mhurhangee/ep-ind-claims huggingface dataset:
A vapour deposition method for preparing a multi-layered thin film structure, the method comprising: providing a vapour source of each component element of a compound intended for a first layer and a compound intended for a second layer, wherein the vapour sources comprise at least a source of lithium, a source of oxygen, a source or sources of one or more glass-forming elements, and a source or sources of one or more transition metals; heating a substrate to a first temperature; co-depositing component elements from at least the vapour sources of lithium, oxygen and the one or more transition metals onto the heated substrate wherein the component elements react on the substrate to form a layer of a crystalline lithium-containing transition metal oxide compound; heating the substrate to a second temperature; and co-depositing component elements from at least the vapour sources of lithium, oxygen and the one or more glass-forming elements onto the heated substrate wherein the component elements react on the substrate to form a layer of an amorphous lithium-containing oxide or oxynitride compound, where a lithium-containing oxide compound is a compound containing lithium, oxygen and one or more other elements and a lithium-containing oxynitride compound is a compound containing lithium, oxygen, nitrogen and one or more other elements; wherein the first temperature and the second temperature are within a temperature range of 170°C or less. providing a vapour source of each component element of a compound intended for a first layer and a compound intended for a second layer, wherein the vapour sources comprise at least a source of lithium, a source of oxygen, a source or sources of one or more glass-forming elements, and a source or sources of one or more transition metals; heating a substrate to a first temperature; co-depositing component elements from at least the vapour sources of lithium, oxygen and the one or more transition metals onto the heated substrate wherein the component elements react on the substrate to form a layer of a crystalline lithium-containing transition metal oxide compound; heating the substrate to a second temperature; and co-depositing component elements from at least the vapour sources of lithium, oxygen and the one or more glass-forming elements onto the heated substrate wherein the component elements react on the substrate to form a layer of an amorphous lithium-containing oxide or oxynitride compound, where a lithium-containing oxide compound is a compound containing lithium, oxygen and one or more other elements and a lithium-containing oxynitride compound is a compound containing lithium, oxygen, nitrogen and one or more other elements; wherein the first temperature and the second temperature are within a temperature range of 170°C or less.
An isolated antibody that binds TAT419 polypeptide of SEQ ID NO:2 comprising: (a) a CDR-L1 sequence of SEQ ID NO:7; (b) a CDR-L2 sequence of SEQ ID NO:8; (c) a CDR-L3 sequence of SEQ ID NO:9; (d) a CDR-H1 sequence of SEQ ID NO: 10; (e) a CDR-H2 sequence of SEQ ID NO: 11; and (f) a CDR-H3 sequence of SEQ ID NO: 12. (a) a CDR-L1 sequence of SEQ ID NO:7; (b) a CDR-L2 sequence of SEQ ID NO:8; (c) a CDR-L3 sequence of SEQ ID NO:9; (d) a CDR-H1 sequence of SEQ ID NO: 10; (e) a CDR-H2 sequence of SEQ ID NO: 11; and (f) a CDR-H3 sequence of SEQ ID NO: 12.
A multi-layer polishing pad for chemical-mechanical polishing comprising a porous polishing layer and a porous bottom layer; wherein the bottom layer is substantially coextensive with the polishing layer; the polishing layer being directly interconnected with the bottom layer such that the interface between the polishing layer and the bottom layer is adhesive-free; characterised in that the polishing layer has an average surface roughness, Ra, that is greater than the Ra of the bottom layer, and wherein the Ra of the polishing layer is greater than 25 μm, and the Ra of the bottom layer is less than 20 μm, and wherein the density of the polishing layer is in the range of 0.5 to 1.05 grams per cubic centimetre and the density of the bottom layer is in the range of 1 to 1.2 grams per cubic centimetre.
