mhurhangee/ep-ind-claims huggingface dataset:
A combustion system for a gas turbine, the combustion system configured to burn fuel with air compressed by a compressor in its combustion chamber and to generate a combustion gas that drives a turbine, the combustion system comprising: a plurality of gas fuel burners (32, 33); and an air flow rate adjusting system configured to adjust a flow rate of air to be mixed with a gas fuel; the combustion system characterized by a gas measuring system configured to measure the unburned content in the gas fuel; a gas temperature measuring system configured to measure temperature of the gas fuel; and a control system configured to temporarily reduce the air flow rate from a reference flow rate to a set flow rate by calculating a command value for the air flow rate adjusting system based on the unburned content in the gas fuel measured by the gas measuring system and the temperature of the gas fuel measured by the gas temperature measuring system, and outputting a signal to the air flow rate adjusting system when a combustion mode is switched from a partial combustion mode in which the gas fuel is burned with part of the gas fuel burners to a full combustion mode in which the gas fuel is burned with all of the gas fuel burners (32, 33) and configured to, during this time, increase a gas fuel flow rate in accordance with a load increase. a plurality of gas fuel burners (32, 33); and an air flow rate adjusting system configured to adjust a flow rate of air to be mixed with a gas fuel; the combustion system characterized by a gas measuring system configured to measure the unburned content in the gas fuel; a gas temperature measuring system configured to measure temperature of the gas fuel; and a control system configured to temporarily reduce the air flow rate from a reference flow rate to a set flow rate by calculating a command value for the air flow rate adjusting system based on the unburned content in the gas fuel measured by the gas measuring system and the temperature of the gas fuel measured by the gas temperature measuring system, and outputting a signal to the air flow rate adjusting system when a combustion mode is switched from a partial combustion mode in which the gas fuel is burned with part of the gas fuel burners to a full combustion mode in which the gas fuel is burned with all of the gas fuel burners (32, 33) and configured to, during this time, increase a gas fuel flow rate in accordance with a load increase.
A central unit for supplying emergency lighting means (101a, 101b) on a DC bus, comprising: an AC input for receiving an AC supply signal, an AC/DC converter configured to convert the AC supply signal into a DC supply signal, an electrical energy storage, in particular a battery, configured to be charged by the DC supply signal, wherein the electrical energy storage is configured to supply electrical power in an emergency situation, and a DC/DC converter configured to convert a DC output signal of the electrical energy storage into a DC bus voltage and to forward the DC bus voltage to the lighting means (101a, 101b) on the DC bus via an output circuit, characterized in that the output circuit is arranged on a modular card, and the modular card is detachably connectable to a base body of the central unit. an AC input for receiving an AC supply signal, an AC/DC converter configured to convert the AC supply signal into a DC supply signal, an electrical energy storage, in particular a battery, configured to be charged by the DC supply signal, wherein the electrical energy storage is configured to supply electrical power in an emergency situation, and a DC/DC converter configured to convert a DC output signal of the electrical energy storage into a DC bus voltage and to forward the DC bus voltage to the lighting means (101a, 101b) on the DC bus via an output circuit, characterized in that the output circuit is arranged on a modular card, and the modular card is detachably connectable to a base body of the central unit.
A compound of formula: --- [O-Si-C 3 H 6 -NH-R 1 -OCO- -R 2 -R 2 '] X -[O-Si] Y --- Formula I wherein R1 is an aliphatic chain -(CH 2) n - with n ranging between 0 and 9 and -OCO- -R 2 -R 2 ' corresponds to the α-aminoacid used as the organic catalyst; wherein said α-aminoacid is any of the ones specified in the following table: Name of the α-aminoacid Chemical formula Pro line Valine Alanine Phenylglycine Phenylalanine Leucine Isoleucine Methionine and wherein the values X and Y are maintained in a ratio ranging between 1:1 and 1:20.
