mhurhangee/ep-ind-claims huggingface dataset:
Method for operating a gas turbine below its rated power, having the steps of: - determining a lower power limit value (p 1) for the gas turbine as that power limit value beyond which further lowering of the output gas turbine power leads to departure from a partial load range of the gas turbine in accordance with CO emissions limits, - preparing a predefined limit value (p 2) for an output gas turbine power, wherein the predefined limit value (p 2) is smaller than the rated power of the gas turbine, - operating the gas turbine with an output gas turbine power above the predefined limit value (p 2) with a constant averaged exhaust gas temperature, or a control variable calculated therefrom, - wherein in order to lower the output gas turbine power the inlet guide vanes of a compressor of the gas turbine are closed further, - lowering the output gas turbine power, wherein, if the output gas turbine power drops below the predefined limit value (p 2), the exhaust gas temperature of the gas turbine continues to be raised, as the gas turbine power continues to be lowered, up to a maximum exhaust gas temperature, - characterized by the step that: the predefined limit value (p 2) is chosen such that the temperature rises extend over as large as possible a partial load range of the gas turbine in accordance with CO emissions limits. - determining a lower power limit value (p 1) for the gas turbine as that power limit value beyond which further lowering of the output gas turbine power leads to departure from a partial load range of the gas turbine in accordance with CO emissions limits, - preparing a predefined limit value (p 2) for an output gas turbine power, wherein the predefined limit value (p 2) is smaller than the rated power of the gas turbine, - operating the gas turbine with an output gas turbine power above the predefined limit value (p 2) with a constant averaged exhaust gas temperature, or a control variable calculated therefrom, - wherein in order to lower the output gas turbine power the inlet guide vanes of a compressor of the gas turbine are closed further, - lowering the output gas turbine power, wherein, if the output gas turbine power drops below the predefined limit value (p 2), the exhaust gas temperature of the gas turbine continues to be raised, as the gas turbine power continues to be lowered, up to a maximum exhaust gas temperature, - characterized by the step that: the predefined limit value (p 2) is chosen such that the temperature rises extend over as large as possible a partial load range of the gas turbine in accordance with CO emissions limits. the predefined limit value (p 2) is chosen such that the temperature rises extend over as large as possible a partial load range of the gas turbine in accordance with CO emissions limits.
A header for a combine harvester including a conveyor belt for conveying crop material in a conveyance direction, the header further comprising an adjusting device for adjusting a tension of the conveyor belt, characterized in that the adjusting device comprises a cable that is movable with respect to a frame member of the header, wherein a first attachment portion of the cable is either directly or indirectly attached to one end of a roller for the conveyor belt, and wherein the first attachment portion extends either parallel to or substantially parallel to a tensioning direction of the conveyor belt for adjusting the tension of the conveyor belt, wherein the cable is connected to a shaft that is biased by a spring to maintain the conveyor belt in a state of tension and wherein the spring is positioned against the frame member. an adjusting device for adjusting a tension of the conveyor belt, characterized in that the adjusting device comprises a cable that is movable with respect to a frame member of the header, wherein a first attachment portion of the cable is either directly or indirectly attached to one end of a roller for the conveyor belt, and wherein the first attachment portion extends either parallel to or substantially parallel to a tensioning direction of the conveyor belt for adjusting the tension of the conveyor belt, wherein the cable is connected to a shaft that is biased by a spring to maintain the conveyor belt in a state of tension and wherein the spring is positioned against the frame member.
