mhurhangee/ep-ind-claims huggingface dataset:
Apparatus to be connected downstream of a kiln for cooling the fired bulk material, namely cement clinker, which apparatus has a grate which conveys a layer of the bulk material in a conveying direction which is directed from a feed end to a delivery end, which grate comprises a plurality of elongate planks which are arranged next to one another, are driven to and fro separately, and the drive of which is configured in such a way that the return stroke of adjacent planks does not take place at the same time and their forward stroke takes place at the same time, and which planks are configured for the cooling air throughflow from bottom to top, characterized in that a sealing device is provided between adjacent planks, which sealing device comprises a longitudinally continuous U-shaped profile which is fastened on one of the planks and has a downwardly protruding limb, the limb protruding into the material bed formed on the adjacent plank and, in order to form a labyrinth seal, interacting with a wall which protrudes upwards from the edge of this adjacent plank, and the U-shaped profile supporting a side wall, the side wall forming the downwardly protruding limb.
An ion source (100; 300; 600), comprising: a body comprising an ionization chamber and a sample inlet leading into the ionization chamber, the ionization chamber comprising a first end and a second end, and having a length along a source axis from the first end to the second end; a magnet assembly (112; 612) surrounding the body and configured for generating an axial magnetic field in the ionization chamber; an electron source positioned at the first end and comprising a thermionic cathode, the electron source configured for accelerating an electron beam (362; 672) through the ionization chamber along the source axis; and a lens assembly comprising an extractor positioned at the second end, and a first lens element outside the ionization chamber and spaced from the extractor along the source axis; wherein the extractor is configured for directing an ion beam out from the ionization chamber along the source axis; characterized in that: the electron source also comprises an electron reflector configured for accelerating electrons toward the lens assembly; in that the first lens element of the lens assembly is configured for reflecting the electron beam back into the ionization chamber toward the electron source for reflection of the electron beam back and forth along the source axis between the electron source and the lens assembly; and in that the lens assembly also comprises a second lens element spaced from the first lens element along the source axis, and configured for transmitting higher energy ions while reflecting lower energy ions toward the first lens element. a body comprising an ionization chamber and a sample inlet leading into the ionization chamber, the ionization chamber comprising a first end and a second end, and having a length along a source axis from the first end to the second end; a magnet assembly (112; 612) surrounding the body and configured for generating an axial magnetic field in the ionization chamber; an electron source positioned at the first end and comprising a thermionic cathode, the electron source configured for accelerating an electron beam (362; 672) through the ionization chamber along the source axis; and a lens assembly comprising an extractor positioned at the second end, and a first lens element outside the ionization chamber and spaced from the extractor along the source axis; wherein the extractor is configured for directing an ion beam out from the ionization chamber along the source axis; the electron source also comprises an electron reflector configured for accelerating electrons toward the lens assembly; in that the first lens element of the lens assembly is configured for reflecting the electron beam back into the ionization chamber toward the electron source for reflection of the electron beam back and forth along the source axis between the electron source and the lens assembly; and in that the lens assembly also comprises a second lens element spaced from the first lens element along the source axis, and configured for transmitting higher energy ions while reflecting lower energy ions toward the first lens element.
Steam turbine having a turbine housing having a plurality of turbine housing parts, said turbine housing surrounding a flow space along a turbine longitudinal axis, wherein the turbine housing has a housing wall, wherein a parting line is formed between two adjacent turbine housing parts and wherein at least one flow shield is arranged on a side of the housing wall facing the flow space, said flow shield shielding a wall portion of the housing wall from a flow in the flow space, wherein an intermediate space is formed between the flow shield and the wall portion of the housing wall, wherein, in at least one region, the intermediate space has an opening to the flow space, wherein a fluid-communicating connection of the intermediate space to the flow space is formed via the opening, wherein the opening is in the form of a gap between the flow shield and the housing wall, characterized in that the flow shield extends in the circumferential direction of the housing wall only over a partial circumferential region of the housing wall.
