mhurhangee/ep-ind-claims huggingface dataset:
A control apparatus for a wind turbine generator system in which power output from a plurality of wind turbines is supplied to a utility grid through a common connection point, the control apparatus for the wind turbine generator system characterized by comprising: a wind turbine classifying means for classifying the plurality of the wind turbines into a first wind turbine group that does not satisfy a rated wind speed condition and a second wind turbine group that satisfies the rated wind speed condition when an output power increase request is notified from the utility grid side while an output power reducing operation configured to deliberately cause a reduction in power output from the plurality of wind turbines and secure an output power reserve capacity is performed; target setting means for setting a target output power after reception of the output power increase request; first controlling means for releasing, for the wind turbines of the first wind turbine group, the output power reducing operation and causing the wind turbines of the first wind turbine group to perform an output power corresponding to a first wind condition; and second controlling means for supplementing a first deviation, which is a difference between a total output power of the first wind turbine group and the target output power, with an output power from the at least one wind turbine of the second wind turbine group. a wind turbine classifying means for classifying the plurality of the wind turbines into a first wind turbine group that does not satisfy a rated wind speed condition and a second wind turbine group that satisfies the rated wind speed condition when an output power increase request is notified from the utility grid side while an output power reducing operation configured to deliberately cause a reduction in power output from the plurality of wind turbines and secure an output power reserve capacity is performed; target setting means for setting a target output power after reception of the output power increase request; first controlling means for releasing, for the wind turbines of the first wind turbine group, the output power reducing operation and causing the wind turbines of the first wind turbine group to perform an output power corresponding to a first wind condition; and second controlling means for supplementing a first deviation, which is a difference between a total output power of the first wind turbine group and the target output power, with an output power from the at least one wind turbine of the second wind turbine group.
A method of producing an altered N-glycosylation form of a target protein, the method comprising: A) providing a Yarrowia lipolytica cell genetically engineered to comprise overexpression of Yarrowia lipolytica MNN4 and introducing into the cell a nucleic acid encoding a target protein, wherein the cell produces the target protein in altered N-glycosylation form; or B) providing a Yarrowia lipolytica cell genetically engineered to comprise overexpression of a biologically active variant of Yarrowia lipolytica MNN4 and introducing into the cell a nucleic acid encoding a target protein, wherein the cell produces the target protein in altered N-glycosylation form, wherein at least 80% of the N-glycans of the target protein are phosphorylated. A) providing a Yarrowia lipolytica cell genetically engineered to comprise overexpression of Yarrowia lipolytica MNN4 and introducing into the cell a nucleic acid encoding a target protein, wherein the cell produces the target protein in altered N-glycosylation form; or B) providing a Yarrowia lipolytica cell genetically engineered to comprise overexpression of a biologically active variant of Yarrowia lipolytica MNN4 and introducing into the cell a nucleic acid encoding a target protein, wherein the cell produces the target protein in altered N-glycosylation form, wherein at least 80% of the N-glycans of the target protein are phosphorylated.
A system comprising a memory management unit, wherein the memory management unit is configured to: detect that a first page will be migrated from a first memory location to a second memory location in a memory subsystem; locate a first page table entry corresponding to the first page; store a migration pending indication in the first PTE; and characterized in that: in response to detecting a translation request corresponding to a write request which targets the first PTE and detecting the migration pending indication in the first PTE: prevent the write operation from being performed to the first page; and generate a silent retry request, wherein the silent retry request does not include generating an interrupt or updating status registers. detect that a first page will be migrated from a first memory location to a second memory location in a memory subsystem; locate a first page table entry corresponding to the first page; store a migration pending indication in the first PTE; and characterized in that: in response to detecting a translation request corresponding to a write request which targets the first PTE and detecting the migration pending indication in the first PTE: prevent the write operation from being performed to the first page; and generate a silent retry request, wherein the silent retry request does not include generating an interrupt or updating status registers. prevent the write operation from being performed to the first page; and generate a silent retry request, wherein the silent retry request does not include generating an interrupt or updating status registers.
