation of a single mode and a large-diameter output region which supports multiple modes, the core being configured with a frustoconical elongated cross-section flaring towards the large-diameter output region - the core being configured for amplifying substantially only the SM along an entire length of the core, - wherein the core is configured to emit the output beam with average and peak powers in a kW to MW power range in about 976 - 1030 nm wavelenght range, - the core having a length varying between about five and about thirty centimeters and - the fiber rod further comprising an optical component spliced to a downstream end of the fiber rod and having an entire area thereof doped with a gain medium, a length of the frustoconically-shaped core is selected so that when the the output is emitted from the output region of the core and coupled into the optical component, the SM expands at an angle smaller than a cone angle of the core.
A method for depositing a monocrystalline Sn-containing semiconductor material on a substrate comprising a Ge buffer layer, comprising: o providing a semiconductor material precursor comprising a germanium-containing precursor, a Sn precursor comprising tin tetrachloride (SnCl 4) and a carrier gas in a chemical vapor deposition reactor, and epitaxially growing the Sn-containing semiconductor material on the substrate, thereby obtaining a monocrystalline material comprising Ge with Sn incorporated in substitutional positions in the lattice, and wherein providing a Sn precursor comprises providing the Sn precursor at a partial pressure of the Sn precursor in the CVD reactor lower than the partial pressure of the Sn-precursor above which no growth occurs anymore or even the substrate or an upper layer thereof starts to be etched, wherein epitaxially growing the Sn-containing semiconductor material comprises growing the Sn-containing semiconductor material onto the Ge buffer layer. o providing a semiconductor material precursor comprising a germanium-containing precursor, a Sn precursor comprising tin tetrachloride (SnCl 4) and a carrier gas in a chemical vapor deposition reactor, and
A compound type heat exchanger comprising: a first heat exchanger having a pair of long tanks (3, 4) arranged a certain distance apart from each other and a core part having a plurality of tubes between the pair of tanks (3, 4); and a second heat exchange wherein at least one of the pair of tanks (3, 4) is constituted of a plurality of divided bodies (6, 7, 8) connected along a longitudinal direction of the at least one of the pair of tanks (3, 4), wherein one of the plurality of divided bodies (6, 7, 8) is provided with an accommodation portion that has an, opening portion and projects outwardly to be connected with the one of the plurality of divided bodies so that a flowing medium of the first heat exchanger can flow to the one of the plurality of divided bodies, wherein the second heat exchanger is arranged in the accommodation portion, wherein the accommodation portion is provided with a connection port (P3, P4) as a gateway of the flowing medium of the first heat exchanger, wherein heat is exchanged between the flowing medium of the first heat exchanger that flows thorough the accommodation portion and a flowing medium of the second heat exchanger, and wherein the second heat exchange is positioned through the opening portion and detachably fixed to the accommodation portion from an exterior side of the accommodation portion. a first heat exchanger having a pair of long tanks (3, 4) arranged a certain distance apart from each other and a core part having a plurality of tubes between the pair of tanks (3, 4); and a second heat exchange wherein at least one of the pair of tanks (3, 4) is constituted of a plurality of divided bodies (6, 7, 8) connected along a longitudinal direction of the at least one of the pair of tanks (3, 4), wherein one of the plurality of divided bodies (6, 7, 8) is provided with an accommodation portion that has an, opening portion and projects outwardly to be connected with the one of the plurality of divided bodies so that a flowing medium of the first heat exchanger can flow to the one of the plurality of divided bodies, wherein the second heat exchanger is arranged in the accommodation portion, wherein the accommodation portion is provided with a connection port (P3, P4) as a gateway of the flowing medium of the first heat exchanger, wherein heat is exchanged between the flowing medium of the first heat exchanger that flows thorough the accommodation portion and a flowing medium of the second heat exchanger, and wherein the second heat exchange is positioned through the opening portion and detachably fixed to the accommodation portion from an exterior side of the accommodation portion.