A particle characterization instrument, comprising: a first spatially coherent light source having a first wavelength and a first beam output; a second light source having a second wavelength that is different from the first wavelength and having a second beam output; a first optical combiner responsive to the first beam output and to the second beam output and being positioned to direct at least a portion of a first output beam from the first beam output and at least a portion of a second output beam from the second beam output along a same optical axis; a sample cell positioned along the same optical axis such that it can receive the first output beam or the second output beam as they are the directed along the same optical axis; a first detector positioned along the optical axis to receive scattered light from the sample cell resulting from interaction between a sample in the sample cell and the first beam output; characterised in that the instrument further comprises: a second detector positioned outside of the optical axis to receive scattered light from the sample cell resulting from interaction between the sample and the second beam output; and a second optical combiner positioned between the sample cell and the first detector to direct light of the first wavelength along the optical axis to the first detector and to redirect light of the second wavelength to the second detector. a first spatially coherent light source having a first wavelength and a first beam output; a second light source having a second wavelength that is different from the first wavelength and having a second beam output; a first optical combiner responsive to the first beam output and to the second beam output and being positioned to direct at least a portion of a first output beam from the first beam output and at least a portion of a second output beam from the second beam output along a same optical axis; a sample cell positioned along the same optical axis such that it can receive the first output beam or the second output beam as they are the directed along the same optical axis; a first detector positioned along the optical axis to receive scattered light from the sample cell resulting from interaction between a sample in the sample cell and the first beam output; characterised in that the instrument further comprises: a second detector positioned outside of the optical axis to receive scattered light from the sample cell resulting from interaction between the sample and the second beam output; and a second optical combiner positioned between the sample cell and the first detector to direct light of the first wavelength along the optical axis to the first detector and to redirect light of the second wavelength to the second detector. a second detector positioned outside of the optical axis to receive scattered light from the sample cell resulting from interaction between the sample and the second beam output; and a second optical combiner positioned between the sample cell and the first detector to direct light of the first wavelength along the optical axis to the first detector and to redirect light of the second wavelength to the second detector.
A cold rolled annealed steel sheet having a chemical composition comprising, in weight %: 0.30% ≤ C ≤ 0.50% 1.00% ≤ Mn ≤ 2.50% 1.00% ≤ Si ≤ 2.00% Al ≤ 2.00%, Cr ≤ 0.100%, 0.100% ≤ Mo ≤ 0.500%, 0.020% ≤ Nb ≤ 0.200% B ≤ 0.0005%, P ≤ 0.02%, S ≤ 0.005%, N ≤ 0.01%, the remainder being Fe and unavoidable impurities, with the percentages in carbon, manganese, chromium, molybdenum and boron are such that the alloy satisfies the following condition: 250 % C + 120 % Mn − 200 % Cr + 200 % Mo − 10000 % B ≥ 320, and wherein the microstructure comprises in surface fraction, 35% to 45 % of islands of martensite and retained austenite (M-A), the total retained austenite is higher than or equal to 24%, the remainder consisting of bainitic ferrite. 0.30% ≤ C ≤ 0.50% 1.00% ≤ Mn ≤ 2.50% 1.00% ≤ Si ≤ 2.00% Al ≤ 2.00%, Cr ≤ 0.100%, 0.100% ≤ Mo ≤ 0.500%, 0.020% ≤ Nb ≤ 0.200% B ≤ 0.0005%, P ≤ 0.02%, S ≤ 0.005%, N ≤ 0.01%,
An apparatus comprising: - a first polarization beam splitter-rotator; - an interferometer stage, and - four detectors arranged to receive at least one of four second optical modes, characterized by a second polarization beam splitter-rotator, the first and second polarization beam splitter-rotator (140, 142) being arranged to split two incoming polarization encoded qubits into four first optical modes, the apparatus being configured to align polarizations of the four first optical modes, and by the interferometer stage being configured to obtain, from the four first optical modes, the four second optical modes. - a first polarization beam splitter-rotator; - an interferometer stage, and - four detectors arranged to receive at least one of four second optical modes, characterized by a second polarization beam splitter-rotator, the first and second polarization beam splitter-rotator (140, 142) being arranged to split two incoming polarization encoded qubits into four first optical modes, the apparatus being configured to align polarizations of the four first optical modes, and by the interferometer stage being configured to obtain, from the four first optical modes, the four second optical modes. a second polarization beam splitter-rotator, the first and second polarization beam splitter-rotator (140, 142) being arranged to split two incoming polarization encoded qubits into four first optical modes, the apparatus being configured to align polarizations of the four first optical modes, and by the interferometer stage being configured to obtain, from the four first optical modes, the four second optical modes.
A method implemented in a mobile node of generating a network address for communicating over an Internet Protocol network, the method comprising: generating a backward key chain containing a plurality of backward keys; generating a home address from a first backward key in said backward key chain; generating a care-of address from a second backward key in said backward key chain preceding the first backward key to logically link said care-of address with said home address; and communicating with another network node over the communication network using the care-of address while the mobile node is in a visited network. generating a backward key chain containing a plurality of backward keys; generating a home address from a first backward key in said backward key chain; generating a care-of address from a second backward key in said backward key chain preceding the first backward key to logically link said care-of address with said home address; and communicating with another network node over the communication network using the care-of address while the mobile node is in a visited network.
