mhurhangee/ep-ind-claims huggingface dataset:
A laser system comprising: a semi-guiding high aspect ratio core optical fiber comprising: - an active rectangular core with a high aspect ratio cross section, the core having a top wide interface, a bottom wide interface, and two narrow edges interfaces (44, 46) and - signal claddings positioned in contact with said core and adapted to control modes along a fast-axis direction of said core, - two edge sections, the edge sections comprising a mode index matching material along the core edges having an index n MIM slightly larger than n mode, n mode being the index of any given mode along a fast-axis direction of said core; one or more pump apparatuses for coupling pump energy into said core to generate laser energy; and a mirror and an outcoupler positioned at opposite ends of said fiber core to form a laser planar resonator adapted to control modes of said laser energy along a slow-axis of said core, the laser planar resonator length and the size and/or curvature of the mirror and of the outcoupler being adapted in order to have a Fresnel number for the laser planar resonator enables the lowest order planar resonator mode to be favored over other higher order modes along the slow axis of the core. a semi-guiding high aspect ratio core optical fiber comprising: - an active rectangular core with a high aspect ratio cross section, the core having a top wide interface, a bottom wide interface, and two narrow edges interfaces (44, 46) and - signal claddings positioned in contact with said core and adapted to control modes along a fast-axis direction of said core, - two edge sections, the edge sections comprising a mode index matching material along the core edges having an index n MIM slightly larger than n mode, n mode being the index of any given mode along a fast-axis direction of said core; - an active rectangular core with a high aspect ratio cross section, the core having a top wide interface, a bottom wide interface, and two narrow edges interfaces (44, 46) and - signal claddings positioned in contact with said core and adapted to control modes along a fast-axis direction of said core, - two edge sections, the edge sections comprising a mode index matching material along the core edges having an index n MIM slightly larger than n mode, n mode being the index of any given mode along a fast-axis direction of said core; one or more pump apparatuses for coupling pump energy into said core to generate laser energy; and a mirror and an outcoupler positioned at opposite ends of said fiber core to form a laser planar resonator adapted to control modes of said laser energy along a slow-axis of said core, the laser planar resonator length and the size and/or curvature of the mirror and of the outcoupler being adapted in order to have a Fresnel number for the laser planar resonator enables the lowest order planar resonator mode to be favored over other higher order modes along the slow axis of the core.
Method for collecting in reels at least one elongated element for building a tyre, comprising: - associating, with a production station of said at least one elongated element (2a, 2b), at least one storage station for said at least one elongated element (2a, 2b) including a first support for a first reel and a second support for a second reel which can be independently caused to rotate about respective rotation axes (X; X'), - evaluating whether said at least one elongated element has to be coupled to a service film before being wound on a reel, wherein: - if said at least one elongated element does not have to be coupled to a service film before being wound on a reel, winding two of said elongated elements (2a, 2b) on said first reel and on said second reel, respectively; - if said at least one elongated element has to be coupled to a service film before being wound on a reel: a) providing on said second support a second reel on which said service film is wound, b) guiding said service film through an auxiliary storage unit which is provided on said storage station, c) coupling said service film to said elongated element, d) winding said elongated element coupled to said service film on said first reel which is positioned on said first support. - associating, with a production station of said at least one elongated element (2a, 2b), at least one storage station for said at least one elongated element (2a, 2b) including a first support for a first reel and a second support for a second reel which can be independently caused to rotate about respective rotation axes (X; X'), - evaluating whether said at least one elongated element has to be coupled to a service film before being wound on a reel, wherein: - if said at least one elongated element does not have to be coupled to a service film before being wound on a reel, winding two of said elongated elements (2a, 2b) on said first reel and on said second reel, respectively; - if said at least one elongated element has to be coupled to a service film before being wound on a reel: a) providing on said second support a second reel on which said service film is wound, b) guiding said service film through an auxiliary storage unit which is provided on said storage station, c) coupling said service film to said elongated element, d) winding said elongated element coupled to said service film on said first reel which is positioned on said first support. a) providing on said second support a second reel on which said service film is wound, b) guiding said service film through an auxiliary storage unit which is provided on said storage station, c) coupling said service film to said elongated element, d) winding said elongated element coupled to said service film on said first reel which is positioned on said first support.