A method performed in a network node with two or more transmission states for dynamically managing outer loop link adaptation instances for a wireless device, the method comprising: - monitoring one or more variables, wherein each variable is either associated with an outer loop link adaptation instance or with a transmission state, and - adapting the number of outer loop link adaptation instances based on the monitored one or more variables, wherein the monitored one or more variables comprise a block error rate, BLER, value. - monitoring one or more variables, wherein each variable is either associated with an outer loop link adaptation instance or with a transmission state, and - adapting the number of outer loop link adaptation instances based on the monitored one or more variables,
A method carried out by a first network node, the method comprising: receiving a trigger to establish an Internet Protocol Security, IPsec, session with a second network node, the IPsec session being associated with a user equipment, UE, wherein the IPsec session secures the signalling of the UE; responsive to the trigger to establish the IPsec session associated with the UE, deriving a unique identifier for the UE; generating a Security Parameter Index, SPI, value based at least in part on the unique identifier for the UE, the SPI value being unique to the IPsec session; and communicating an indication of the SPI value to the second network node, wherein deriving the unique identifier further comprises deriving the unique identifier for the UE based at least in part on data associated with the UE and, as a result of the derivation, the generation of the SPI value is based at least in part on the data associated with the UE, wherein the data used to derive the unique identifier for the UE and generate the SPI value includes at least one of a Cell UE Identifier, a Baseband Processing Function, BPF, Identifier, and a Cell Identifier. receiving a trigger to establish an Internet Protocol Security, IPsec, session with a second network node, the IPsec session being associated with a user equipment, UE, wherein the IPsec session secures the signalling of the UE; responsive to the trigger to establish the IPsec session associated with the UE, deriving a unique identifier for the UE; generating a Security Parameter Index, SPI, value based at least in part on the unique identifier for the UE, the SPI value being unique to the IPsec session; and communicating an indication of the SPI value to the second network node, wherein deriving the unique identifier further comprises deriving the unique identifier for the UE based at least in part on data associated with the UE and, as a result of the derivation, the generation of the SPI value is based at least in part on the data associated with the UE, wherein the data used to derive the unique identifier for the UE and generate the SPI value includes at least one of a Cell UE Identifier, a Baseband Processing Function, BPF, Identifier, and a Cell Identifier.
A method for stabilizing a refractory carbide hot gas path component comprising: combusting a fuel in a combustor to form a gas stream comprising post-combustion gases; and delivering a high carbon activity gas to at least a portion of a hot gas path component thermally coupled to a hot gas path, wherein the component comprises rows of discrete film holes oriented at shallow angles to the surface, and wherein delivering the high carbon activity gas comprises introducing the high carbon activity gas via the rows of discrete film holes, thereby to cover at least a portion of the component with a layer of the high carbon activity gas. combusting a fuel in a combustor to form a gas stream comprising post-combustion gases; and delivering a high carbon activity gas to at least a portion of a hot gas path component thermally coupled to a hot gas path, wherein the component comprises rows of discrete film holes oriented at shallow angles to the surface, and wherein delivering the high carbon activity gas comprises introducing the high carbon activity gas via the rows of discrete film holes, thereby to cover at least a portion of the component with a layer of the high carbon activity gas.
A method for adaptive loop filtering, the method comprising: designing multiple filters corresponding to a predetermined number of classes by classifying blocks in a video frame into a predetermined number of classes based on at least one local directional feature of each block, wherein each block comprises a plurality of pixels; encoding filter coefficients of the multiple filters; and applying the multiple filters having the encoded filter coefficients to respective blocks corresponding to each of the classes, wherein encoding the filter coefficients of the multiple filters comprises computing, encoding, and transmitting filter coefficient differences between the filter coefficients and filter coefficients used during encoding of a previously encoded video frame. designing multiple filters corresponding to a predetermined number of classes by classifying blocks in a video frame into a predetermined number of classes based on at least one local directional feature of each block, wherein each block comprises a plurality of pixels; encoding filter coefficients of the multiple filters; and applying the multiple filters having the encoded filter coefficients to respective blocks corresponding to each of the classes, wherein encoding the filter coefficients of the multiple filters comprises computing, encoding, and transmitting filter coefficient differences between the filter coefficients and filter coefficients used during encoding of a previously encoded video frame.
