mhurhangee/patent-ind-claim-en huggingface dataset:
A twisted, multicore optical fiber for communicating light input to each core to an output, wherein: the multicore optical fiber is configured to exhibit birefringence, the twist of the multicore optical fiber is configured to mitigate relative time delays of the input light traveling through each of the cores in the twisted, multicore optical fiber to the output caused by bending of the twisted, multicore optical fiber , and the twist of the multicore optical fiber has a rate equal to or greater than 50 twists per meter, resulting in a twist period close to or shorter than a birefringence beat length of the multicore optical fiber to reduce effects of birefringence. the multicore optical fiber is configured to exhibit birefringence, the twist of the multicore optical fiber is configured to mitigate relative time delays of the input light traveling through each of the cores in the twisted, multicore optical fiber to the output caused by bending of the twisted, multicore optical fiber , and the twist of the multicore optical fiber has a rate equal to or greater than 50 twists per meter, resulting in a twist period close to or shorter than a birefringence beat length of the multicore optical fiber to reduce effects of birefringence.
A method for removing dust from sheets fed from a paper feeding apparatus within a printer , including: providing a paper feeder module that includes at least one paper tray with sheets therein and a feed head; initiating feeding of sheets from said at least one paper tray into a predetermined paper path for a print job; and characterised in that it further includes: scraping upper and lower surfaces of each sheet fed from said at least one paper tray with scrapers positioned within said predetermined paper path and after an exit of said paper feeder module to remove dust therefrom; and providing flexible members as said scrapers; wherein said scrapers include at least two blades. providing a paper feeder module that includes at least one paper tray with sheets therein and a feed head; initiating feeding of sheets from said at least one paper tray into a predetermined paper path for a print job; and characterised in that it further includes: scraping upper and lower surfaces of each sheet fed from said at least one paper tray with scrapers positioned within said predetermined paper path and after an exit of said paper feeder module to remove dust therefrom; and providing flexible members as said scrapers; wherein said scrapers include at least two blades. scraping upper and lower surfaces of each sheet fed from said at least one paper tray with scrapers positioned within said predetermined paper path and after an exit of said paper feeder module to remove dust therefrom; and providing flexible members as said scrapers; wherein said scrapers include at least two blades.
System for applying a construction material, the system comprising a moving device , a first component , a second component , and a mixer for mixing the first component and the second component , wherein the mixer has a drum with at least one inlet and an outlet , a drive , a stirring shaft for mixing a mix, said stirring shaft being arranged in the drum and coupled to the drive , and a conveying device which is arranged in the drum and which is arranged on one and the same axis as the stirring shaft , wherein the mixer is arranged on the moving device and can be moved thereby, wherein the first component and the second component can be fed to the mixer to produce the construction material, and wherein the construction material produced from the components can be applied via the outlet of the mixer , wherein the first component is a pumpable concrete, and wherein the second component is a pumpable substance which contains a concrete admixture, wherein the concrete admixture is a solidification accelerator and/or a hardening accelerator, characterized in that the moving device is designed to be movable in the manner of a 3D printer such that structures can be constructed from the construction material using the system . a moving device , a first component , a second component , and a mixer for mixing the first component and the second component , wherein the mixer has a drum with at least one inlet and an outlet , a drive , a stirring shaft for mixing a mix, said stirring shaft being arranged in the drum and coupled to the drive , and a conveying device which is arranged in the drum and which is arranged on one and the same axis as the stirring shaft , wherein the mixer is arranged on the moving device and can be moved thereby, a drum with at least one inlet and an outlet , a drive , a stirring shaft for mixing a mix, said stirring shaft being arranged in the drum and coupled to the drive , and a conveying device which is arranged in the drum and which is arranged on one and the same axis as the stirring shaft , wherein the mixer is arranged on the moving device and can be moved thereby, wherein the first component and the second component can be fed to the mixer to produce the construction material, and wherein the construction material produced from the components can be applied via the outlet of the mixer , wherein the first component is a pumpable concrete, and
A dihydrolipoamide acetyltransferase variant consisting of an amino acid sequence represented by SEQ ID NO: 1, wherein glycine, which is an amino acid corresponding to position 77 of SEQ ID NO: 3, is substituted with aspartic acid.