A method of reducing cold startup time of a genset for providing a requested power to a utility grid or load, the genset comprising an engine, an exhaust system, and a generator, the method comprising: determining if the generator is electrically coupled to a utility grid or load; in response to determining the generator is electrically coupled to the utility grid or load: controlling a speed bias value representing a difference between a target power output and a current power output being produced by the genset; wherein in response to determining that an exhaust system temperature of the exhaust system is below a predetermined temperature threshold, the speed bias value is controlled to ramp a genset power based on the current power output; and in response to determining that the exhaust system temperature is above the predetermined temperature threshold, the speed bias value is controlled based on time; and controlling the power of the engine using the speed bias value. determining if the generator is electrically coupled to a utility grid or load; in response to determining the generator is electrically coupled to the utility grid or load: controlling a speed bias value representing a difference between a target power output and a current power output being produced by the genset; wherein in response to determining that an exhaust system temperature of the exhaust system is below a predetermined temperature threshold, the speed bias value is controlled to ramp a genset power based on the current power output; and in response to determining that the exhaust system temperature is above the predetermined temperature threshold, the speed bias value is controlled based on time; and controlling the power of the engine using the speed bias value. controlling a speed bias value representing a difference between a target power output and a current power output being produced by the genset; wherein in response to determining that an exhaust system temperature of the exhaust system is below a predetermined temperature threshold, the speed bias value is controlled to ramp a genset power based on the current power output; and in response to determining that the exhaust system temperature is above the predetermined temperature threshold, the speed bias value is controlled based on time; and in response to determining that an exhaust system temperature of the exhaust system is below a predetermined temperature threshold, the speed bias value is controlled to ramp a genset power based on the current power output; and in response to determining that the exhaust system temperature is above the predetermined temperature threshold, the speed bias value is controlled based on time; and controlling the power of the engine using the speed bias value.
An anode for electrowinning in a sulfuric acid based electrolytic solution, wherein a catalytic layer containing amorphous ruthenium oxide and amorphous tantalum oxide is formed on a conductive substrate.
Second stage device for reducing the pressure of a breathable gas mixture for a dispenser of a self-breathing system for underwater use, comprising an inlet chamber of the gas mixture and a breathing chamber, which chambers (1, 2) are connected to each other by means of a valve, which valve is provided with a valve seat and a movable shutter and elastic stressing means of the shutter towards the closing condition of the valve, the breathing chamber being delimited in part by a flexible membrane connected to the shutter by an actuating lever so that a displacement of the flexible membrane towards the interior of the breathing chamber causes a displacement of the shutter in the opening direction of the valve, a balancing chamber being provided and the shutter being hollow and provided with an insertion shaft in a mouth of the chamber in the position opposite the valve, which device comprises a barrier element adapted to separate the mouth of the balancing chamber from the breathing chamber, wherein the barrier element has a separation wall of the balancing chamber from the breathing chamber, which wall is provided with a through hole for the sliding housing of the shaft, characterized in that the barrier element comprises a gasket ring adapted to make a hydraulic seal on the mantle surface of the shaft, which gasket ring is interposed between the separation wall and the mouth of the balancing chamber, and in that the mouth of the balancing chamber is shaped so as to form a bushing end, the barrier element being cup-shaped comprising a side wall and a bottom wall, which bottom wall is formed by the separation wall, and the barrier element being coupled to the bushing end. which device comprises a barrier element adapted to separate the mouth of the balancing chamber from the breathing chamber, wherein the barrier element has a separation wall of the balancing chamber from the breathing chamber, which wall is provided with a through hole for the sliding housing of the shaft, characterized in that the barrier element comprises a gasket ring adapted to make a hydraulic seal on the mantle surface of the shaft, which gasket ring is interposed between the separation wall and the mouth of the balancing chamber, and in that the mouth of the balancing chamber is shaped so as to form a bushing end, the barrier element being cup-shaped comprising a side wall and a bottom wall, which bottom wall is formed by the separation wall, and the barrier element being coupled to the bushing end.