A method for decoding video data, the method comprising: receiving (1502, 1602), in a bitstream, significance syntax elements indicating whether each corresponding transform coefficient of transform coefficients of a current sub-block of a block is a non-zero transform coefficient; selecting (1504, 1604) a context pattern, which includes context values that correspond to the transform coefficients located in respective positions of the sub-block, from a plurality of context patterns, wherein the selected context pattern identifies contexts for two or more scan types of the current sub-block, wherein a scan type is a process of reading elements of a two-dimensional array to obtain a one-dimensional array; assigning (1506, 1606) context values of the selected context pattern to the significance syntax elements of the transform coefficients for the current sub-block based on positions of the context values in the selected context pattern and positions of the transform coefficients corresponding to significant syntax elements; and context adaptive binary arithmetic coding (CABAC) decoding (1508, 1608) the significance syntax elements of the transform coefficients of the current sub-block utilizing respective assigned context values. receiving (1502, 1602), in a bitstream, significance syntax elements indicating whether each corresponding transform coefficient of transform coefficients of a current sub-block of a block is a non-zero transform coefficient; selecting (1504, 1604) a context pattern, which includes context values that correspond to the transform coefficients located in respective positions of the sub-block, from a plurality of context patterns, wherein the selected context pattern identifies contexts for two or more scan types of the current sub-block, wherein a scan type is a process of reading elements of a two-dimensional array to obtain a one-dimensional array; assigning (1506, 1606) context values of the selected context pattern to the significance syntax elements of the transform coefficients for the current sub-block based on positions of the context values in the selected context pattern and positions of the transform coefficients corresponding to significant syntax elements; and context adaptive binary arithmetic coding (CABAC) decoding (1508, 1608) the significance syntax elements of the transform coefficients of the current sub-block utilizing respective assigned context values.
A method for subsiding motion sickness when a first user is following a viewport of a second user in a streaming session, performed by a computer system, the method comprising: determining a first field of view, FoV, based on a speed of a second FoV of the second user, wherein the second FoV of the second user is an original FoV with no reduction; generating a modified first FoV by at least one of reducing the first FoV based on the speed of the second FoV of the second user increasing, and increasing the first FoV based on the speed of the second FoV of the second user decreasing; and transmitting the modified first FoV to a first user terminal and presenting the modified first FoV to the first user as a new viewport, further comprising determining the speed of the second FoV of the second user to be a speed of a second user terminal being a head mounted display worn by the second user or a handheld device operated by the second user, further comprising determining the first FoV of the first user by applying a reducing factor to the second FoV of the second user, further comprising transmitting the reducing factor through a Session Description Protocol, SDP, to the second user terminal, wherein the reducing factor is defined by the first user. determining a first field of view, FoV, based on a speed of a second FoV of the second user, wherein the second FoV of the second user is an original FoV with no reduction; generating a modified first FoV by at least one of reducing the first FoV based on the speed of the second FoV of the second user increasing, and increasing the first FoV based on the speed of the second FoV of the second user decreasing; and transmitting the modified first FoV to a first user terminal and presenting the modified first FoV to the first user as a new viewport, further comprising determining the speed of the second FoV of the second user to be a speed of a second user terminal being a head mounted display worn by the second user or a handheld device operated by the second user, further comprising determining the first FoV of the first user by applying a reducing factor to the second FoV of the second user, further comprising transmitting the reducing factor through a Session Description Protocol, SDP, to the second user terminal, wherein the reducing factor is defined by the first user.
A terminal device, comprising: a periscope lens, the periscope lens comprising a filter, a reflective prism module, a zoom lens, and a sensor; wherein the filter is configured to filter a light ray transmitted from the outside; and the reflective prism module is configured to reflect twice a light ray into the sensor in combination with the zoom lens, wherein the light ray is obtained after the filtering by the filter; wherein a sensor of the periscope lens and a screen display of the terminal device are disposed in parallel in a length direction of the terminal device; characterised in that: the screen display of the terminal device has a cavity on the back, a reflective prism module and a zoom lens that are of the periscope lens form an extended area of the periscope lens between a filter and the sensor, at least a part of the extended area is located in the cavity, and at least a part of a vertical projection of the filter on the screen display of the terminal device is located on the screen display. the screen display of the terminal device has a cavity on the back, a reflective prism module and a zoom lens that are of the periscope lens form an extended area of the periscope lens between a filter and the sensor, at least a part of the extended area is located in the cavity, and at least a part of a vertical projection of the filter on the screen display of the terminal device is located on the screen display.