A method of producing alcohol or sugar in a commercial-scale bioreactor comprising: - mixing a commercial enzyme preparation comprising at least one group 3 hydrolase, that has been stabilized for shipment or storage, with a dilute aqueous solution comprising a polymeric compound in a mixing vessel in a ratio of 1 part commercial enzyme preparation to at least 4 parts of the dilute aqueous solution to form a diluted enzyme solution; - passing the diluted enzyme solution through a chamber containing at least one metal particulate matter or metal-impregnated particulate matter to produce a reformulated enzyme solution; - wherein the metal particulate matter or the metal impregnated particulate matter comprises KDF55 or KDF85, and - within 100 hours of production of the reformulated enzyme solution, transferring at least a portion of the reformulated enzyme solution to a commercial-scale bioreactor containing at least 75 700 L (20,000 gallons) of at least one of starch or cellulose to produce an alcohol or sugar, wherein a total amount of enzyme in the form of the reformulated enzyme solution added to the bioreactor is at least 20% less than the amount of enzyme in the form of the commercial enzyme preparation that would have been required to produce an equivalent amount of alcohol or sugar. - mixing a commercial enzyme preparation comprising at least one group 3 hydrolase, that has been stabilized for shipment or storage, with a dilute aqueous solution comprising a polymeric compound in a mixing vessel in a ratio of 1 part commercial enzyme preparation to at least 4 parts of the dilute aqueous solution to form a diluted enzyme solution; - passing the diluted enzyme solution through a chamber containing at least one metal particulate matter or metal-impregnated particulate matter to produce a reformulated enzyme solution; - wherein the metal particulate matter or the metal impregnated particulate matter comprises KDF55 or KDF85, and - within 100 hours of production of the reformulated enzyme solution, transferring at least a portion of the reformulated enzyme solution to a commercial-scale bioreactor containing at least 75 700 L (20,000 gallons) of at least one of starch or cellulose to produce an alcohol or sugar, wherein a total amount of enzyme in the form of the reformulated enzyme solution added to the bioreactor is at least 20% less than the amount of enzyme in the form of the commercial enzyme preparation that would have been required to produce an equivalent amount of alcohol or sugar.
A lithographic printing plate precursor comprising: a support; and an image recording layer on the support, wherein the image recording layer contains an infrared absorbing agent, a polymerization initiator, and core-shell particles, a core portion of the core-shell particle contains a resin A containing a functional group A, and a shell portion of the core-shell particle contains a resin B containing a functional group B that is bondable to or interactable with the functional group A and a polymerizable group. a support; and an image recording layer on the support, wherein the image recording layer contains an infrared absorbing agent, a polymerization initiator, and core-shell particles, a core portion of the core-shell particle contains a resin A containing a functional group A, and a shell portion of the core-shell particle contains a resin B containing a functional group B that is bondable to or interactable with the functional group A and a polymerizable group.
A cooling and gas dehumidification system comprising: a cooling circuit in which a thermal fluid is circulated, and a cooling arrangement arranged in the cooling circuit and adapted to cool the thermal fluid flowing through the cooling circuit, a consumer arranged to deliver thermal energy to the thermal fluid flowing through the cooling circuit, and a gas dehumidifier having a heat exchanger arrangement, the heat exchanger arrangement being arranged, in a gas dehumidification operating state, to be thermally coupled to the thermal fluid flowing through the cooling circuit downstream of the cooling arrangement and having a first temperature and, in the process, to emit thermal energy to the thermal fluid and, in a deicing operating state, being thermally coupled to the thermal fluid flowing through the cooling circuit downstream of the consumer and having a second temperature, thereby receiving thermal energy from the thermal fluid, the second temperature being higher than the first temperature. a cooling circuit in which a thermal fluid is circulated, and a cooling arrangement arranged in the cooling circuit and adapted to cool the thermal fluid flowing through the cooling circuit, a consumer arranged to deliver thermal energy to the thermal fluid flowing through the cooling circuit, and a gas dehumidifier having a heat exchanger arrangement, the heat exchanger arrangement being arranged, in a gas dehumidification operating state, to be thermally coupled to the thermal fluid flowing through the cooling circuit downstream of the cooling arrangement and having a first temperature and, in the process, to emit thermal energy to the thermal fluid and, in a deicing operating state, being thermally coupled to the thermal fluid flowing through the cooling circuit downstream of the consumer and having a second temperature, thereby receiving thermal energy from the thermal fluid, the second temperature being higher than the first temperature.
Cracking furnace system for converting a hydrocarbon feedstock into cracked gas comprising a convection section, a radiant section and a cooling section, wherein the convection section includes a plurality of convection banks configured to receive and preheat hydrocarbon feedstock, wherein the radiant section includes a firebox comprising at least one radiant coil configured to heat up the feedstock to a temperature allowing a pyrolysis reaction, wherein the cooling section includes at least one transfer line exchanger, wherein the system is configured such that the feedstock is preheated by the transfer line exchanger before entry into the radiant section, wherein the convection section comprises a boiler coil configured to generate saturated steam, the system further comprising a steam drum which is connected to the boiler coil.