An antibacterial liquid comprising: an antibacterial microparticle; a binder; a solvent; and an anionic dispersant; wherein the antibacterial microparticle contains a silver-supporting inorganic oxide; the average particle size of the antibacterial microparticles is 1.0 μm or less; the binder includes at least one siloxane compound represented by General Formula: wherein R 1, R 2, R 3, and R 4 each independently represent an alkyl group having 1 to 6 carbon atoms; and n represents an integer from 1 to 100; the content of the siloxane compound in the binder is 70% by mass or more; the solvent includes an alcohol and water; the content of the alcohol is 10% by mass or more with respect to the total mass of the antibacterial liquid; and wherein the content of the anionic dispersant is 50% by mass or more with respect to the content of the antibacterial microparticles. wherein R 1, R 2, R 3, and R 4 each independently represent an alkyl group having 1 to 6 carbon atoms; and n represents an integer from 1 to 100; the content of the siloxane compound in the binder is 70% by mass or more; the solvent includes an alcohol and water; the content of the alcohol is 10% by mass or more with respect to the total mass of the antibacterial liquid; and wherein the content of the anionic dispersant is 50% by mass or more with respect to the content of the antibacterial microparticles.
A contrast enhancement agent comprising an iron chelate having structure I and salts thereof wherein R 1 is independently at each occurrence a hydroxy group, a C 1 -C 3 hydroxyalkyl group, or a C 1 -C 3 alkyl group, and b is 0-4; R 2 -R 7 are independently at each occurrence hydrogen, a C 1 -C 3 hydroxyalkyl group, or a C 1 -C 3 alkyl group, with the proviso that at least one of R 1 - R 7 is a hydroxy group or a C 1 -C 3 hydroxyalkyl group; and wherein Q is one or more charge balancing counterions.
A composition suitable for ceramming to make a colored, machinable glass-ceramic article, said composition, as batched, consisting essentially of, weight percent: (i) a colorant in an amount of 0 wt% < colorant ≤3 wt%, except that when the colorant is iron the colorant is present in an amount of 0 wt% < colorant ≤20 wt%; and (ii) a precursor glass composition selected from the group of: a. compositions containing a trisilicic mica phase after ceramming that comprises 25-60% SiO 2, 5-25% Al 2 O 3, 5-15% B 2 O 3, 5-25% MgO, 4-20% F, 0-7% Li 2 O, 0-15% K 2 O, 0-15% Na 2 O, 0-15% Rb 2 O, 0-20% Cs 2 O, 2-20% total of K 2 O + Na 2 O + Rb 2 O + Cs 2 O, 15-35% total of Al 2 O 3 + B 2 O 3 and 6-25% total of MgO + Li 2 O; and b. compositions containing a non-alkali-oxide-containing mica phase after ceramming that comprises 30-65% SiO 2, 5-26% Al 2 O 3, 10-35% MgO, 4-12% F, 5-25% SrO and 0-25% BaO. (i) a colorant in an amount of 0 wt% < colorant ≤3 wt%, except that when the colorant is iron the colorant is present in an amount of 0 wt% < colorant ≤20 wt%; and (ii) a precursor glass composition selected from the group of: a. compositions containing a trisilicic mica phase after ceramming that comprises 25-60% SiO 2, 5-25% Al 2 O 3, 5-15% B 2 O 3, 5-25% MgO, 4-20% F, 0-7% Li 2 O, 0-15% K 2 O, 0-15% Na 2 O, 0-15% Rb 2 O, 0-20% Cs 2 O, 2-20% total of K 2 O + Na 2 O + Rb 2 O + Cs 2 O, 15-35% total of Al 2 O 3 + B 2 O 3 and 6-25% total of MgO + Li 2 O; and b. compositions containing a non-alkali-oxide-containing mica phase after ceramming that comprises 30-65% SiO 2, 5-26% Al 2 O 3, 10-35% MgO, 4-12% F, 5-25% SrO and 0-25% BaO. a. compositions containing a trisilicic mica phase after ceramming that comprises 25-60% SiO 2, 5-25% Al 2 O 3, 5-15% B 2 O 3, 5-25% MgO, 4-20% F, 0-7% Li 2 O, 0-15% K 2 O, 0-15% Na 2 O, 0-15% Rb 2 O, 0-20% Cs 2 O, 2-20% total of K 2 O + Na 2 O + Rb 2 O + Cs 2 O, 15-35% total of Al 2 O 3 + B 2 O 3 and 6-25% total of MgO + Li 2 O; and b. compositions containing a non-alkali-oxide-containing mica phase after ceramming that comprises 30-65% SiO 2, 5-26% Al 2 O 3, 10-35% MgO, 4-12% F, 5-25% SrO and 0-25% BaO.
