mhurhangee/patent-ind-claim-en huggingface dataset:
A method for controlling a reactive power source in a wind power plant comprising a plurality of wind turbines, the reactive power source being a capacitive or an inductive energy source or a combination thereof, the method comprising the steps of: - providing a wind turbine reactive power control signal for a wind turbine of the wind power plant, - providing an active power reference signal, said active power reference signal being a measure of an active power production of the wind power plant, the method being characterised by comprising the step of - generating a control signal for the reactive power source by combining the wind turbine reactive power control signal and the active power reference signal. - providing a wind turbine reactive power control signal for a wind turbine of the wind power plant, - providing an active power reference signal, said active power reference signal being a measure of an active power production of the wind power plant, the method being characterised by comprising the step of - generating a control signal for the reactive power source by combining the wind turbine reactive power control signal and the active power reference signal.
Electrolysis device having - a plurality of electrolysis cells that are electrically connected in series and are arranged successively at least partly in a stack direction , wherein the series connection is electrically couplable to an electrical energy source , - a cell supply unit for supplying the electrolysis cells for operation as intended with at least one operating material, and - supply conduits connected to the cell supply unit and to opposite ends of the successively arranged electrolysis cells , characterized in that a negative electric potential of the electrical energy source is electrically couplable to an electric reference potential of the cell supply unit . - a plurality of electrolysis cells that are electrically connected in series and are arranged successively at least partly in a stack direction , wherein the series connection is electrically couplable to an electrical energy source , - a cell supply unit for supplying the electrolysis cells for operation as intended with at least one operating material, and - supply conduits connected to the cell supply unit and to opposite ends of the successively arranged electrolysis cells ,
An ammoxidation reactor comprising a sparger , said sparger being effective for supplying an ammonia feed mixture from outside the ammoxidation reactor , through a reactor wall of the reactor and into a fluidized bed of ammoxidation catalyst inside the reactor , the sparger comprising a main header conduit , a sparger inlet in fluid communication with the main header conduit , and multiple lateral sparger conduits in fluid communication with the main header sparger conduit , the lateral sparger conduits defining feed nozzles for discharging the ammonia containing feed mixture into the fluidized bed of ammoxidation catalyst , wherein the sparger is composed of multiple feed sparger sections arranged inside the reactor in an essentially side by side relationship with respect to one another, each feed sparger section having its own sparger inlet for receiving ammonia containing feed from outside the reactor, its own main header conduit and its own system of lateral sparger conduits, and wherein the sparger further comprises a common feed header conduit located outside the reactor , the inlet port of each feed sparger section being in fluid communication with the common feed header, each sparger section further including a control valve (120, 122, 124 and 126) for controlling the flow of propylene/ammonia feed mixture into that feed sparger section.
A method for controlling uplink power allocation in a user equipment operating in a communication network, the method comprising: selecting between at least a first uplink power allocation technique and a second power allocation technique for use in the user equipment ; and using the selected power allocation technique in the user equipment to transmit uplink data by allocating transmit power between at least two carriers on which the uplink data is transmitted, wherein the first uplink power allocation technique is a parallel split power allocation which is determined based on dedicated physical control channel quality and a serving grant for each carrier, and wherein the second uplink power allocation technique is a power sensitive power allocation scheme in which power is allocated sequentially from best to worst carrier up to a serving grant for each carrier. selecting between at least a first uplink power allocation technique and a second power allocation technique for use in the user equipment ; and using the selected power allocation technique in the user equipment to transmit uplink data by allocating transmit power between at least two carriers on which the uplink data is transmitted, wherein the first uplink power allocation technique is a parallel split power allocation which is determined based on dedicated physical control channel quality and a serving grant for each carrier, and wherein the second uplink power allocation technique is a power sensitive power allocation scheme in which power is allocated sequentially from best to worst carrier up to a serving grant for each carrier.
A pharmaceutical composition comprising a therapeutically effective amount of a thiazolide compound, wherein the thiazolide compound is N-(5-chlorothiazol-2-yl)-2-hydroxybenzamide, or a salt thereof, for use in stimulating an immune response in a subject in need thereof, wherein the subject suffers from an influenza viral infection, wherein stimulating the immune response results in treatment of the influenza viral infection in the subject.