A process for preparing pyridine carboxylic acid comprising: oxidizing alkyl pyridine with oxygen or a source of oxygen in presence of water and a vanadia based catalyst along with catalyst support and metalloidadditive, wherein multi layered packing of said catalyst is employed, wherein the catalyst used is oxide of vanadium along with oxide of titanium as a support and oxide of metalloid additive, and isolating the pyridine carboxylic acid, wherein the packing of catalyst bed is done with a compound selected from the group comprising of silica, alumina, inert alumina, silicon carbide, titanium oxide, diatomaceous earth, zeolite and mixtures thereof,. oxidizing alkyl pyridine with oxygen or a source of oxygen in presence of water and a vanadia based catalyst along with catalyst support and metalloidadditive, wherein multi layered packing of said catalyst is employed, wherein the catalyst used is oxide of vanadium along with oxide of titanium as a support and oxide of metalloid additive, and isolating the pyridine carboxylic acid, wherein the packing of catalyst bed is done with a compound selected from the group comprising of silica, alumina, inert alumina, silicon carbide, titanium oxide, diatomaceous earth, zeolite and mixtures thereof,.
Paint spray system (1; 601), especially an HVLP paint spray system (1', 601'), comprising: - a paint sprayer (2; 602), a pressurized air generator (3; 603), a pressurized air duct (4; 604) and an air control mechanism (5; 101; 201; 301; 401; 501; 605; 701), - wherein the paint sprayer (2; 602) has a spray nozzle (9; 609), - wherein the pressurized air generator (3; 603) has a blower (15; 615), - wherein the pressurized air duct (4; 604) connects the blower to the spray nozzle (9; 609), - wherein the air control mechanism (5; 101; 201; 301; 401; 501; 605; 701) comprises a throttle mechanism (18; 618), and - wherein the air control mechanism (5; 101; 201; 301; 401; 501; 605; 701) is situated in the course of the pressurized air duct (4; 604), characterized in that - the air control mechanism (5; 101; 201; 301; 401; 501; 605; 701) comprises an outlet mechanism (19; 619), - wherein a decreasing of an aperture cross section of the throttle mechanism (18; 618) automatically leads to an increasing of an aperture cross section of the outlet mechanism (19; 619) and wherein an increasing of the aperture cross section of the throttle mechanism (18; 618) automatically leads to a decreasing of the aperture cross section of the outlet mechanism (19; 619), - wherein the aperture cross sections (A18; A19) existing in individual settings of the throttle mechanism (18; 618) and the outlet mechanism (19; 619) are attuned to each other such that a dynamic pressure generated at the blower (15; 615) remains constant in the individual aperture settings (A18; A19) of the throttle mechanism (18; 618) and the outlet mechanism (19; 619). - a paint sprayer (2; 602), a pressurized air generator (3; 603), a pressurized air duct (4; 604) and an air control mechanism (5; 101; 201; 301; 401; 501; 605; 701), - wherein the paint sprayer (2; 602) has a spray nozzle (9; 609), - wherein the pressurized air generator (3; 603) has a blower (15; 615), - wherein the pressurized air duct (4; 604) connects the blower to the spray nozzle (9; 609), - wherein the air control mechanism (5; 101; 201; 301; 401; 501; 605; 701) comprises a throttle mechanism (18; 618), and - wherein the air control mechanism (5; 101; 201; 301; 401; 501; 605; 701) is situated in the course of the pressurized air duct (4; 604), - the air control mechanism (5; 101; 201; 301; 401; 501; 605; 701) comprises an outlet mechanism (19; 619), - wherein a decreasing of an aperture cross section of the throttle mechanism (18; 618) automatically leads to an increasing of an aperture cross section of the outlet mechanism (19; 619) and wherein an increasing of the aperture cross section of the throttle mechanism (18; 618) automatically leads to a decreasing of the aperture cross section of the outlet mechanism (19; 619), - wherein the aperture cross sections (A18; A19) existing in individual settings of the throttle mechanism (18; 618) and the outlet mechanism (19; 619) are attuned to each other such that a dynamic pressure generated at the blower (15; 615) remains constant in the individual aperture settings (A18; A19) of the throttle mechanism (18; 618) and the outlet mechanism (19; 619).
