mhurhangee/ep-ind-claims huggingface dataset:
A control system for a wind turbine, the wind turbine comprises at least one controller (202a-e) arranged to control a function of the wind turbine, and a detachable data storage unit (211a-b) arranged to store controller specific data for the at least one controller, where the data storage unit is connected to the at least one controller to enable communication of the controller specific data between the data storage unit and the at least one controller, the control system comprises: - a connection interface arranged to connect with a programming enabling key dependent on a presence of the programming enabling key in proximity of the connection interface, the programming enabling key being a device which is connectable with the connection interface, and - a control unit arranged to detect the connection between the programming enabling key and connection interface, and in response to the detection, and while the programming enabling key is connected with the connection interface to initiate a programming mode wherein the control unit is enabled to receive, from the data storage unit, the controller specific data or wind turbine specific data from which the controller specific data can be determined, where the control unit is arranged to stop the programming mode and initiate a safety mode in case the control unit detects disconnection of the programming enabling key before completion of the programming mode. - a connection interface arranged to connect with a programming enabling key dependent on a presence of the programming enabling key in proximity of the connection interface, the programming enabling key being a device which is connectable with the connection interface, and - a control unit arranged to detect the connection between the programming enabling key and connection interface, and in response to the detection, and while the programming enabling key is connected with the connection interface to initiate a programming mode wherein the control unit is enabled to receive, from the data storage unit, the controller specific data or wind turbine specific data from which the controller specific data can be determined, where the control unit is arranged to stop the programming mode and initiate a safety mode in case the control unit detects disconnection of the programming enabling key before completion of the programming mode.
A method of removing coatings from metallic films provided with a coating, preferably on both sides, characterised in that the films are transported between two perforated plastic conveyor belts (2,3) arranged above one another and are conducted past high pressure nozzles (6,7), which direct water jets with high pressure from above and/or below onto the films between the plastic conveyor belts (2,3), whereby the coating becomes detached, and that the detached coating is transported away with the running off water to a filter device and is filtered out of the water by it.
A data synchronization method, comprising: receiving (101, 203), by an optical network unit, ONU, synchronization data that is transmitted by a first optical line terminal, OLT, through a gigabit passive optical network encapsulation method, GEM, port corresponding to a predetermined GEM port identification or a logical link corresponding to a predetermined logical link identification, LLID, and storing (101, 204) the synchronization data; wherein the predetermined GEM port identification, LLID, is dedicatedly used for transmission of the synchronization data; and when a fault occurs on the first OLT or on a backbone optical fiber connected to the first OLT, transmitting (102, 211), by the ONU, the synchronization data to a second OLT without parsing the synchronization data according to a specific synchronization protocol, so that the second OLT recovers services according to the synchronization data. receiving (101, 203), by an optical network unit, ONU, synchronization data that is transmitted by a first optical line terminal, OLT, through a gigabit passive optical network encapsulation method, GEM, port corresponding to a predetermined GEM port identification or a logical link corresponding to a predetermined logical link identification, LLID, and storing (101, 204) the synchronization data; wherein the predetermined GEM port identification, LLID, is dedicatedly used for transmission of the synchronization data; and when a fault occurs on the first OLT or on a backbone optical fiber connected to the first OLT, transmitting (102, 211), by the ONU, the synchronization data to a second OLT without parsing the synchronization data according to a specific synchronization protocol, so that the second OLT recovers services according to the synchronization data.
Driver circuit for an LED comprising a connection for a line voltage, a filter circuit and a rectifier, an intermediate storage element, a switch and an inductance having a primary winding (L2p) and a secondary winding (L2s) coupled thereto, wherein the inductance is magnetized when the switch is closed and the inductance is demagnetized when the switch is opened, and at least during the demagnetization phase the current flows through the inductance to supply the LED, wherein the driver circuit may be connected to a commercially-available dimmer, wherein a parallel-coupled bridging circuit (R40, Q4) is provided at the output of the rectifier, and is deactivated when a current flows in the inductance and the switch and/or the intermediate storage element via the rectifier, while the bridging circuit (R40, Q4) is activated during the phases in which the dimmer cuts off a portion of the phase in order to load a residual current across the bridging circuit (R40, Q4), and thus bias the dimmer, characterized in that a current detector is included between the bridging circuit (R40, Q4) and the intermediate storage element in order to monitor the above-mentioned current supplied to the inductance and the switch and/or the intermediate storage element.