A method comprising: assigning, by an aggregation device that manages interface configuration of a satellite device coupled to the aggregation device by a plurality of cascade ports of the aggregation device connected to a plurality of respective uplink ports on the satellite device, an active cascade port and a backup cascade port from the plurality of cascade ports for each extended port of a plurality of extended ports of the satellite device connected to a plurality of host devices; and allocating, by the aggregation device, one or more resources of the aggregation device only for the assigned active cascade port and the assigned backup cascade port for each extended port of the plurality of extended ports of the satellite device; receiving, by the aggregation device, a packet destined for a host device of the plurality of host devices, said host device coupled to the satellite device by an extended port of the plurality of extended ports; determining, by the aggregation device, an active cascade port assigned to the extended port; and forwarding, by the aggregation device and to the satellite device, the packet through the active cascade port. assigning, by an aggregation device that manages interface configuration of a satellite device coupled to the aggregation device by a plurality of cascade ports of the aggregation device connected to a plurality of respective uplink ports on the satellite device, an active cascade port and a backup cascade port from the plurality of cascade ports for each extended port of a plurality of extended ports of the satellite device connected to a plurality of host devices; and allocating, by the aggregation device, one or more resources of the aggregation device only for the assigned active cascade port and the assigned backup cascade port for each extended port of the plurality of extended ports of the satellite device; receiving, by the aggregation device, a packet destined for a host device of the plurality of host devices, said host device coupled to the satellite device by an extended port of the plurality of extended ports; determining, by the aggregation device, an active cascade port assigned to the extended port; and forwarding, by the aggregation device and to the satellite device, the packet through the active cascade port.
Grooved and perforated turn roll of a fiber web machine including a shell and grooves formed on the surface of the shell , with suction holes extending through the shell disposed at the bottom of the grooves in the inward area of the edges , characterized in that the open area (A R ) of the suction hole is at least two times larger than the cross-sectional area (A U ) of the groove , and the bottom of the groove has at least one radius of curvature (R), the center of curvature of which is outside the groove .
A method for controlling a U-shape single phase synchronous permanent magnetic motor (U-SPSPM motor) having a rotor and a stator and coupled to a single phase alternating current (AC) power source through a switch, the method comprising: measuring a feedback signal representative of voltage across the motor leads; measuring a feedback signal representative of current through the motor ; measuring a feedback signal indicative of a zero-crossing of the single phase AC power source ; estimating back electromotive force (back-EMF) of the motor based on an observer model with inputs indicative of the measured feedback signals; estimating a rotational speed of the motor and a position of the rotor based on the estimation of the back-EMF; and triggering the switch to supply power to the motor based on the estimates of the rotational speed of the motor and the position of the rotor. measuring a feedback signal representative of voltage across the motor leads; measuring a feedback signal representative of current through the motor ; measuring a feedback signal indicative of a zero-crossing of the single phase AC power source ; estimating back electromotive force (back-EMF) of the motor based on an observer model with inputs indicative of the measured feedback signals; estimating a rotational speed of the motor and a position of the rotor based on the estimation of the back-EMF; and triggering the switch to supply power to the motor based on the estimates of the rotational speed of the motor and the position of the rotor.
An occlusion-capable optical see-through head-mount display, OCOST-HMD, comprising: a polarization element configured to receive light from a real scene and to produce polarized light at the output thereof; a polarizing beam splitter, PBS, ; an objective lens ; a spatial light modulator, SLM, ; an eyepiece lens ; a quarter wave plate, QWP, ; and a reflective optical element configured to reflect substantially all or a portion of light that is incident thereupon in a first direction, and to transit substantially all or a portion of light received from a microdisplay that is incident thereupon from a second direction, wherein the SLM and the objective lens form a first double-pass configuration that allows at least a portion of light that passes through the objective lens to be reflected from the SLM and to propagate again through the objective lens, and the eyepiece lens and the reflective optical element form a second double-pass configuration that allows at least a portion of light that passes through the eyepiece lens to be reflected from the reflective optical element and to propagate again through the eyepiece lens. a polarization element configured to receive light from a real scene and to produce polarized light at the output thereof; a polarizing beam splitter, PBS, ; an objective lens ; a spatial light modulator, SLM, ; an eyepiece lens ; a quarter wave plate, QWP, ; and a reflective optical element configured to reflect substantially all or a portion of light that is incident thereupon in a first direction, and to transit substantially all or a portion of light received from a microdisplay that is incident thereupon from a second direction, wherein the SLM and the objective lens form a first double-pass configuration that allows at least a portion of light that passes through the objective lens to be reflected from the SLM and to propagate again through the objective lens, and the eyepiece lens and the reflective optical element form a second double-pass configuration that allows at least a portion of light that passes through the eyepiece lens to be reflected from the reflective optical element and to propagate again through the eyepiece lens.