A process for deposition of indium or indium alloys comprising the steps i. providing a substrate having at least one metal or metal alloy surface, the at least one metal or metal alloy surface consisting of one or more than one selected from the group consisting of nickel, cobalt, ruthenium or alloys of any of the aforementioned; ii. depositing a first indium or indium alloy layer on at least one portion of said surface whereby a composed phase layer is formed of a part of the metal or metal alloy surface and a part of the first indium or indium alloy layer; iii. removing wholly the part of the first indium or indium alloy layer which has not been formed into the composed phase layer, wherein the composed phase layer is not substantially removed in step iii. of the process, wherein more than 90 wt.-% of the composed phase layer remain after step iii.; iv. depositing a second indium or indium alloy layer on the at least one portion of the surface obtained in step iii. i. providing a substrate having at least one metal or metal alloy surface, the at least one metal or metal alloy surface consisting of one or more than one selected from the group consisting of nickel, cobalt, ruthenium or alloys of any of the aforementioned; ii. depositing a first indium or indium alloy layer on at least one portion of said surface whereby a composed phase layer is formed of a part of the metal or metal alloy surface and a part of the first indium or indium alloy layer; iii. removing wholly the part of the first indium or indium alloy layer which has not been formed into the composed phase layer, wherein the composed phase layer is not substantially removed in step iii. of the process, wherein more than 90 wt.-% of the composed phase layer remain after step iii.; iv. depositing a second indium or indium alloy layer on the at least one portion of the surface obtained in step iii.
An in-house, rail-mounted transport system with self-propelled carriages, which run on rails, wherein the system includes stoppers to prevent riding over open track ends or boundaries of tracks, and is provided with abutments, wherein the stoppers collide with the abutments to prevent crossing over, wherein the abutments include first and second immovable abutment elements (9a, b), characterised in that the stoppers are movable between a first riding over position and a second riding over position such that the first abutment elements may be ridden over in the first riding over position of the stoppers, the second abutment elements may be ridden over in the second riding over position of the stoppers and that the first abutment elements may not be ridden over in the second riding over position of the stoppers and that the second abutment elements may not be ridden over in the first riding over position of the stoppers.
Heat exchanger for the exchange of heat between a first and a second fluid, notably for supplying air to a motor vehicle combustion engine, comprising at least one heat exchange core bundle through which the first fluid F1 passes and a casing in which said heat exchange core bundle is housed so that the second fluid F2 can pass through it, the heat exchange core bundle comprising plates for the circulation of the first fluid F1 which are stacked on one another, at least one of said plates having a rim placed between said heat exchange core bundle and said casing so as to limit the extent to which the second fluid F2 can bypass the core bundle, said casing being closed along one of its faces by a plate referred to as the frontal flange, to which said heat exchange core bundle being fixed and in which said heat exchange core bundle comprises, on a face opposite to said frontal flange, a plate referred to as a structural plate, characterized in that said structural plate comprises at least one edge passing through a plane containing said rim or rims of the plates.
A process for producing a polythiourethane resin which comprises a step of synthesizing a polythiol oligomer having disulfide bond by reaction of a polythiol compound having a functionality of two or greater and sulfur and a step of bringing the polythiol oligomer obtained in step and a compound having poly(thio)isocyanate groups into reaction with each other, wherein step is conducted in absence of solvents using no catalysts or a catalyst substantially inert to the compound having poly(thio)isocyanate groups, characterized in that relative amounts of the polythiol compound having a functionality of two or greater and sulfur are such that a ratio of amounts by mole equivalent of mercapto group in the polythiol compound having a functionality of two or greater to S/2 is in a range of 1:0.01 to 1:0.5.
A burner with a thermoelectric generator, the functioning of which is based on the Seebeck effect, having an external jacket in which nozzles are made which supply the fuel-and-air mix from a fuel-and-air mix duct to the outer surface of the external jacket, where the mix burns, the thermoelectric generator takes the form of a thermoelectric coating applied to these elements of the burner which are in thermal contact with combustion gases, where the coating contains a thermoelectric layer having two semiconductor sub-layers 'p' and 'n' which do not contact each other and are interconnected in series with layered conducting elements (2a, 2b) fitted with connection ends (4, 5) to evacuate the generated electric energy, and where the coating is electrically insulated on conducting elements (2a, 2b) with layers (3a, 3b) of electrical insulator containing inorganic oxides, characterised in that the fuel-and-air mix duct is formed inside the external jacket, and the width (s) of each semiconductor sub-layer 'p' and 'n' of the thermoelectric layer of the coating ranges from 0.1mm to 2mm, the thickness (d 2) of the layered conducting elements (2a, 2b) falls within the range from 1 μm to 5μm, whereas the total thickness of the coating is 50 μm or less.