A method of deoxygenating tall oil pitch, wherein - tall oil pitch, which contains a share of fatty and resin acids and/or their derivatives, is heated to a temperature sufficient to turn it liquid; - said liquid is fed into a catalyst bed, to bring it into contact with hydrogen and one or more catalysts (2, 3) in said catalyst bed, said catalysts including a NiMo deoxygenation catalyst; - the feed is catalytically deoxygenated with hydrogen; and - a gaseous effluent from the bed is cooled down, to yield a liquid product, which comprises aliphatic and aromatic hydrocarbons and which has been substantially completely deoxygenated. - tall oil pitch, which contains a share of fatty and resin acids and/or their derivatives, is heated to a temperature sufficient to turn it liquid; - said liquid is fed into a catalyst bed, to bring it into contact with hydrogen and one or more catalysts (2, 3) in said catalyst bed, said catalysts including a NiMo deoxygenation catalyst; - the feed is catalytically deoxygenated with hydrogen; and - a gaseous effluent from the bed is cooled down, to yield a liquid product, which comprises aliphatic and aromatic hydrocarbons and which has been substantially completely deoxygenated.
An immunoassay device for identifying Staphylococcus aureus pathogens inducing a systemic inflammatory response, especially sepsis, characterized in that it comprises at least one panel of antigens of a plurality of strains of Staphylococcus aureus, wherein the antigens are bifunctional autolysin (Atl), glycerol phosphate lipoteichoic acid synthase (LtaS),α-toxin (Hla), the components A, B and C of the gamma hemolysin (HlgA-C), leukocidin F and S (LukF, LukS), leukocidin-like protein, 1-phosphatidylinositol phosphodiesterase (Plc) and thermonuclease (Nuc) and wherein the at least one panel of antigens is immobilized on at least one support.
A machine (100, 200, 220) for grinding a work-piece (205, 300) using a grinding tool, the machine comprising a spindle comprising a work-piece holder (135, 235) for holding the work-piece (205, 300) and a motor (125, 225) connected to the spindle so as to rotate the work-piece during grinding, the machine (100, 200, 220) further comprising a tool post (140, 240) for mounting and maneuvering the grinding tool relative to the work-piece (205, 300), wherein the machine (100, 200, 220) further comprises a print system (110, 210) for printing printable material (250, 450, 550, 650) to the work-piece (205, 300) via additive manufacturing, wherein the print system (110, 210) is configured and constructed for printing printable material to the work-piece (205, 300) while, in use, the work-piece (205, 300) remains connected to the work-piece holder (135, 235) wherein the machine (100, 200, 220) comprises a controller configured to control the rotation of the work-piece during both grinding and additive manufacturing and the machine (100, 200, 220) being characterized in that it further comprises surface treatment means configured to perform: - cleaning a surface of the work-piece (205, 300) before, in use, applying the printable material (250, 450, 550, 650), and - roughening the surface of the work-piece (205, 300) before, in use, applying the printable material to the work-piece (205, 300) whereby the surface roughening generates attachment elements that improve the bonding between the workpiece surface and the printable material. - cleaning a surface of the work-piece (205, 300) before, in use, applying the printable material (250, 450, 550, 650), and - roughening the surface of the work-piece (205, 300) before, in use, applying the printable material to the work-piece (205, 300) whereby the surface roughening generates attachment elements that improve the bonding between the workpiece surface and the printable material.