A filter cleaner module configured to be mounted in an air purifier, the filter cleaner module comprising: - a motor, - a cleaning member (32, 34) - a gear mechanism, wherein, the motor is configured to via the gear mechanism drive a radially outwards facing surface of a cylindrical air filter or a filter holding case past the cleaning member and wherein the filter cleaning module also comprises at least one UV light source. - a motor, - a cleaning member (32, 34) - a gear mechanism,
A process for preparing an aqueous dispersion of pigment-polymer particles containing an organic pigment and an aminoplast resin which surrounds or embeds the organic pigment, which comprises the following steps: i) providing an aqueous suspension of an organic pigment in the form of coarse particles and subjecting the aqueous suspension to milling in order to comminute the coarse particles in the presence of a polymer dispersant to a particle diameter d(v 0.9) to below 1500 nm, as determined by laser scattering; ii) performing a polycondensation of an aminoplast pre-condensate in the aqueous suspension obtained in step i) or during the milling of step i); wherein the polycondensation is performed in the presence of an acid catalyst at pH below pH 5.5. i) providing an aqueous suspension of an organic pigment in the form of coarse particles and subjecting the aqueous suspension to milling in order to comminute the coarse particles in the presence of a polymer dispersant to a particle diameter d(v 0.9) to below 1500 nm, as determined by laser scattering; ii) performing a polycondensation of an aminoplast pre-condensate in the aqueous suspension obtained in step i) or during the milling of step i);
A method of processing a hydrophobic surface, comprising: orienting a spray nozzle of a particle sprayer toward a surface of a metal body; operating the particle sprayer to forming micro- scale protrusions and depressions on the surface of the metal body by spraying particles to the surface of the metal body; forming a plurality of nano- scale holes on the surface of the metal body by treating the metal body though an anodic oxidation process; forming a replica by immersing the metal body in a non- wetting polymer material and solidifying the non-wetting polymer material; and forming a superhydrophobic dual- scaled surface structure having nano-scale pillars formed on micro- scale protrusions and depressions by removing the metal body and an anode oxide from the replica. orienting a spray nozzle of a particle sprayer toward a surface of a metal body; operating the particle sprayer to forming micro- scale protrusions and depressions on the surface of the metal body by spraying particles to the surface of the metal body; forming a plurality of nano- scale holes on the surface of the metal body by treating the metal body though an anodic oxidation process; forming a replica by immersing the metal body in a non- wetting polymer material and solidifying the non-wetting polymer material; and forming a superhydrophobic dual- scaled surface structure having nano-scale pillars formed on micro- scale protrusions and depressions by removing the metal body and an anode oxide from the replica.
A flow control device comprising: a high frequency source configured to generate a high frequency signal; a low frequency source configured to generate a low frequency signal; a fixed magnetic field; a drive coil configured to move within the fixed magnetic field in response to the low frequency signal and configured to receive the high frequency signal; a detection coil adjacent the drive coil and configured to detect the high frequency signal in the drive coil, the detected high frequency signal corresponding to a position of the drive coil; a processor coupled to the high frequency source and the low frequency source and configured to receive the detected high frequency signal from the detection coil; a seal configured to move based on the position of the drive coil; and a valve orifice defining a valve seat and a variable opening, the variable opening being adjustable based on a position of the seal relative to the valve seat. a high frequency source configured to generate a high frequency signal; a low frequency source configured to generate a low frequency signal; a fixed magnetic field; a drive coil configured to move within the fixed magnetic field in response to the low frequency signal and configured to receive the high frequency signal; a detection coil adjacent the drive coil and configured to detect the high frequency signal in the drive coil, the detected high frequency signal corresponding to a position of the drive coil; a processor coupled to the high frequency source and the low frequency source and configured to receive the detected high frequency signal from the detection coil; a seal configured to move based on the position of the drive coil; and a valve orifice defining a valve seat and a variable opening, the variable opening being adjustable based on a position of the seal relative to the valve seat.
A method for cleaning a connector of a hydrocarbon extraction system, the method comprising: inserting a flexible cable into a cleaning region of a channel of a component via a cleaning port, wherein the flexible cable comprises an axis and a tip, and a tip diameter of the tip is different than a diameter of the flexible cable; rotating the flexible cable about the axis within the channel to interact the tip with deposits disposed within the cleaning region of the channel, wherein the tip is configured to loosen portions of the deposits by scraping, impacting, brushing, sweeping, pushing, pulling, abrading or any combination thereof; and moving the flexible cable within the cleaning region of the channel along a length of the channel; and removing the portions of the deposits from the cleaning region of the channel via a second port. inserting a flexible cable into a cleaning region of a channel of a component via a cleaning port, wherein the flexible cable comprises an axis and a tip, and a tip diameter of the tip is different than a diameter of the flexible cable; rotating the flexible cable about the axis within the channel to interact the tip with deposits disposed within the cleaning region of the channel, wherein the tip is configured to loosen portions of the deposits by scraping, impacting, brushing, sweeping, pushing, pulling, abrading or any combination thereof; and moving the flexible cable within the cleaning region of the channel along a length of the channel; and removing the portions of the deposits from the cleaning region of the channel via a second port.