A method for wireless communication performed by a base station (106, 204, 610), comprising: determining, by the base station, that a first transmission for a first device (102, 206, 650) of a first type and a second transmission for a second device of a second type are mapped to a same resource element, wherein the first type of device has a capability to perform certain procedures with low latency relative to the second type of device that lacks the capability; and jointly adjusting, by the base station, soft symbol log likelihood ratio, LLR, strengths of the first and second transmissions by adjusting a modulation symbol constellation point to determine a third transmission of the adjusted modulation symbol constellation point transmitted by the base station to the first device and to the second device in the same resource element. determining, by the base station, that a first transmission for a first device (102, 206, 650) of a first type and a second transmission for a second device of a second type are mapped to a same resource element, wherein the first type of device has a capability to perform certain procedures with low latency relative to the second type of device that lacks the capability; and jointly adjusting, by the base station, soft symbol log likelihood ratio, LLR, strengths of the first and second transmissions by adjusting a modulation symbol constellation point to determine a third transmission of the adjusted modulation symbol constellation point transmitted by the base station to the first device and to the second device in the same resource element.
A pharmaceutical solution composition for delivery to the pulmonary system via a soft mist inhaler comprising: (a) an inhaled corticosteroid, (b) a long-acting beta-agonist (LABA), and (c) optionally a long-acting muscarinic antagonist (LAMA), dissolved in a pharmaceutically acceptable solvent, wherein the solvent comprises ethanol in an amount of 75 to 100% v/v. (a) an inhaled corticosteroid, (b) a long-acting beta-agonist (LABA), and (c) optionally a long-acting muscarinic antagonist (LAMA), dissolved in a pharmaceutically acceptable solvent, wherein the solvent comprises ethanol in an amount of 75 to 100% v/v.
A method for manufacturing a polymer coated board product, wherein said product has super- or highly hydrophobic characteristics, comprising the following steps: x) providing a melt of polymer and a web of board, wherein the board is a packaging board, wherein the board comprises a fibrous board base, wherein the density of the fibrous board base is at least 575 kg/m3, and coating said web of board with said melt of polymer, wherein the weight of the polymer coating is at least 14 g/m 2, xi) passing said polymer coated web of board over a roll whereby said roll faces the polymer coated side and wherein also said roll provides a mould giving said coated side a pattern providing a Lotus effect when in contact with said coated side of said composite, and xii) optionally cooling said product obtained, wherein also an oleophobic wax is added on to the polymer. x) providing a melt of polymer and a web of board, wherein the board is a packaging board, wherein the board comprises a fibrous board base, wherein the density of the fibrous board base is at least 575 kg/m3, and coating said web of board with said melt of polymer, wherein the weight of the polymer coating is at least 14 g/m 2, xi) passing said polymer coated web of board over a roll whereby said roll faces the polymer coated side and wherein also said roll provides a mould giving said coated side a pattern providing a Lotus effect when in contact with said coated side of said composite, and xii) optionally cooling said product obtained, wherein also an oleophobic wax is added on to the polymer.
A method of power supply line protection in a power supply system, the power supply system including: a battery; a master device configured to be supplied with power from the battery; and a slave device configured to be supplied with power from the master device via a first power supply line, wherein the slave device is further configured to supply power to a load via a second power supply line; the method comprising the steps of: estimating a temperature of the second power supply line by the master device based on a current value of the second power supply line acquired from the slave device; and controlling by the master device the cutting off of the power supply via the second power supply line when the estimated temperature of the second power supply line is higher than a cutoff threshold of the second power supply line. a battery; a master device configured to be supplied with power from the battery; and a slave device configured to be supplied with power from the master device via a first power supply line, wherein the slave device is further configured to supply power to a load via a second power supply line; the method comprising the steps of: estimating a temperature of the second power supply line by the master device based on a current value of the second power supply line acquired from the slave device; and controlling by the master device the cutting off of the power supply via the second power supply line when the estimated temperature of the second power supply line is higher than a cutoff threshold of the second power supply line. estimating a temperature of the second power supply line by the master device based on a current value of the second power supply line acquired from the slave device; and controlling by the master device the cutting off of the power supply via the second power supply line when the estimated temperature of the second power supply line is higher than a cutoff threshold of the second power supply line.