A compound, or pharmaceutically acceptable salt thereof, comprising a vascular disrupting agent associated with a peptide comprising a matrix metalloproteinase proteolytic cleavage site, wherein the VDA is an anti-cancer and tubulin binding agent, and the MMP proteolytic cleavage site comprises an amino acid sequence -Arg-Ser-Cit-Gly-Hof-P2'-Leu- wherein P2' is an amino acid and is not tyrosine.
A method of dicing a semiconductor wafer comprising a plurality of integrated circuits, the method comprising: forming a mask above the semiconductor wafer, the mask comprising a water-soluble matrix based on a solid component and water, and the mask comprising a light-absorber species throughout the water-soluble matrix; patterning the mask and a portion of the semiconductor wafer with a laser scribing process to provide a patterned mask with gaps and corresponding trenches in the semiconductor wafer in regions between the integrated circuits, wherein patterning with a laser scribing process comprises patterning with a laser beam, wherein the light-absorber species of the mask substantially confines a first low intensity portion of the laser beam to the mask during the patterning, and wherein a second high intensity portion of the laser beam is substantially confined to the semiconductor wafer during the patterning; and plasma etching the semiconductor wafer through the gaps in the patterned mask to extend the trenches and to singulate the integrated circuits, wherein the patterned mask protects the integrated circuits during the plasma etching, wherein the light-absorber species is a water soluble dye dissolved in the water-soluble matrix, and wherein the mask further comprises a plurality of particles dispersed throughout the water-soluble matrix, the plurality of particles being different from the light-absorber species. forming a mask above the semiconductor wafer, the mask comprising a water-soluble matrix based on a solid component and water, and the mask comprising a light-absorber species throughout the water-soluble matrix; patterning the mask and a portion of the semiconductor wafer with a laser scribing process to provide a patterned mask with gaps and corresponding trenches in the semiconductor wafer in regions between the integrated circuits, wherein patterning with a laser scribing process comprises patterning with a laser beam, wherein the light-absorber species of the mask substantially confines a first low intensity portion of the laser beam to the mask during the patterning, and wherein a second high intensity portion of the laser beam is substantially confined to the semiconductor wafer during the patterning; and plasma etching the semiconductor wafer through the gaps in the patterned mask to extend the trenches and to singulate the integrated circuits, wherein the patterned mask protects the integrated circuits during the plasma etching, wherein the light-absorber species is a water soluble dye dissolved in the water-soluble matrix, and wherein the mask further comprises a plurality of particles dispersed throughout the water-soluble matrix, the plurality of particles being different from the light-absorber species.
Method performed by a network node operating according to New Radio, NR, in a radio access network, the method comprising transmitting data signaling in a NR slot overlapping a Long Term Evolution, LTE, Multimedia Broadcast Single Frequency Network, MBSFN, subframe, wherein the data signaling is signaling on a data channel, wherein a transmission resource structure for which the data signaling is scheduled represents a time-frequency resource structure comprising N1 subcarriers and M1 symbols within said NR slot, the method being characterized in that the data signaling is rate-matched to not use resource elements indicated for Cell-Specific Reference signals, CRS, according to a configuration for CRS for LTE non-MBSFN subframes, wherein the configuration for CRS indicates where CRS is located in non-MBSFN subframes, and wherein the configuration for CRS is indicated with a coexistence indication. wherein a transmission resource structure for which the data signaling is scheduled represents a time-frequency resource structure comprising N1 subcarriers and M1 symbols within said NR slot, the method being characterized in that the data signaling is rate-matched to not use resource elements indicated for Cell-Specific Reference signals, CRS, according to a configuration for CRS for LTE non-MBSFN subframes, wherein the configuration for CRS indicates where CRS is located in non-MBSFN subframes, and wherein the configuration for CRS is indicated with a coexistence indication.