An apparatus for moulding battery components comprising: a molten metal feed trough; a mould block adjacent to the feed trough, the mould block having at least one mould cavity and a cooling arrangement which in use cools the mould block; a weir between the feed trough and the or each cavity; a supply for feeding molten metal to the feed trough; wherein the mould block is provided with a heating arrangement adjacent to the or each mould cavity, characterised in that, the heating arrangement includes at least one thermal bridge provided adjacent to the mould block; and, wherein the heating arrangement is configured in use to locally heat the mould block by conducting thermal energy from the molten metal in the feed trough to the mould block, such that at least part of the or each mould cavity is maintained at an elevated temperature relative to the average operational temperature of the mould block. a molten metal feed trough; a mould block adjacent to the feed trough, the mould block having at least one mould cavity and a cooling arrangement which in use cools the mould block; a weir between the feed trough and the or each cavity; a supply for feeding molten metal to the feed trough; wherein the mould block is provided with a heating arrangement adjacent to the or each mould cavity, characterised in that, the heating arrangement includes at least one thermal bridge provided adjacent to the mould block; and, wherein the heating arrangement is configured in use to locally heat the mould block by conducting thermal energy from the molten metal in the feed trough to the mould block, such that at least part of the or each mould cavity is maintained at an elevated temperature relative to the average operational temperature of the mould block.
A method for genotyping a Plasmodium comprising: (a) providing a sample containing a Plasmodium; and (b) detecting the presence or absence of a non-synonymous SNP within a K-13 propeller nucleic acid or the presence or absence of a mutated K13 propeller protein wherein the mutation is a difference in an amino acid residue resulting from said non-synonymous SNP, in the sample and wherein the non-synonymous SNP is one of the following: • F446I ttt/att • G449A ggt/gct • N458Y aat/tat • C469Y tgc/tac • W470stop tgg/tga • A481V gct/gtt • Y493H t ac/ c ac • K503N aag/aat • S522C agt/tgt • V534A gtt/gct • R539T aga/aca • I543T att/act • G548D ggc/gac • P553L ccg/ctg • V555A g t a/g c a • A557S g ca/ t ca • R561H cgt/cat • K563R aaa/aga • V568G gtg/ggg • P574L cct/ctt • A578S gct/tct • C580Y t g t/t a t • F583L ttt/tta/g • D584V gat/gtt • V589I gtc/atc • Q613E caa/gaa • D641G gat/ggt.. (a) providing a sample containing a Plasmodium; and (b) detecting the presence or absence of a non-synonymous SNP within a K-13 propeller nucleic acid or the presence or absence of a mutated K13 propeller protein wherein the mutation is a difference in an amino acid residue resulting from said non-synonymous SNP, in the sample and wherein the non-synonymous SNP is one of the following: • F446I ttt/att • G449A ggt/gct • N458Y aat/tat • C469Y tgc/tac • W470stop tgg/tga • A481V gct/gtt • Y493H t ac/ c ac • K503N aag/aat • S522C agt/tgt • V534A gtt/gct • R539T aga/aca • I543T att/act • G548D ggc/gac • P553L ccg/ctg • V555A g t a/g c a • A557S g ca/ t ca • R561H cgt/cat • K563R aaa/aga • V568G gtg/ggg • P574L cct/ctt • A578S gct/tct • C580Y t g t/t a t • F583L ttt/tta/g • D584V gat/gtt • V589I gtc/atc • Q613E caa/gaa • D641G gat/ggt..
An automation system for controlling a machine or an installation, with a machine controller in a control level and a number of sensors and/or actuators assigned to the machine or installation in a sensor-actuator level, wherein sensor signals from the sensors and/or actuator signals from the actuators are fed to the machine control system and control commands for the machine or installation are generated in the machine control system, wherein the sensors and/or actuators exchange information directly with a computer network comprising at least one computer unit via the Internet by means of tamper-proof protocols, wherein the sensors can be identified by the computer network by means of a unique identifier, and wherein control commands for the machine or installation are generated in the computer network, which are transmitted to at least one sensor or actuator, characterised in that in each sensor or actuator there are control means which are designed to control the machine or installation as a function of a control command from the computer network and memory means for storing the identifier and communication means for communicating with the computer network, whereby the control means are used to control the machine or installation directly and without a diversion via the machine control system, depending on a control command from the computer network.
Electric circuit (40; 70) arranged to be connected to at least one photovoltaic panel, to at least one main battery and to a charge regulator, and comprising:. a first power supply component arranged to, at predefined intervals, generate a first voltage from a photovoltaic energy which is produced by the at least one photovoltaic panel;. a switching module arranged to, when the first power supply component generates the first voltage, be powered by said first voltage and apply, to the terminals of the at least one main battery and of the charge regulator, for a predefined duration, a power supply voltage (Va) produced from the photovoltaic energy.. a first power supply component arranged to, at predefined intervals, generate a first voltage from a photovoltaic energy which is produced by the at least one photovoltaic panel;. a switching module arranged to, when the first power supply component generates the first voltage, be powered by said first voltage and apply, to the terminals of the at least one main battery and of the charge regulator, for a predefined duration, a power supply voltage (Va) produced from the photovoltaic energy.