Method for operating a driver assistance system of a vehicle for warning and/or preventing collisions using the efficient provision of occupancy information for the surroundings of a vehicle, wherein the vehicle comprises sensors for ascertaining the occupancy of the surroundings, the method comprising: reception of sensor measurements of the surroundings of the vehicle; ascertainment of the occupancies (5, 6) of the surroundings by obstacles on the basis of the sensor measurements, wherein an occupancy comprises the location of the occupancy and the probability of the certainty of the ascertainment; provision of a split for the surroundings into regions; for each region of the surroundings: if more than two occupancies (5, 6) of the surroundings have been identified in the respective region: determination of the most certainly ascertained occupancy in the respective region; and determination of the closest occupancy, namely that occupancy in the respective region for which the shortest distance has been ascertained as per a distance determination stipulated for the respective region; provision of the most certainly ascertained occupancy and the closest occupancy. reception of sensor measurements of the surroundings of the vehicle; ascertainment of the occupancies (5, 6) of the surroundings by obstacles on the basis of the sensor measurements, wherein an occupancy comprises the location of the occupancy and the probability of the certainty of the ascertainment; provision of a split for the surroundings into regions; for each region of the surroundings: if more than two occupancies (5, 6) of the surroundings have been identified in the respective region: determination of the most certainly ascertained occupancy in the respective region; and determination of the closest occupancy, namely that occupancy in the respective region for which the shortest distance has been ascertained as per a distance determination stipulated for the respective region; provision of the most certainly ascertained occupancy and the closest occupancy. determination of the most certainly ascertained occupancy in the respective region; and determination of the closest occupancy, namely that occupancy in the respective region for which the shortest distance has been ascertained as per a distance determination stipulated for the respective region; provision of the most certainly ascertained occupancy and the closest occupancy.
A method of connecting a plurality of vehicle-carried sensors (120, 121, 122) with preconfigured network addresses to a processor, wherein the vehicle-carried sensors are located in one vehicle or one vehicle combination, comprising: connecting the sensors to physical ports of a plurality of network switches of a vehicle network; establishing at least two virtual networks corresponding to different groups of one or more physical ports, wherein the sensors connected thereto are addressable by their preconfigured network addresses; establishing at least one trunk port for each network switch and at least one access port for each virtual network, wherein the trunk port accepts communications from the processor directed to the connected sensors; connecting the processor to the trunk port of a first one (140.1) of the network switches, wherein at least two trunk ports are established for the first network switch; and connecting the trunk port of a second one (140.2) of the network switches to a further trunk port of the first network switch. connecting the sensors to physical ports of a plurality of network switches of a vehicle network; establishing at least two virtual networks corresponding to different groups of one or more physical ports, wherein the sensors connected thereto are addressable by their preconfigured network addresses; establishing at least one trunk port for each network switch and at least one access port for each virtual network, wherein the trunk port accepts communications from the processor directed to the connected sensors; connecting the processor to the trunk port of a first one (140.1) of the network switches, wherein at least two trunk ports are established for the first network switch; and connecting the trunk port of a second one (140.2) of the network switches to a further trunk port of the first network switch.
A decoration element comprising: a light reflective layer; and a light absorbing layer provided on the light reflective layer, wherein the light reflective layer is a discontinuous film, wherein the light reflective layer has surface resistance of 20 ohm/square or greater, measured as disclosed in the description, wherein the light reflective layer comprises one or more types of material selected from indium (In), titanium (Ti), tin (Sn), silicon (Si) and germanium (Ge), wherein the light absorbing layer comprises one or more types of materials selected from oxynitrides of indium (In), tin (Sn), silicon (Si), aluminum (Al), copper (Cu), nickel (Ni), vanadium, tungsten, tantalum (Ta), molybdenum (Mo), neodymium (Nd), titanium (Ti), iron (Fe), chromium (Cr), cobalt (Co), gold (Au) or silver (Ag), wherein the light reflective layer has a structure of two or more islands, wherein an area of the horizontal cross-sectional area of each of the islands is 10 -14 m 2 or less. a light reflective layer; and a light absorbing layer provided on the light reflective layer, wherein the light reflective layer is a discontinuous film, wherein the light reflective layer has surface resistance of 20 ohm/square or greater, measured as disclosed in the description, wherein the light reflective layer comprises one or more types of material selected from indium (In), titanium (Ti), tin (Sn), silicon (Si) and germanium (Ge), wherein the light absorbing layer comprises one or more types of materials selected from oxynitrides of indium (In), tin (Sn), silicon (Si), aluminum (Al), copper (Cu), nickel (Ni), vanadium, tungsten, tantalum (Ta), molybdenum (Mo), neodymium (Nd), titanium (Ti), iron (Fe), chromium (Cr), cobalt (Co), gold (Au) or silver (Ag), wherein the light reflective layer has a structure of two or more islands, wherein an area of the horizontal cross-sectional area of each of the islands is 10 -14 m 2 or less.