An inkjet printing apparatus comprising: a print head having an ejection opening surface on which ejection openings for ejecting ink are formed; a tank for storing the ink to be supplied to the print head; a supply flow path (C2) for supplying the ink from the tank to the print head; a collection flow path (C4) for collecting the ink from the print head to the tank; a supply pump (P1) provided in the supply flow path to supply the ink from the tank to the print head; and a cap for covering the ejection opening surface; and a tank decompression pump (P0) which decompresses the inside of the tank; characterized by further comprising: a maintenance control unit configured to control the operation of the cap which is in a state of covering the ejection opening surface before starting to supply ink to the collection flow path, to be separated from the ejection opening surface, and an ink supply control unit configured to control, after the print head and the cap are separated, to drive the supply pump and the tank decompression pump so as to load the collection flow path with the ink. a print head having an ejection opening surface on which ejection openings for ejecting ink are formed; a tank for storing the ink to be supplied to the print head; a supply flow path (C2) for supplying the ink from the tank to the print head; a collection flow path (C4) for collecting the ink from the print head to the tank; a supply pump (P1) provided in the supply flow path to supply the ink from the tank to the print head; and a cap for covering the ejection opening surface; and a tank decompression pump (P0) which decompresses the inside of the tank; characterized by further comprising: a maintenance control unit configured to control the operation of the cap which is in a state of covering the ejection opening surface before starting to supply ink to the collection flow path, to be separated from the ejection opening surface, and an ink supply control unit configured to control, after the print head and the cap are separated, to drive the supply pump and the tank decompression pump so as to load the collection flow path with the ink. a maintenance control unit configured to control the operation of the cap which is in a state of covering the ejection opening surface before starting to supply ink to the collection flow path, to be separated from the ejection opening surface, and an ink supply control unit configured to control, after the print head and the cap are separated, to drive the supply pump and the tank decompression pump so as to load the collection flow path with the ink.
A system for controlling a flow of water from a process facility onboard a vessel, wherein the system comprises: • a water supply line comprising a water supply line inlet and a water supply line outlet, wherein the water supply line inlet is arranged to be in fluid communication with a water reservoir; • a water pump arranged between the water supply line inlet and the water supply line outlet; • a water return line comprising a water return line inlet and a water return line outlet; • a process facility in fluid communication with the water supply line outlet and the water return line inlet; characterized in that the system further comprises: • a water turbine device arranged between the water return line inlet and the water return line outlet, adapted to receive a gravity flow of water from the process facility ; • an energy generating device connected to the water turbine device ; • a surge tank arranged in fluid communication with the water return line ; • a level measurement device; and • wicket gates, arranged upstream the water turbine device , suitable for controlling the flow rate and pressure head in the return line ; wherein the wicket gates are regulated according to a water level in the surge tank measured by the level measurement device. • a water supply line comprising a water supply line inlet and a water supply line outlet, wherein the water supply line inlet is arranged to be in fluid communication with a water reservoir; • a water pump arranged between the water supply line inlet and the water supply line outlet; • a water return line comprising a water return line inlet and a water return line outlet; • a process facility in fluid communication with the water supply line outlet and the water return line inlet; • a water turbine device arranged between the water return line inlet and the water return line outlet, adapted to receive a gravity flow of water from the process facility ; • an energy generating device connected to the water turbine device ; • a surge tank arranged in fluid communication with the water return line ; • a level measurement device; and • wicket gates, arranged upstream the water turbine device , suitable for controlling the flow rate and pressure head in the return line ;
A test system comprising: a Device Under Test , DUT, that emits close proximity electromagnetic radiation; a test socket that holds the DUT during testing; an interface board , electrically connected between a test controller and electrical contacts of the DUT when the DUT is held in the test socket; an opening formed in the test socket, the opening extending into an envelope of electromagnetic radiation created by the DUT while being tested by the test controller and held in the test socket; characterised in that the test system further comprises: a plastic waveguide having a first end inserted into the opening, the first end of the plastic waveguide being placed to receive electromagnetic radiation emitted by the DUT during testing; and a receiver antenna placed near a second end of the plastic waveguide, wherein the electromagnetic radiation emitted by the DUT during testing is carried by the plastic waveguide and directed onto the receiver antenna; wherein the receiver antenna is physically located outside of the envelope; wherein the receiver antenna receives the electromagnetic radiation emitted by the DUT during testing and carried by the plastic waveguide. a Device Under Test , DUT, that emits close proximity electromagnetic radiation; a test socket that holds the DUT during testing; an interface board , electrically connected between a test controller and electrical contacts of the DUT when the DUT is held in the test socket; an opening formed in the test socket, the opening extending into an envelope of electromagnetic radiation created by the DUT while being tested by the test controller and held in the test socket; characterised in that the test system further comprises: a plastic waveguide having a first end inserted into the opening, the first end of the plastic waveguide being placed to receive electromagnetic radiation emitted by the DUT during testing; and a receiver antenna placed near a second end of the plastic waveguide, wherein the electromagnetic radiation emitted by the DUT during testing is carried by the plastic waveguide and directed onto the receiver antenna; a plastic waveguide having a first end inserted into the opening, the first end of the plastic waveguide being placed to receive electromagnetic radiation emitted by the DUT during testing; and a receiver antenna placed near a second end of the plastic waveguide, wherein the electromagnetic radiation emitted by the DUT during testing is carried by the plastic waveguide and directed onto the receiver antenna; wherein the receiver antenna is physically located outside of the envelope; wherein the receiver antenna receives the electromagnetic radiation emitted by the DUT during testing and carried by the plastic waveguide.