A pharmaceutical composition comprising a complex of mirabegron or a pharmaceutically acceptable salt thereof with sodium polystyrene sulfonate, a thickener, and a hydrophobic substance, wherein the hydrophobic substance is magnesium stearate and/or calcium stearate.
A method for controlling a smart flashlight, comprising: determining a present moving direction of the smart flashlight when the smart flashlight is in a preset mode; reading a pre-stored relationship between moving directions and illumination configurations from a memory of the smart flashlight to determine a present illumination configuration corresponding to the present moving direction, the illumination configurations comprising combinations of light wavelengths and strobe frequencies, different moving directions corresponding to different combinations of light wavelength and strobe frequency; and illuminating with the present illumination configuration in the present moving direction according to the present illumination configuration, wherein when said determined moving direction deviates, the present illumination configuration changes to prompt the user to adjust the moving direction, characterized in that the method further comprises: setting for each season of the year a corresponding preset time of day; reading the current time and date associated with the smart flashlight; determining that the current date is within a season of said seasons of the year; and when the current time is beyond the corresponding preset time of said determined season, activating the preset mode automatically. determining a present moving direction of the smart flashlight when the smart flashlight is in a preset mode; reading a pre-stored relationship between moving directions and illumination configurations from a memory of the smart flashlight to determine a present illumination configuration corresponding to the present moving direction, the illumination configurations comprising combinations of light wavelengths and strobe frequencies, different moving directions corresponding to different combinations of light wavelength and strobe frequency; and illuminating with the present illumination configuration in the present moving direction according to the present illumination configuration, wherein when said determined moving direction deviates, the present illumination configuration changes to prompt the user to adjust the moving direction, characterized in that the method further comprises: setting for each season of the year a corresponding preset time of day; reading the current time and date associated with the smart flashlight; determining that the current date is within a season of said seasons of the year; and when the current time is beyond the corresponding preset time of said determined season, activating the preset mode automatically. setting for each season of the year a corresponding preset time of day; reading the current time and date associated with the smart flashlight; determining that the current date is within a season of said seasons of the year; and when the current time is beyond the corresponding preset time of said determined season, activating the preset mode automatically.
Motor with predictive adjustment for a vehicle, including at least one physical parameter (f k) configured to be adjusted by a controller, wherein the motor is an electric motor including a rotor and a stator separated by an airgap, the width of which forms the adjustable physical parameter; characterized in that the motor is configured to be adjusted by said controller as a function of a predicted characteristic item of data (pc 1..pc M) of the current route (pa) of the vehicle, the characteristic item of data of the current route of the vehicle being predicted based on data (dc) provided by at least one sensor (2 5) of the motor (5, 5', 5 i) of the vehicle.
A tablet comprising a drug which is N-{3-[3-cyclopropyl-5-(2-fluoro-4-iodo-phenylamino)-6,8-dimethyl-2,4,7-trioxo-3,4,6,7-tetrahydro-2H-pyrido[4,3-d]pyrimidin-1-yl]phenyl}acetamide dimethyl sulfoxide solvate, wherein the tablet is coated with a film coat containing a colored pigment, or wherein the tablet is an uncoated tablet, a wax coated tablet, or a white coated tablet placed in a protective light resistant blister pack or in a light resistant bottle.
A method of wireless communication, performed by an eNodeB, comprising: transmitting resources on a carrier, the resources comprising a first set of resources associated with a first carrier type and a second set of resources associated with a second carrier type; and signaling support of the first carrier type to at least one first carrier type UE while maintaining signaling with second carrier type UEs, wherein the signaling comprises: defining a same primary synchronization signal, PSS location for the first carrier type and the second carrier type; defining one location for a secondary synchronization signal, SSS for the first carrier type and another location for an SSS for the second carrier type, wherein a first set of the PSS and the SSS for the first carrier type is mapped to a first physical cell identifier, PCI and a second set of the PSS and the SSS for the second carrier type is mapped to a second PCI different than the first PCI. transmitting resources on a carrier, the resources comprising a first set of resources associated with a first carrier type and a second set of resources associated with a second carrier type; and signaling support of the first carrier type to at least one first carrier type UE while maintaining signaling with second carrier type UEs, wherein the signaling comprises: defining a same primary synchronization signal, PSS location for the first carrier type and the second carrier type; defining one location for a secondary synchronization signal, SSS for the first carrier type and another location for an SSS for the second carrier type, wherein a first set of the PSS and the SSS for the first carrier type is mapped to a first physical cell identifier, PCI and a second set of the PSS and the SSS for the second carrier type is mapped to a second PCI different than the first PCI. defining a same primary synchronization signal, PSS location for the first carrier type and the second carrier type; defining one location for a secondary synchronization signal, SSS for the first carrier type and another location for an SSS for the second carrier type, wherein a first set of the PSS and the SSS for the first carrier type is mapped to a first physical cell identifier, PCI and a second set of the PSS and the SSS for the second carrier type is mapped to a second PCI different than the first PCI.