A filled trench comprising: a pair of conduits (3a, 3b) of one or more thermal energy distribution systems, the pair of conduits (3a, 3b) being configured to deliver fluid with a different temperature in each of the conduits (3a, 3b), the pair of conduits (3a, 3b) being circumferentially surrounded by particulate filling material on all sides thereof as seen in the vertical cross sectional side view of the filled trench; a first section filled with a particulate filling material of a first type, wherein the first filled section of the filled trench occupies a space in between the pair of conduits (3a, 3b); and a second section filled with a particulate filling material of a second type, wherein each of the pair of conduits (3a,3b) are circumferentially surrounded by the particulate filling material of the second type as seen in the vertical cross sectional side view of the filled trench, wherein the first section is separating the second section into two spaced apart portions; wherein the first section is centrally arranged in the trench, and wherein the second section is flanking the first section on two sides thereof; wherein the first section extends vertically or horizontally through the vertical cross-section of the trench; wherein the filling material of the first type has a first thermal conduction coefficient and the filling material of a second type has a second thermal conduction coefficient, wherein the first thermal conduction coefficient is smaller than the second thermal conduction coefficient. a pair of conduits (3a, 3b) of one or more thermal energy distribution systems, the pair of conduits (3a, 3b) being configured to deliver fluid with a different temperature in each of the conduits (3a, 3b), the pair of conduits (3a, 3b) being circumferentially surrounded by particulate filling material on all sides thereof as seen in the vertical cross sectional side view of the filled trench; a first section filled with a particulate filling material of a first type, wherein the first filled section of the filled trench occupies a space in between the pair of conduits (3a, 3b); and a second section filled with a particulate filling material of a second type, wherein each of the pair of conduits (3a,3b) are circumferentially surrounded by the particulate filling material of the second type as seen in the vertical cross sectional side view of the filled trench, wherein the first section is separating the second section into two spaced apart portions; wherein the first section is centrally arranged in the trench, and wherein the second section is flanking the first section on two sides thereof; wherein the first section extends vertically or horizontally through the vertical cross-section of the trench; wherein the filling material of the first type has a first thermal conduction coefficient and the filling material of a second type has a second thermal conduction coefficient, wherein the first thermal conduction coefficient is smaller than the second thermal conduction coefficient.
A method for creating an FPGA network list, the method being performed by a data processing device having a processor unit, the network list generated from an FPGA source code and at least one shadow register, the FPGA source code defining at least one function and at least one signal, the shadow register being associated with the at least one signal and set up and provided for storing the value of the associated signal during runtime, an option of reading out the stored signal value during runtime being provided and set up, the function defined in the FPGA source code not being modified by the shadow register, the network list being converted into a bit stream and loaded onto an FPGA and implemented by the FPGA, the function described by the FPGA source code being implemented by the FPGA, the shadow register being automatically inserted and associated with the signal, a functional decoupling of the shadow register from the function described in the FPGA source code being provided and set up, the shadow register retaining the signal value stored at the point in time of the decoupling due to the decoupling, while the function described in the FPGA source code is implemented.