A method of capturing a 3D image of a subject using a detection device comprising an RGB camera and a projection device providing a source of structured light, the method comprising: capturing an image of the subject with the detection device under an environmental lighting illumination as provided by a source of environmental lighting; analyzing the image, wherein the analysis comprises detecting a color of the subject and determining the environmental lighting illumination; modifying one or more of: the output of the projection device or the intensity of the source of environmental lighting illuminating the subject based on the analysis of the image; and capturing a 3D image of the subject with the detection device and the projection device using the modified one or more of the output of the projection device or the intensity of the source of environmental lighting illuminating the subject, wherein the color detection refers to determining a skin tone of the subject being imaged, wherein the modification of the output of the projection device and/or the intensity of the source of environmental lighting is based on the determined skin tone and the determined environmental lighting illumination. capturing an image of the subject with the detection device under an environmental lighting illumination as provided by a source of environmental lighting; analyzing the image, wherein the analysis comprises detecting a color of the subject and determining the environmental lighting illumination; modifying one or more of: the output of the projection device or the intensity of the source of environmental lighting illuminating the subject based on the analysis of the image; and capturing a 3D image of the subject with the detection device and the projection device using the modified one or more of the output of the projection device or the intensity of the source of environmental lighting illuminating the subject, wherein the color detection refers to determining a skin tone of the subject being imaged, wherein the modification of the output of the projection device and/or the intensity of the source of environmental lighting is based on the determined skin tone and the determined environmental lighting illumination.
Packaging for receiving piece goods, namely outer packaging for a plurality of smaller packagings for automatic removal of the contents, characterised in that the packaging has a floor on which are hinged four side walls , wherein openings are provided in the two opposing narrow walls , that an inset is provided in the packaging with n central webs spaced apart from each other and two side wall sections, which correspond to the narrow sides (3, 5 and 23, 25) and which result in n + 1 compartments of approximately the same size, wherein recesses are provided in the side wall sections , which in the erected outer packaging are congruent to the recesses of the narrow side walls (3, 5 and 23, 25).
Electrode for an electrode holder comprising an electrode shaft having a terminal welding cap which is detachably secured to a cap holder of the electrode shaft , wherein the cap holder and the welding cap consist of a copper material, wherein the copper material of the cap holder has a strength F1 and a hardness H1 and wherein the copper material of the welding cap has a strength F2 and a hardness H2, wherein F1 is greater than F2 and wherein H1 is greater than H2, characterised in that the hardness H2 of the welding cap lies within a range from 160 HBW2.5/62.5 to 180 HBW2.5/62.5 and the hardness H1 of the cap holder lies above 180 HBW2.5/62.5 and is up to 220 HBW2.5/187.5, wherein the electrode shaft consists of the high-strength copper material CuNiSi with 0.5 - 4.0 wt.% Ni and 0.1 - 2.0 wt.% Si and wherein the cap holder consists of CuNiSi with 0.5 - 4.0 wt.% Ni and 0.1 - 2.0 wt.% Si.
System for determining a status of plants, including: a light transmitter arranged for providing broad band illumination to one or more plants; a light receiver including a plurality of receiver channels, the receiver channels arranged for receiving reflected light from said one or more plants in mutually different wavelength bands; and a processing unit arranged for determining a status of said one or more plants on the basis of the reflected light received by said plurality of receiver channels; wherein a light transmitter control unit is arranged to cause the light transmitter transmit bursts of modulated light and wherein the light receiver is arranged for detecting light synchronized with the modulated transmitted light. a light transmitter arranged for providing broad band illumination to one or more plants; a light receiver including a plurality of receiver channels, the receiver channels arranged for receiving reflected light from said one or more plants in mutually different wavelength bands; and a processing unit arranged for determining a status of said one or more plants on the basis of the reflected light received by said plurality of receiver channels; wherein a light transmitter control unit is arranged to cause the light transmitter transmit bursts of modulated light and wherein the light receiver is arranged for detecting light synchronized with the modulated transmitted light.