A method of preparing an antibody comprising the step of immunising a non-human animal with a chimeric or fusion protein comprising a first peptide joined directly or through a linker to a second polypeptide, wherein: said first peptide comprises a region of a P. gingivalis trypsin-like enzyme selected from the group consisting of: (i) a sequence that is the same as the sequence shown in SEQ ID NO:1; (ii) a sequence that is the same as the sequence shown in SEQ ID NO:2; (iii) the sequence shown in one of SEQ ID NOs: 27 to 30; and (iv) the sequence shown in one of SEQ ID NOs: 31 to 34; said second polypeptide comprises an adhesin domain of P. gingivalis, selected from the group consisting of: (i) a sequence that is the same as the sequence shown in SEQ ID NO: 35; and (ii) a sequence that is the same as the sequence shown in SEQ ID NO: 36 or 37. said first peptide comprises a region of a P. gingivalis trypsin-like enzyme selected from the group consisting of: (i) a sequence that is the same as the sequence shown in SEQ ID NO:1; (ii) a sequence that is the same as the sequence shown in SEQ ID NO:2; (iii) the sequence shown in one of SEQ ID NOs: 27 to 30; and (iv) the sequence shown in one of SEQ ID NOs: 31 to 34; (i) a sequence that is the same as the sequence shown in SEQ ID NO:1; (ii) a sequence that is the same as the sequence shown in SEQ ID NO:2; (iii) the sequence shown in one of SEQ ID NOs: 27 to 30; and (iv) the sequence shown in one of SEQ ID NOs: 31 to 34; said second polypeptide comprises an adhesin domain of P. gingivalis, selected from the group consisting of: (i) a sequence that is the same as the sequence shown in SEQ ID NO: 35; and (ii) a sequence that is the same as the sequence shown in SEQ ID NO: 36 or 37. (i) a sequence that is the same as the sequence shown in SEQ ID NO: 35; and (ii) a sequence that is the same as the sequence shown in SEQ ID NO: 36 or 37.
An absorption solvent regeneration device, comprising: a regenerator for regenerating an absorption solvent by separating CO 2 from the absorption solvent which has absorbed CO 2; a main rich solvent line for supplying the absorption solvent which has absorbed CO 2 to the regenerator; a regeneration reboiler for heating an absorption solvent extracted from the regenerator; a reboiler line configured to extract the absorption solvent stored in the regenerator and return the absorption solvent to the regenerator via the regeneration reboiler; a branch rich solvent line branching from the main rich solvent line and connected to a portion of the reboiler line downstream of the regeneration reboiler; a heating part for heating the absorption solvent flowing through the branch rich solvent line, the heating part being disposed on the branch rich solvent line -; and a valve for regulating a flow rate of the absorption solvent in the branch rich solvent line, the valve being disposed in the branch rich solvent line, wherein the heating part includes a heat exchanger configured to exchange heat between condensed water of steam after heating the absorption solvent in the regeneration reboiler and the absorption solvent flowing through the branch rich solvent line. a regenerator for regenerating an absorption solvent by separating CO 2 from the absorption solvent which has absorbed CO 2; a main rich solvent line for supplying the absorption solvent which has absorbed CO 2 to the regenerator; a regeneration reboiler for heating an absorption solvent extracted from the regenerator; a reboiler line configured to extract the absorption solvent stored in the regenerator and return the absorption solvent to the regenerator via the regeneration reboiler; a branch rich solvent line branching from the main rich solvent line and connected to a portion of the reboiler line downstream of the regeneration reboiler; a heating part for heating the absorption solvent flowing through the branch rich solvent line, the heating part being disposed on the branch rich solvent line -; and a valve for regulating a flow rate of the absorption solvent in the branch rich solvent line, the valve being disposed in the branch rich solvent line,