A preparation method of a separator, comprising: preparing an aqueous slurry comprising inorganic particles, a binder polymer, and an aqueous medium; and coating the aqueous slurry on at least one surface of a porous polymer substrate to form an organic-inorganic composite porous coating layer, wherein (i) the viscosity (kgf•s/m 2) μ is from 0.005 to 0.05, (ii) the coating velocity (m/s) U is from 0.15 to 2.0 or the surface tension (kgf/m) σ is from 0.0015 to 0.005, and the aqueous medium is water, or a mixture of alcohol and water, wherein the porous polymer substrate is a porous polymer film substrate or a porous polymer non-woven substrate, wherein capillary number of the aqueous slurry is from 0.3 to 65, the capillary number is determined by the following equation 1: Capillary number Ca = μ × U / σ where μ = viscosity (kgf·s/m 2), U = coating velocity (m/s), and σ = surface tension (kgf/m). preparing an aqueous slurry comprising inorganic particles, a binder polymer, and an aqueous medium; and coating the aqueous slurry on at least one surface of a porous polymer substrate to form an organic-inorganic composite porous coating layer, wherein (i) the viscosity (kgf•s/m 2) μ is from 0.005 to 0.05, (ii) the coating velocity (m/s) U is from 0.15 to 2.0 or the surface tension (kgf/m) σ is from 0.0015 to 0.005, and the aqueous medium is water, or a mixture of alcohol and water, wherein the porous polymer substrate is a porous polymer film substrate or a porous polymer non-woven substrate, wherein capillary number of the aqueous slurry is from 0.3 to 65, the capillary number is determined by the following equation 1: Capillary number Ca = μ × U / σ where μ = viscosity (kgf·s/m 2), U = coating velocity (m/s), and σ = surface tension (kgf/m).
A labelled nucleotide comprising a label attached via a linker, wherein the labelled nucleotide has the formula wherein R 1 is a phosphate group; wherein R 2, R 3 and R 4 are each H 2; wherein "n" is 1; wherein "a" is 2 or 3; wherein SP is absent or is an aminolinker; wherein X is said label; and wherein Y is the 5' carbon of the sugar of the nucleoside. wherein R 1 is a phosphate group; wherein R 2, R 3 and R 4 are each H 2; wherein "n" is 1; wherein "a" is 2 or 3; wherein SP is absent or is an aminolinker; wherein X is said label; and wherein Y is the 5' carbon of the sugar of the nucleoside.
A lipid compound of formula, or a pharmaceutically acceptable salt thereof, for the use in prevention and/or treatment of an ophthalmic disorder: wherein R 1 is a C 9 to C 22 alkenyl group having from 1 to 6 double bonds; R 2 is selected from the group consisting of a halogen atom, a hydroxyl group, an alkyl group, an alkoxy group, an alkylthio group, a carboxy group, an acyl group, an amino group, and an alkylamino group; R 3 is a hydrogen atom, or a group R 2; R 4 is a carboxylic acid or a derivative thereof which is a carboxylic ester; and X is methylene (-CH 2 -), or an oxygen or sulfur atom. R 1 is a C 9 to C 22 alkenyl group having from 1 to 6 double bonds; R 2 is selected from the group consisting of a halogen atom, a hydroxyl group, an alkyl group, an alkoxy group, an alkylthio group, a carboxy group, an acyl group, an amino group, and an alkylamino group; R 3 is a hydrogen atom, or a group R 2; R 4 is a carboxylic acid or a derivative thereof which is a carboxylic ester; and X is methylene (-CH 2 -), or an oxygen or sulfur atom.
A communication device comprising a control unit configured to perform control to: transmit data to a reception-side communication device at a time of coordinated transmission, where coordinated transmission is performed to transmit the data simultaneously from a plurality of transmission-side communication devices to the reception-side communication device; generate a request signal including coordinated transmission information regarding the coordinated transmission, and acknowledgement return information for returning an acknowledgement of the coordinately transmitted data simultaneously to the plurality of transmission-side communication devices; transmit the generated request signal to the reception-side communication device; and receive an acknowledgement signal including the acknowledgement, the acknowledgement signal being transmitted from the reception-side communication device that has received the request signal. transmit data to a reception-side communication device at a time of coordinated transmission, where coordinated transmission is performed to transmit the data simultaneously from a plurality of transmission-side communication devices to the reception-side communication device; generate a request signal including coordinated transmission information regarding the coordinated transmission, and acknowledgement return information for returning an acknowledgement of the coordinately transmitted data simultaneously to the plurality of transmission-side communication devices; transmit the generated request signal to the reception-side communication device; and receive an acknowledgement signal including the acknowledgement, the acknowledgement signal being transmitted from the reception-side communication device that has received the request signal.