A system comprising a) a first genetic construct comprising a promoter controlling transcription of first and second nucleic acid molecules, the first nucleic acid molecule encoding a riboswitch operably linked to the second nucleic acid molecule comprising a regulatory sequence encoding a polymerase; and b) a second genetic construct comprising a nucleic acid molecule comprising a coding sequence whose expression is capable of being regulated by the polymerase encoded by the second nucleic acid molecule; wherein said riboswitch is a naturally occurring riboswitch or a modified riboswitch having at least 85% sequence identity to a naturally occurring riboswitch. a) a first genetic construct comprising a promoter controlling transcription of first and second nucleic acid molecules, the first nucleic acid molecule encoding a riboswitch operably linked to the second nucleic acid molecule comprising a regulatory sequence encoding a polymerase; and b) a second genetic construct comprising a nucleic acid molecule comprising a coding sequence whose expression is capable of being regulated by the polymerase encoded by the second nucleic acid molecule;
A reel pipe motor, comprising a casing, a motor, a speed reduction assembly disposed within the casing, an L-shape motor end head having a tubular part and a box part which could be connected with the casing, characterized in that the reel pipe motor additionally comprises: a switch box disposed on the outer surface of the box part, in which a switch control panel and a bead switch are located; the bead switch including a main body electrically connected with the switch control panel and a bead chain extending into the main body; a power supply plug comprising a first end and a second end and a wire therebetween, and a hollow rod, in which the bead switch is connected with the hollow rod, the bead switch could be operated by pulling the hollow rod, the first end of the power supply plug is electrically connected with the switch control panel and the wire extends into the hollow rod and is electrically connected by means of the second end with an external power supply. a switch box disposed on the outer surface of the box part, in which a switch control panel and a bead switch are located; the bead switch including a main body electrically connected with the switch control panel and a bead chain extending into the main body; a power supply plug comprising a first end and a second end and a wire therebetween, and a hollow rod, in which the bead switch is connected with the hollow rod, the bead switch could be operated by pulling the hollow rod, the first end of the power supply plug is electrically connected with the switch control panel and the wire extends into the hollow rod and is electrically connected by means of the second end with an external power supply.
Resistance welding device, comprising two welding electrodes (8, 14), arranged opposite one another and connected to a welding current source via a relevant power supply path, for welding weld metal that is to be arranged between the electrodes (8, 14), it being possible to move at least one of the electrodes relative to the other electrode by means of an advancing means (12; 112) from an electrode distance position into a welding position in order to apply a force to weld metal between the electrodes (8, 14) and weld said weld metal in the process, the advancing means (12, 112) comprising a thrust element (20; 120), which is movably guided by means of a guide arrangement in order to move the movable electrode between the electrode distance position and the welding position, and a motor (16; 32), in particular an electric motor, which can be controlled by a controller, as the movement drive means for the thrust element (20; 120), and the movable electrode being fastened to the thrust element (20; 120), the thrust element (20; 120) being formed as a component that conducts welding current and being incorporated in the power supply path between the welding current source and the movable electrode, characterised in that the guide arrangement is also designed as a component that conducts welding current and is incorporated in the power supply path between the welding current source and the movable electrode, specifically between the welding current source and the thrust element.
An automatic transmission, comprising: an input adapted to couple to a torque-generating mechanism; an output coupled to the input; a first rotating torque-transferring mechanism disposed along a first torque path, the first rotating torque-transferring mechanism being coupled to the input; a second rotating torque-transferring mechanism disposed along a second torque path, the second rotating torque-transferring mechanism being coupled to the input independent of the first torque-transferring mechanism; a first stationary torque-transferring mechanism, a second stationary torque-transferring mechanism, a third stationary torque-transferring mechanism, and a fourth stationary torque-transferring mechanism, each of the stationary torque-transferring mechanisms being disposed between the input and the output; and a first planetary gearset, a second planetary gearset, a third planetary gearset, and a fourth planetary gearset, where each gearset includes a sun gear (314, 320, 326, 332), a ring gear (318, 324, 330, 336), and a carrier assembly (316, 322, 328, 334), wherein the carrier assembly of the third planetary gearset is coupled to the output and the sun gear of the fourth planetary gearset, characterised in that a third torque path is at least partially defined by the input, the sun gear of the first planetary gear set and the carrier assembly of the first planetary gear set and the input is continuously coupled to the sun gear of the first planetary gearset. an input adapted to couple to a torque-generating mechanism; an output coupled to the input; a first rotating torque-transferring mechanism disposed along a first torque path, the first rotating torque-transferring mechanism being coupled to the input; a second rotating torque-transferring mechanism disposed along a second torque path, the second rotating torque-transferring mechanism being coupled to the input independent of the first torque-transferring mechanism; a first stationary torque-transferring mechanism, a second stationary torque-transferring mechanism, a third stationary torque-transferring mechanism, and a fourth stationary torque-transferring mechanism, each of the stationary torque-transferring mechanisms being disposed between the input and the output; and a first planetary gearset, a second planetary gearset, a third planetary gearset, and a fourth planetary gearset, where each gearset includes a sun gear (314, 320, 326, 332), a ring gear (318, 324, 330, 336), and a carrier assembly (316, 322, 328, 334), wherein the carrier assembly of the third planetary gearset is coupled to the output and the sun gear of the fourth planetary gearset, characterised in that a third torque path is at least partially defined by the input, the sun gear of the first planetary gear set and the carrier assembly of the first planetary gear set and the input is continuously coupled to the sun gear of the first planetary gearset.