A method of manufacturing a granulated raw material for sintering, wherein when a compounding raw material for sintering formed by compounding iron ore powder, carbon material, and auxiliary material is granulated in a granulator, water vapor is blown into the granulator thereby to increase the temperature of the granulated raw material for sintering to be higher than that of the compounding raw material for sintering before charged into the granulator by not less than 10 °C, characterized in that a blowing amount of the water vapor into the granulator is not less than 3.0 kg/t-s, and when the temperature of the granulated raw material for sintering discharged from the granulator exceeds 60°C, water content from industrial water, hot water, or condensate water is supplied so as to add water content equivalent to not less than 0.5% but not more than 3.0 mass% of that of the granulated raw material for sintering after granulation, in addition to the water content supplied by blowing water vapor. wherein when a compounding raw material for sintering formed by compounding iron ore powder, carbon material, and auxiliary material is granulated in a granulator, water vapor is blown into the granulator thereby to increase the temperature of the granulated raw material for sintering to be higher than that of the compounding raw material for sintering before charged into the granulator by not less than 10 °C, characterized in that a blowing amount of the water vapor into the granulator is not less than 3.0 kg/t-s, and when the temperature of the granulated raw material for sintering discharged from the granulator exceeds 60°C, water content from industrial water, hot water, or condensate water is supplied so as to add water content equivalent to not less than 0.5% but not more than 3.0 mass% of that of the granulated raw material for sintering after granulation, in addition to the water content supplied by blowing water vapor.
A computer-implemented method for refraction-based surface-consistent amplitude correction, the method comprising: receiving seismic traces, the seismic traces generated using at least one source and at least one receiver; sorting each of the seismic traces into a particular bin of a plurality of bins based on common midpoints (302, 304) and offsets between a source and a receiver associated with the seismic traces; calculating an amplitude residual for each seismic trace, wherein calculating the amplitude residual for each seismic trace comprises for each of the plurality of bins a) generating a pilot trace based on the seismic traces in that bin and a time window around a first arrival event, wherein the first arrival event is a refracted event, and b) calculating the amplitude residual for each seismic trace in that bin based on the pilot trace; determining surface-consistent amplitude residuals for the at least one source and the at least one receiver based on the amplitude residual for each seismic trace; and performing refraction-based surface-consistent amplitude correction on each seismic trace by applying the determined surface-consistent amplitude residuals for the at least one source and the at least one receiver. receiving seismic traces, the seismic traces generated using at least one source and at least one receiver; sorting each of the seismic traces into a particular bin of a plurality of bins based on common midpoints (302, 304) and offsets between a source and a receiver associated with the seismic traces; calculating an amplitude residual for each seismic trace, wherein calculating the amplitude residual for each seismic trace comprises for each of the plurality of bins a) generating a pilot trace based on the seismic traces in that bin and a time window around a first arrival event, wherein the first arrival event is a refracted event, and b) calculating the amplitude residual for each seismic trace in that bin based on the pilot trace; a) generating a pilot trace based on the seismic traces in that bin and a time window around a first arrival event, wherein the first arrival event is a refracted event, and b) calculating the amplitude residual for each seismic trace in that bin based on the pilot trace; determining surface-consistent amplitude residuals for the at least one source and the at least one receiver based on the amplitude residual for each seismic trace; and performing refraction-based surface-consistent amplitude correction on each seismic trace by applying the determined surface-consistent amplitude residuals for the at least one source and the at least one receiver.
A calibration apparatus for receiving links of array communication system, wherein each of the receiving links includes an antenna unit, a radio frequency cable, a duplexer, a low noise amplifier, which are connected in series; characterized in that the calibration apparatus for the receiving links includes: an uplink calibration signal generation device, an uplink calibration signal allocation device, a clock generation device, n couplers, an array receiver having a calibration function, and a power supply and feeder device; the uplink calibration signal generation device, which has one terminal connected to a first antenna unit and the other terminal connected to a first coupler of the n couplers corresponding to the first antenna unit, for separating downlink signal output from the first coupler, generating uplink calibration signal, and then outputting it to the uplink calibration signal allocation device; the uplink calibration signal allocation device, which has one terminal connected to the uplink calibration signal generation device, for dividing the uplink calibration signal into n uplink calibration signals, and outputting the same to the n couplers; the clock generation device, which has one terminal connected to the uplink calibration signal generation device, for providing the uplink calibration signal generation device with clock signal based on a control signal of a base station; the n couplers respectively corresponding to the n antenna units, each of which has one terminal connected, via the uplink calibration signal generation device, to one antenna unit of n the antenna units and the other terminal respectively connected to one of n the duplexers through the radio frequency cable, for coupling the uplink calibration signal with an uplink signal received by the antenna unit, and outputting them into one of the n duplexers and one of the low noise amplifiers; the array receiver having a calibration function, which has one terminal connected to the low noise amplifier, for receiving the uplink signal coupled with the uplink calibration signal output by the low noise amplifier, processing the received uplink signal, separating the uplink calibration signal, and based on separated the uplink calibration signal, calculating a calibration weigh value of a array receiving link and calibrating the receiving link; and the power supply and feeder device, which is located in the station and connected to the clock generation device, for providing the clock generation device with power supply, and sending control signal to the base station.