A compressor unit, including a screw compressor having a compressor housing that has a screw rotor chamber arranged in the compressor housing, at least one screw rotor (26, 28) that is arranged in the screw rotor chamber, is mounted on the compressor housing to be rotatable about a screw rotor axis (22, 24) and receives gaseous medium having an initial volume that is supplied by way of a low-pressure chamber arranged in the compressor housing and discharges it, compressed to a final volume, in the region of a high-pressure chamber arranged in the compressor housing, and at least one control slider (52, 54), which is arranged in a slider channel of the compressor housing, is adjacent to the screw rotor (26, 28) and is movable in a direction of displacement parallel to the screw rotor axis (22, 24) and takes a form such that it affects the final volume and/or the initial volume, characterised in that there is provided on the screw compressor a compressor operational control unit that takes a form such that it performs at least one compressor operating function that assists an operation of the compressor unit, in that the at least one compressor operating function is a parameter determining function and in that, for the purpose of performing the parameter determining function, this determines as function parameter the pressure of the medium on the output side of the screw compressor, in that a further compressor operating function is a protective function, in that, for the purpose of performing the protective function, the at least one parameter determining function is performed and the pressure of the medium on the output side as the at least one function parameter is compared with at least one reference parameter, in that, in the event of the value exceeding or falling below the at least one reference parameter, a warning message is given and/or the screw compressor is switched off, in that the screw compressor has a control housing, which is arranged on the compressor housing in which is arranged the compressor operational control unit, and in that the compressor operational control unit is provided with a communication unit for exchanging data with external devices (310, 322).
A method of scavenging hydrogen sulfide in a production fluid, the method comprising: contacting the production fluid containing hydrogen sulfide with a treatment fluid including at least one reaction product of a first compound with at least one carboxylic acid group and a second compound with at least one aldehyde group, wherein the hydrogen sulfide reacts with the said reaction product to reduce an amount of the hydrogen sulfide in the production fluid, wherein the reaction product of a carboxylic acid and an aldehyde includes an alpha-hydroxy alkyl ester, wherein the alpha-hydroxy alkyl ester is selected from bis(hydroxymethyl) maleate; (2E, 4E)-hydroxymethyl hexa-2,4-dienoate; -hydroxymethyl but-2-enoate; -bis(hydroxymethyl) O,O'-(2-hydroxypropane-1,3-diyl) difumarate; hydroxymethyl 6-(2,5-dioxo-2,5-dihydro-1H-pyrrol-1-yl)hexanoate; and combinations thereof.
A replaceable building-integrated photovoltaic module system, comprising: a module frame (430, 630) having a plurality of retaining clips (434, 634, 734), the module frame (430, 630) substantially surrounding a photovoltaic laminate, the module system further comprises a plurality of skids (460, 560, 660, 760), wherein each of the plurality of skids (460, 560, 660, 760) is composed of an anchoring portion (462, 562, 662), a mounting post (464, 564, 664, 764) and a stop (468, 668), wherein the anchoring portion (462, 562, 662) is configured to be coupled to a roofing surface, and wherein each skid (460, 560, 660, 760) comprises a notch (566, 666, 766) on the mounting post (464, 564, 664, 764), each retaining clip (434, 634, 734) adapted to releasably couple to the mounting post (464, 564, 664, 764) by engaging the notch (566, 666, 766), characterized in that the module frame (430, 630) has groves (132, 432) on its underside, wherein the retaining clips are positioned along or near the grooves (132, 432), wherein the mounting post is sized and shaped to engage the frame (430, 630) at one of the grooves (132, 432), and wherein the stop (468, 668) extends upward from the anchoring portion (462, 562, 662) along the frame (430, 630) for supporting an adjacent PV module (400, 600). a module frame (430, 630) having a plurality of retaining clips (434, 634, 734), the module frame (430, 630) substantially surrounding a photovoltaic laminate, the module system further comprises a plurality of skids (460, 560, 660, 760), wherein each of the plurality of skids (460, 560, 660, 760) is composed of an anchoring portion (462, 562, 662), a mounting post (464, 564, 664, 764) and a stop (468, 668), wherein the anchoring portion (462, 562, 662) is configured to be coupled to a roofing surface, and wherein each skid (460, 560, 660, 760) comprises a notch (566, 666, 766) on the mounting post (464, 564, 664, 764), each retaining clip (434, 634, 734) adapted to releasably couple to the mounting post (464, 564, 664, 764) by engaging the notch (566, 666, 766), characterized in that the module frame (430, 630) has groves (132, 432) on its underside, wherein the retaining clips are positioned along or near the grooves (132, 432), wherein the mounting post is sized and shaped to engage the frame (430, 630) at one of the grooves (132, 432), and wherein the stop (468, 668) extends upward from the anchoring portion (462, 562, 662) along the frame (430, 630) for supporting an adjacent PV module (400, 600).