A method for transmitting uplink control information, UCI, performed by a user equipment, UE, the method comprising: receiving, from a base station, configuration information including a plurality of offset values via higher layer signaling; receiving, from the base station, downlink control information, DCI, scheduling a physical uplink shared channel, PUSCH; determining a number of coded modulation symbols per spatial layer Q ' for the UCI based on an offset value indicated by the DCI among the plurality of the offset values; multiplexing the Q' coded modulation symbols per spatial layer for the UCI in the PUSCH; and transmitting, to the base station, the UCI on the PUSCH based on the multiplexing result, wherein a number of bits of the UCI is determined based on the number of coded modulation symbols per spatial layer Q'. receiving, from a base station, configuration information including a plurality of offset values via higher layer signaling; receiving, from the base station, downlink control information, DCI, scheduling a physical uplink shared channel, PUSCH; determining a number of coded modulation symbols per spatial layer Q ' for the UCI based on an offset value indicated by the DCI among the plurality of the offset values; multiplexing the Q' coded modulation symbols per spatial layer for the UCI in the PUSCH; and transmitting, to the base station, the UCI on the PUSCH based on the multiplexing result, wherein a number of bits of the UCI is determined based on the number of coded modulation symbols per spatial layer Q'.
Continuous process for producing organopolysiloxanes having an OH content of 3.0 - 10.0% by weight, in which silanes of the general formula I R 1 m SiR 2 n X o, in which R 1 is a C 1 -C 18 -hydrocarbon radical and R 2 is a C 1 -C 6 -alkoxy radical and X is a chlorine or bromine radical m denotes the values 1, 2 or 3, n denotes the values 0, 1, 2 or 3 and o denotes the values 0, 1, 2 or 3, with the proviso that 4-m = n+o, and that in at least 30 mol% of the silanes of the general formula I, n≠0 and o≠0, that water and non-polar solvent, soluble to an extent of not more than 1 g in 1 1 of water at 20°C and 1 bar, are metered in continuously to the reaction mixture and that reaction mixture is continuously discharged. R 1 is a C 1 -C 18 -hydrocarbon radical and R 2 is a C 1 -C 6 -alkoxy radical and X is a chlorine or bromine radical m denotes the values 1, 2 or 3, n denotes the values 0, 1, 2 or 3 and o denotes the values 0, 1, 2 or 3,
Maintenance method for a lift, comprising the following steps: - providing a service platform in a shaft pit of the lift for later maintenance work, wherein the service platform was for installation purposes mounted beforehand on at least one pair of cage guide rails and in that case served as work platform for the mounting of lift components on a structure, particularly a shaft wall, bounding the travel region, - suspending the service platform at a lift cage and - moving the service platform by means of a drive of the lift cage into a maintenance position. - providing a service platform in a shaft pit of the lift for later maintenance work, wherein the service platform was for installation purposes mounted beforehand on at least one pair of cage guide rails and in that case served as work platform for the mounting of lift components on a structure, particularly a shaft wall, bounding the travel region, - suspending the service platform at a lift cage and - moving the service platform by means of a drive of the lift cage into a maintenance position.
Self-optimising, self-adaptive product processing system having a grinding plant containing at least one roller pair, wherein the roller pair for processing a product comprises two rollers (1/1', 19), and at least one of the rollers (1/1') contains several sensors (2/2') for determining measurements which characterise a state of the at least one roller (1/1'), wherein a measuring device (12/12') is inserted into a receiver opening (11/11') of a roller body (10/10') of the at least one roller (1/1') of the roller pair for processing a product, which measuring device (12/12') has at least one of the sensors (2/2') for determining measurements which characterise a state of the roller (1/1'), wherein measurements are received by a data receiver (5/5') of a control unit of the product processing system from a data transmitter (4/4') of the measuring device (12/12') of the at least one roller (1/1') of the roller pair, characterised in that at least one kind of roller (1, 1') and/or individual identification of the roller (1/1') can be clearly identified by the control unit by means of identification means attached to at least one roller (1/1') based on electronically stored data of the identification means, the sensors (2/2') comprise at least two or more temperature sensors, which are arranged to be contained along the axis of rotation of the at least one roller (1, 1') for ascertaining a temperature profile or temperature gradient of the roller (1/1') in this direction, wherein temperature values of the temperature sensors and/or temperature profile and/or temperature gradient can be transferred to the control unit, in addition to the at least two or more temperature sensors, the sensors (2/2') of the at least one of the rollers (1/1') comprises a vibration sensor for detecting vibration (1a2) and/or an accelerometer for monitoring the rotational speed and/or accelerations/delays (1a3) of the roller (1/1'), and the control unit for generating and predicting a remaining lifetime (1a4) of the roller (1/1') and/or attrition parameters (1a5) and/or operating parameters comprises a mechanically learning unit, wherein the roller operation and the width of the gap between the two rollers (1/1', 19) of the roller pair and/or the parallelism of the rollers (1/1', 19) of the control unit and/or a regulating device connected to the control unit can be automatically optimised by means of the mechanically learning unit based on the measurements received.