A measurement unit comprising: a case having a substantially pillar shape; an antenna unit that includes an antenna, the antenna being provided on the case and configured to communicate with an IC tag; and a sensor provided in the case, wherein the antenna unit is provided in a vicinity of a first end face as one end of the case; the sensor is provided inside the case and a back side of the case with respect to the antenna unit, and when viewed along a center axis of the case, the antenna unit overlaps with the sensor characterized in that the case has a first opening that opens to the first end face; the antenna unit has a substantially plate-like shape, and a wiring pattern as the antenna is formed on one surface of the antenna unit; and the antenna unit is provided in the first opening such that the antenna is exposed from an opening of the first opening. a case having a substantially pillar shape; an antenna unit that includes an antenna, the antenna being provided on the case and configured to communicate with an IC tag; and a sensor provided in the case, wherein the antenna unit is provided in a vicinity of a first end face as one end of the case; the sensor is provided inside the case and a back side of the case with respect to the antenna unit, and when viewed along a center axis of the case, the antenna unit overlaps with the sensor characterized in that the case has a first opening that opens to the first end face; the antenna unit has a substantially plate-like shape, and a wiring pattern as the antenna is formed on one surface of the antenna unit; and the antenna unit is provided in the first opening such that the antenna is exposed from an opening of the first opening.
A method of producing a hydrolysed pectic polysaccharide isolate that is enriched in rhamnogalacturonan-I, said method comprising the steps of: • providing a pectin-rich substrate selected from pomace, aqueous extract of pomace, oil cake, aqueous extract of oil cake and combinations thereof, said pectin-rich substrate being obtained from one or more crops selected from fruit, carrot, olive, peas, sugar beet, chicory, soy, sunflower, rapeseed and maize without the use of organic solvent, said pectin-rich substrate containing at least 3% by weight of dry matter of pectic polysaccharides having a backbone consisting of galacturonic acid residues and rhamnose residues, the rhamnose residues being contained in a backbone consisting of galacturonic acid residues and rhamnose residues, said rhamnose residues being contained in alpha(1→4)-galacturonic-alpha(1→2)-rhamnose residues; • subjecting the pectin-rich substrate to enzymatic treatment to partially hydrolyse the pectic polysaccharides, said enzymatic treatment comprising the use of one or more pectinases selected from pectin lyase (EC 4.2.2.10), pectate lyase (EC 4.2.2.2), endo-polygalacturonase (EC 3.2.1.15), exopolygalacturonase (EC 3.2.1.67 and EC 3.2.1.82); • subjecting the partially hydrolysed pectic polysaccharides to ultrafiltration using an ultrafiltration membrane having a molecular weight cut-off in the range of 5 to 100 kDa; and • recovering the ultrafiltration retentate. • providing a pectin-rich substrate selected from pomace, aqueous extract of pomace, oil cake, aqueous extract of oil cake and combinations thereof, said pectin-rich substrate being obtained from one or more crops selected from fruit, carrot, olive, peas, sugar beet, chicory, soy, sunflower, rapeseed and maize without the use of organic solvent, said pectin-rich substrate containing at least 3% by weight of dry matter of pectic polysaccharides having a backbone consisting of galacturonic acid residues and rhamnose residues, the rhamnose residues being contained in a backbone consisting of galacturonic acid residues and rhamnose residues, said rhamnose residues being contained in alpha(1→4)-galacturonic-alpha(1→2)-rhamnose residues; • subjecting the pectin-rich substrate to enzymatic treatment to partially hydrolyse the pectic polysaccharides, said enzymatic treatment comprising the use of one or more pectinases selected from pectin lyase (EC 4.2.2.10), pectate lyase (EC 4.2.2.2), endo-polygalacturonase (EC 3.2.1.15), exopolygalacturonase (EC 3.2.1.67 and EC 3.2.1.82); • subjecting the partially hydrolysed pectic polysaccharides to ultrafiltration using an ultrafiltration membrane having a molecular weight cut-off in the range of 5 to 100 kDa; and • recovering the ultrafiltration retentate.