Computer-implemented method for generating data for the production of at least one spectacle lens (120, 120') adapted to a spectacle frame of a pair of spectacles, the computer-implemented method comprising the following steps: (i) providing at least one first data set stored on a storage medium, the first data set comprising at least the following data values: - at least one centering value; - a three-dimensional model of the spectacle frame; (ii) creating at least one second data set stored on a storage medium using the at least one first data set, the second data set comprising at least the following data values: - at least one geometric value of at least one surface of the at least one spectacle lens (120, 120'); characterized in that the method comprises the following step: (iii) creating at least one third data set stored on a storage medium for producing the at least one spectacle lens (120, 120') from at least one spectacle lens blank and for grinding and/or fitting the at least one spectacle lens (120, 120') into the spectacle frame using the at least one first data set and the at least one second data set, wherein the at least one third data set is a production data set, each data value of the at least one third data set comprising at least one piece of information relating to the production of the at least one spectacle lens (120, 120') or to grinding and/or fitting the at least one spectacle lens (120, 120') into the spectacle frame, wherein the information is used in a method for producing at least one pair of spectacles, wherein the data values of each data set have a spatial relationship with one another in that the data values of each data set are consistently specified in relation to a respective coordinate system, with all data values of each data set being specified in a coordinate system common to all data sets. (i) providing at least one first data set stored on a storage medium, the first data set comprising at least the following data values: - at least one centering value; - a three-dimensional model of the spectacle frame; - at least one centering value; - a three-dimensional model of the spectacle frame; (ii) creating at least one second data set stored on a storage medium using the at least one first data set, the second data set comprising at least the following data values: - at least one geometric value of at least one surface of the at least one spectacle lens (120, 120'); - at least one geometric value of at least one surface of the at least one spectacle lens (120, 120');
A method for the hydrometallurgical recovery of lithium, nickel, cobalt from the lithium transition metal oxide containing fraction of used galvanic cells, characterized in that a lithium transition metal oxide containing fraction, wherein the transition metals are nickel, cobalt, and/or manganese having an aluminum content of up to 5% by weight and a particle size of up to 500 μm, is introduced into an at least stoichiometric quantity of sulfuric acid, based on the oxide content of the lithium transition metal oxide containing fraction, having a concentration of from 0.5 to 4 mol/L and a solid to liquid ratio ranging from 20 to 250 g/L; and solubilized at temperatures ranging from 35 to 70°C, with the addition of at least a stoichiometric quantity of hydrogen peroxide, likewise based on the transition metal content to be reduced of the lithium transition metal oxide containing fraction; the formed lithium sulfate and the sulfates of the aforementioned solution containing transition metals are separated, and the remaining residue is washed at least twice; the separated sulfate and sulfate-containing wash solutions are combined; the transition metals in a pH range from 9 to 11 are precipitated out as hydroxides, separated, and washed; and the remaining solutions containing lithium sulfate are combined and converted to lithium hydroxide by means of electrodialysis with bipolar membranes.
A user equipment for performing a random access procedure in a communication system, the user equipment comprising: a transmitter (901, 1002) which, in operation, transmits a random access preamble to a base station, a receiver (902, 1003) which, in operation, receives a random access response message from the base station in response to transmitting the random access preamble, characterized in that the random access response message comprises a grant of resources to the user equipment for a scheduled uplink transmission, and a field indicating a number of repetitions transmitted from the user equipment on the granted resources for the scheduled uplink transmission in consecutive subframes without waiting for a Hybrid Automatic-Repeat Request, HARQ, feedback from the base station. a transmitter (901, 1002) which, in operation, transmits a random access preamble to a base station, a receiver (902, 1003) which, in operation, receives a random access response message from the base station in response to transmitting the random access preamble, characterized in that the random access response message comprises a grant of resources to the user equipment for a scheduled uplink transmission, and a field indicating a number of repetitions transmitted from the user equipment on the granted resources for the scheduled uplink transmission in consecutive subframes without waiting for a Hybrid Automatic-Repeat Request, HARQ, feedback from the base station.
A packet processing method, wherein the method is applied to a forwarding node in an information centric network, ICN, wherein the forwarding node comprises a pending information table, PIT, the PIT comprises one or more PIT entries, and each PIT entry comprises a content name and a port; and the method comprises: receiving, by the forwarding node, a data packet, wherein the data packet is generated and sent by a destination device after the destination device receives a first interest packet that is sent by a source device and is forwarded via the forwarding node, wherein the first interest packet is used by the source device to request content from the destination device, the data packet carries a content name that is the same as a content name of the content requested by using the first interest packet, and when forwarding the first interest packet, the forwarding node matches the first interest packet with the pending information table, so that the pending information table comprises a PIT entry corresponding to the first interest packet; characterized in that when determining that the data packet carries a second interest packet, matching the content name carried in the data packet with the content name in the PIT entry, and forwarding the data packet to the source device according to the port in the matched PIT entry, wherein the second interest packet is used by the destination device to request content from the source device. receiving, by the forwarding node, a data packet, wherein the data packet is generated and sent by a destination device after the destination device receives a first interest packet that is sent by a source device and is forwarded via the forwarding node, wherein the first interest packet is used by the source device to request content from the destination device, the data packet carries a content name that is the same as a content name of the content requested by using the first interest packet, and when forwarding the first interest packet, the forwarding node matches the first interest packet with the pending information table, so that the pending information table comprises a PIT entry corresponding to the first interest packet; characterized in that when determining that the data packet carries a second interest packet, matching the content name carried in the data packet with the content name in the PIT entry, and forwarding the data packet to the source device according to the port in the matched PIT entry, wherein the second interest packet is used by the destination device to request content from the source device.