A polarization independent optical isolator comprising: two polarizing separation members each configured to separate polarization components of a transmitted light; an absorptive polarizer arranged on optical paths of separated transmitted lights and corresponding to a plane of polarization of each separated transmitted light; and a Faraday rotator, wherein the Faraday rotator is arranged downstream of the absorptive polarizer in a forward direction, a half-wave plate is arranged downstream of the absorptive polarizer in the forward direction, and the polarizing separation members are a polarizing prism. two polarizing separation members each configured to separate polarization components of a transmitted light; an absorptive polarizer arranged on optical paths of separated transmitted lights and corresponding to a plane of polarization of each separated transmitted light; and a Faraday rotator, wherein the Faraday rotator is arranged downstream of the absorptive polarizer in a forward direction, a half-wave plate is arranged downstream of the absorptive polarizer in the forward direction, and the polarizing separation members are a polarizing prism.
A method of dynamically verifying existing user accounts, the method comprising: monitoring an initial sequence of characters input by a user in a first text region in a user interface, wherein the initial sequence of characters corresponds to a user identifier; detecting a specified character received in the first text region; transmitting, in response to the detected specified character, the initial sequence of characters to a server computing device; receiving hashed data and a complexity value from the server computing device, wherein the hashed data has been generated by a hashing function; monitoring an additional sequence of characters received in the first text region, wherein the additional sequence of characters is entered after the detected specified character; hashing, using the hashing function, the initial sequence of characters, the specified character, and the additional sequence of characters to generate a result value, wherein the hashing is performed the specified number of times corresponding to the received complexity value; and in an event the result value is in the received hashed data, displaying a second text region for collecting from the user a password corresponding to the user identifier. monitoring an initial sequence of characters input by a user in a first text region in a user interface, wherein the initial sequence of characters corresponds to a user identifier; detecting a specified character received in the first text region; transmitting, in response to the detected specified character, the initial sequence of characters to a server computing device; receiving hashed data and a complexity value from the server computing device, wherein the hashed data has been generated by a hashing function; monitoring an additional sequence of characters received in the first text region, wherein the additional sequence of characters is entered after the detected specified character; hashing, using the hashing function, the initial sequence of characters, the specified character, and the additional sequence of characters to generate a result value, wherein the hashing is performed the specified number of times corresponding to the received complexity value; and in an event the result value is in the received hashed data, displaying a second text region for collecting from the user a password corresponding to the user identifier.
Reflective composite material with a support consisting of aluminium, with an intermediate layer of anodically oxidised support material located on one side of the support and with an optically active multilayer system applied on top of the intermediate layer, which system consists of at least three layers, the upper layers (4, 5) being dielectric and/or oxidic layers, and the lowest layer being a metallic layer consisting of silver, which forms a reflective layer, wherein a diffusion-inhibiting barrier layer is arranged above the intermediate layer and below the reflective layer, wherein the reflective layer is bonded to the barrier layer via an adhesion promoter layer, characterized in that a mixed layer of the chemical composition Si a C b O c N d H e is applied to the optical multilayer system as a cover layer, in particular as a CVD layer, preferably as a PE-CVD layer, the indices a, b, c, d and e designating a stochiometric or non-stochiometric ratio and being set in such a way that the cover layer, at a chosen layer thickness, has a light absorption of less than 10 percent, and wherein the carbon content - based on the total mass of the cover layer - is in the range of 0.2 atomic percent to 15.0 atomic percent. wherein a diffusion-inhibiting barrier layer is arranged above the intermediate layer and below the reflective layer, wherein the reflective layer is bonded to the barrier layer via an adhesion promoter layer, characterized in that a mixed layer of the chemical composition Si a C b O c N d H e is applied to the optical multilayer system as a cover layer, in particular as a CVD layer, preferably as a PE-CVD layer, the indices a, b, c, d and e designating a stochiometric or non-stochiometric ratio and being set in such a way that the cover layer, at a chosen layer thickness, has a light absorption of less than 10 percent, and wherein the carbon content - based on the total mass of the cover layer - is in the range of 0.2 atomic percent to 15.0 atomic percent.
A method to detect microbe contamination in water samples with the help of microbe cultivation, said method including the steps of: a) automatically collecting a water sample; b) cultivating the collected water sample so as to grow microbes that may be contained in the water sample; characterized in that prior to, or during collecting the water sample, carbon dioxide or hydrogen gas is led into a container, test tube, syringe or similar used in automatic water sample collection or into the actual water sample. a) automatically collecting a water sample; b) cultivating the collected water sample so as to grow microbes that may be contained in the water sample;