Defrosting process for foodstuffs, in particular meat, wherein the foodstuffs are filled into a container , rotatable about an axis of rotation and comprising mutually opposed end faces , , and are heated and rotated after the container has been filled, a first rotary feedthrough being assigned to a first end face , heated air being supplied into the container through a supply opening and withdrawn through an exit opening to heat the foodstuffs, the supply opening for the heated air being assigned on the first end face and the exit opening being provided on an opposite, second end face , and the supply opening being assigned to the rotary feedthrough , characterised in that a temperature-controllable double casing, comprising outer-face fluid ducts flowed through by a temperature-controlled liquid, is provided on the container , in that the container is filled with the foodstuffs via the supply opening , in that an inlet line and a return line for the liquid are provided from a liquid conditioning box to the rotary feedthrough , the liquid being guided to the rotary feedthrough via the inlet line , and subsequently flowing through the fluid duct and arriving back at the liquid conditioning box via the return line , the liquid being cooled in the liquid conditioning box , and in that at the same time the fluid ducts are flowed through by the liquid and the heated air is continuously supplied into the container and withdrawn from the container while the container filled with the foodstuffs rotates about the axis of rotation .
A vehicle body structure comprising: a floor panel of a floor of a vehicle interior; a left floor member having a left inclined portion inclined toward the outer side of a vehicle from the front of the vehicle toward the rear of the vehicle when viewed from the top, and a right floor member having a right inclined portion inclined toward the outer side of the vehicle from the front of the vehicle toward the rear of the vehicle when viewed from the top; and a battery support frame , characterized in that the battery support frame is closer to the lower side of the vehicle than the left floor member and the right floor member ; and in that the vehicle body structure further comprises: a fastening unit for fixing the battery support frame to the floor panel through the left floor member and the right floor member , wherein the battery support frame is fastened to the floor panel at the left inclined portion and the right inclined portion through the fastening unit . a floor panel of a floor of a vehicle interior; a left floor member having a left inclined portion inclined toward the outer side of a vehicle from the front of the vehicle toward the rear of the vehicle when viewed from the top, and a right floor member having a right inclined portion inclined toward the outer side of the vehicle from the front of the vehicle toward the rear of the vehicle when viewed from the top; and a battery support frame , characterized in that the battery support frame is closer to the lower side of the vehicle than the left floor member and the right floor member ; and in that the vehicle body structure further comprises: a fastening unit for fixing the battery support frame to the floor panel through the left floor member and the right floor member , wherein the battery support frame is fastened to the floor panel at the left inclined portion and the right inclined portion through the fastening unit . a fastening unit for fixing the battery support frame to the floor panel through the left floor member and the right floor member , wherein the battery support frame is fastened to the floor panel at the left inclined portion and the right inclined portion through the fastening unit .
A wavelength selective filter comprising: a filter material including a host matrix doped with metal ions , the filter material having a transmission region within a deep ultraviolet (UV) range such that UV light at wavelengths within the transmission region is transmitted through the filter material and UV light at wavelengths above and below the transmission region are blocked within the deep UV range, wherein the metal ions comprise first metal ions having a first absorbance spectrum , and second metal ions having a second absorbance spectrum , wherein a combined absorbance spectrum defined by absorption ranges of the first metal ions and the second metal ions defines the transmission region , wherein the deep UV range is between 190 nm and 280 nm, and wherein the transmission region has a width no greater than 30 nm. a filter material including a host matrix doped with metal ions , the filter material having a transmission region within a deep ultraviolet (UV) range such that UV light at wavelengths within the transmission region is transmitted through the filter material and UV light at wavelengths above and below the transmission region are blocked within the deep UV range, wherein the metal ions comprise first metal ions having a first absorbance spectrum , and second metal ions having a second absorbance spectrum , wherein a combined absorbance spectrum defined by absorption ranges of the first metal ions and the second metal ions defines the transmission region , wherein the deep UV range is between 190 nm and 280 nm, and wherein the transmission region has a width no greater than 30 nm.