A tool holder configured to be used in a coil winding device , the tool holder comprising: a holder body provided with a first winding limiting surface ; a fixture arranged within the first winding limiting surface , the fixture being configured to detachably receive a coil counter-tool provided with a second winding limiting surface , wherein the first and second winding limiting surfaces define a winding gap having a longitudinal dimension limiting a winding width (b) and a radial dimension limiting a winding height (h); at least one hot air duct provided within the holder body and configured to be connected with a hot air source ; the tool holder being characterised in that it further comprises at least one hot air outlet port provided within the first winding limiting surface , the at least one hot air outlet port being fluidly connected to the at least one hot air duct . a holder body provided with a first winding limiting surface ; a fixture arranged within the first winding limiting surface , the fixture being configured to detachably receive a coil counter-tool provided with a second winding limiting surface , wherein the first and second winding limiting surfaces define a winding gap having a longitudinal dimension limiting a winding width (b) and a radial dimension limiting a winding height (h); at least one hot air duct provided within the holder body and configured to be connected with a hot air source ; the tool holder being characterised in that it further comprises at least one hot air outlet port provided within the first winding limiting surface , the at least one hot air outlet port being fluidly connected to the at least one hot air duct .
Pressure bulkhead (10; 10) of fibre composite material for an aircraft fuselage for the pressure-tight axial closure of a fuselage region configured to be put under internal pressure, the pressure bulkhead (10; 10') comprising: a first area element (14; 14') having a plurality of receptacles (12; 12'); at least one second area element (22; 22'); and a plurality of core elements (16; 16'), wherein a core element (16; 16') is received in each of the receptacles (12; 12') of the first area element (14; 14') between surfaces facing one another of the first area element (14; 14') and of the at least one second area element (22; 22') and wherein the surfaces facing one another of the first area element (14; 14') and of the at least one second area element (22; 22') are connected to one another in regions (20; 20') without core elements adjacent to the receptacles (12; 12'). a first area element (14; 14') having a plurality of receptacles (12; 12'); at least one second area element (22; 22'); and a plurality of core elements (16; 16'), wherein a core element (16; 16') is received in each of the receptacles (12; 12') of the first area element (14; 14') between surfaces facing one another of the first area element (14; 14') and of the at least one second area element (22; 22') and wherein the surfaces facing one another of the first area element (14; 14') and of the at least one second area element (22; 22') are connected to one another in regions (20; 20') without core elements adjacent to the receptacles (12; 12').
A refrigeration apparatus comprising a compressor , a condenser , an expansion mechanism , and an evaporator ; an amount of water mixed in being controlled to 300 ppm or less relative to an amount of filled refrigerant; refrigerant containing R32 and refrigerator oil for lubricating the compressor being used, the refrigerator oil containing polyvinyl ether oil or polyol ester oil as base oil; and an acid scavenger being blended with the refrigerator oil, characterized in that the amount of air mixed in is controlled to 500 ppm or less relative to the amount of filled refrigerant; a discharged-gas temperature is controlled to 120°C or less; the refrigerant contains at least 60 wt% of R32; and the acid scavenger added in an amount of 1.0 to 5.0 wt% is blended with the refrigerator oil. an amount of water mixed in being controlled to 300 ppm or less relative to an amount of filled refrigerant; refrigerant containing R32 and refrigerator oil for lubricating the compressor being used, the refrigerator oil containing polyvinyl ether oil or polyol ester oil as base oil; and an acid scavenger being blended with the refrigerator oil, characterized in that the amount of air mixed in is controlled to 500 ppm or less relative to the amount of filled refrigerant; a discharged-gas temperature is controlled to 120°C or less; the refrigerant contains at least 60 wt% of R32; and the acid scavenger added in an amount of 1.0 to 5.0 wt% is blended with the refrigerator oil.