Turbomachine, comprising a shaft with a first end and an impeller arranged at and coupled to the first end of the shaft , arranged together to rotate about an axis of rotation , wherein the shaft comprises a first axial bore and a second axial bore at the first end which are concentric with each other and with the axis of symmetry of the shaft, said first axial bore being deeper and having smaller diameter than said second axial bore and the impeller comprises an axial protrusion which is substantially cylindrical and is substantially concentric with the axis of symmetry of the impeller, wherein the impeller 20 and the axial protrusion 22 comprise an axial bore which is substantially concentric with the axis of symmetry of the impeller 20 and the axial protrusion 22 and extends over the full axial depth of the impeller 20 and the axial protrusion , wherein the second axial bore is arranged to house the axial protrusion , wherein the impeller is coupled to the first end of the shaft by means of a draw bolt connection, characterized in that , said draw bolt connection comprising a draw bolt and a nut , said draw bolt comprising first and second threaded ends and and being arranged in said axial bore , said first threaded end being screwed in to the first axial bore of the shaft , said nut being screwed on said first end , and wherein the turbomachine further comprises a friction ring clamped between an axial surface at the first end of the shaft and an opposite axial surface of the impeller , around the axial protrusion . wherein the impeller 20 and the axial protrusion 22 comprise an axial bore which is substantially concentric with the axis of symmetry of the impeller 20 and the axial protrusion 22 and extends over the full axial depth of the impeller 20 and the axial protrusion , wherein the second axial bore is arranged to house the axial protrusion , wherein the impeller is coupled to the first end of the shaft by means of a draw bolt connection, characterized in that , said draw bolt connection comprising a draw bolt and a nut , said draw bolt comprising first and second threaded ends and and being arranged in said axial bore , said first threaded end being screwed in to the first axial bore of the shaft , said nut being screwed on said first end , and wherein the turbomachine further comprises a friction ring clamped between an axial surface at the first end of the shaft and an opposite axial surface of the impeller , around the axial protrusion .
A method for implementation in a base station that supports at least one downlink traffic channel and at least one overhead channel of a cell corresponding to the base station, comprising: determining, at the base station, at least one power allocation for said at least one overhead channel based upon at least one measurement of downlink traffic channel power , as measured or estimated at the base station for the cell corresponding to the base station, and a maximum transmission power of the base station ; wherein said determining of said at least one power allocation for said at least one overhead channel comprises determining said at least one power allocation for said at least one overhead channel based upon a buffered value of the base station transmission power equal to the maximum transmission power of the base station minus by a selected buffer transmission power; and transmitting signals over said at least one overhead channel using said at least one power allocation concurrently with transmission of signals over said at least one downlink traffic channel . determining, at the base station, at least one power allocation for said at least one overhead channel based upon at least one measurement of downlink traffic channel power , as measured or estimated at the base station for the cell corresponding to the base station, and a maximum transmission power of the base station ; wherein said determining of said at least one power allocation for said at least one overhead channel comprises determining said at least one power allocation for said at least one overhead channel based upon a buffered value of the base station transmission power equal to the maximum transmission power of the base station minus by a selected buffer transmission power; and transmitting signals over said at least one overhead channel using said at least one power allocation concurrently with transmission of signals over said at least one downlink traffic channel .
A composition comprising 100 parts by mass of a pigment, 0.01 to 50 parts by mass of a cellulose composite and water, wherein the composition has a solid content of more than 25% by mass and a viscosity of 30 mPa·s or more, and wherein the cellulose composite contains 0.5% to 50% by mass of a hydrophilic polymer having an acid value of 2.0 or more and a weight-average molecular weight of 1 × 10 3 to 1 × 10 7 and 50% to 99.5% by mass of a crystalline cellulose, and the average particle size of the cellulose composite is 10 μm or less, wherein the primary average particle size of the pigment is 5 μm or less, wherein the average particle size of the cellulose composite is 10 μm or less when measured in the form of a water dispersion of the cellulose composite having a solid content concentration of 1% that is prepared by dispersing the cellulose composite in water using a propeller stirrer equipped with four paddle blades each having a radius of 4 cm at 25°C at 500 rpm for 20 minutes, and the thixotropic index (TI value) of the cellulose composite is 4 or more when measured in the form of a water dispersion of the cellulose composite prepared under the same conditions as described above except that the solid content concentration is set at 2%.