mhurhangee/ep-ind-claims huggingface dataset:
A method for operating an electronic device (10, 20) operable by a power supply voltage obtained from a commercial power supply, the electronic device (10, 20) comprising: first communication means for receiving meter data from a meter, a nonvolatile memory; a controller for writing the meter data received by the first communication means into the nonvolatile memory and reading the meter data from the nonvolatile memory; a capacitor (26, 28) charged with the power supply voltage and for maintaining the power supply voltage for a predetermined period, preferably for at least 30 seconds, from start of a power failure, and second communication means (32, 48) for transmitting the meter data read from the nonvolatile memory to a server, the method comprising: detecting a power failure by monitoring the power supply voltage using the first communication means; writing power failure occurrence time information to the nonvolatile memory using power of the capacitor (26, 28) when the power failure is detected; reading the power failure occurrence time information from the nonvolatile memory when the power failure is recovered; and transmitting the power failure occurrence time information to the server using the second communication device (32, 48). first communication means for receiving meter data from a meter, a nonvolatile memory; a controller for writing the meter data received by the first communication means into the nonvolatile memory and reading the meter data from the nonvolatile memory; a capacitor (26, 28) charged with the power supply voltage and for maintaining the power supply voltage for a predetermined period, preferably for at least 30 seconds, from start of a power failure, and second communication means (32, 48) for transmitting the meter data read from the nonvolatile memory to a server, the method comprising: detecting a power failure by monitoring the power supply voltage using the first communication means; writing power failure occurrence time information to the nonvolatile memory using power of the capacitor (26, 28) when the power failure is detected; reading the power failure occurrence time information from the nonvolatile memory when the power failure is recovered; and transmitting the power failure occurrence time information to the server using the second communication device (32, 48). detecting a power failure by monitoring the power supply voltage using the first communication means; writing power failure occurrence time information to the nonvolatile memory using power of the capacitor (26, 28) when the power failure is detected; reading the power failure occurrence time information from the nonvolatile memory when the power failure is recovered; and transmitting the power failure occurrence time information to the server using the second communication device (32, 48).
Resistance welding electrode with a shaft-like holder and an electrode member (3; 3') in the form of an electrode cap or a rod electrode, which are joined in a friction-locked manner by means of tapered surfaces and have at least one cooling bore, wherein the holder and the electrode member (3; 3') are joined in such a way that the holder and the electrode member (3; 3') are additionally axially in contact with one another by means of a radial surface support, characterised in that the taper angle of the tapered surfaces is in a range of approximately 1 to approximately 3 degrees and the edge of the electrode member (3, 3') abutting the holder is wedged in an associated, holder-side recess support by tapering.
Device for joining multi-part tampon applicators, in particular three-part tampon applicators, wherein the multi-part tampon applicators comprise an outer cylinder and a first inner cylinder, the device comprising: a. at least one joining station with at least one receiving finger (13.1, 13.2) for receiving one outer cylinder and one first inner cylinder each; b. a first inner cylinder supply for loading the at least one receiving finger with at least one first inner cylinder; c. an outer cylinder supply for loading the at least one receiving finger (13.1, 13.2) with at least one outer cylinder; d. a first processing station for joining the at least one outer cylinder to the at least one first inner cylinder, and characterized in that the at least one joining station is arranged radially on a circular disk, in particular in such a way that the at least one receiving finger (13.1, 13.2) is oriented essentially radially. a. at least one joining station with at least one receiving finger (13.1, 13.2) for receiving one outer cylinder and one first inner cylinder each; b. a first inner cylinder supply for loading the at least one receiving finger with at least one first inner cylinder; c. an outer cylinder supply for loading the at least one receiving finger (13.1, 13.2) with at least one outer cylinder; d. a first processing station for joining the at least one outer cylinder to the at least one first inner cylinder, and
Channel for protecting and insulating electrical power supply cables with angle profile, and at least one rubber sleeve structured on open trench on its longitudinal axis in a civil engineering installation and with two zones, a zone of greater height and another zone of lower height, with different heights at which, respectively, the cables will be placed, that must be protected and the angle profiles, located on the upper side opposite the zone of greatest height; the angle profiles have a closed tubular configuration and each one has at least one flat upper face; and the rubber sleeve mounted on the entire set with the possibility of accessing, at least the zone of greatest height of the trench, it includes longitudinal grooves that contribute to its flexibility; having: a) a deformable support, with two opposite edges, located in the zone of greatest height and distant both from its sides and from its base, where the cables that must be protected are located; the cables are supported and hang from the deformable support without direct contact with the civil engineering installation; b) two stanchions, associated with said deformable support and arranged respectively on the angle profiles toward the upper sides and opposite the zone; of greatest height. c) means for sustaining the deformable support on the stanchions, and for fastening said set to the angle profiles, forming with them a hidden block with the rubber sleeve. a) a deformable support, with two opposite edges, located in the zone of greatest height and distant both from its sides and from its base, where the cables that must be protected are located; the cables are supported and hang from the deformable support without direct contact with the civil engineering installation; b) two stanchions, associated with said deformable support and arranged respectively on the angle profiles toward the upper sides and opposite the zone; of greatest height. c) means for sustaining the deformable support on the stanchions, and for fastening said set to the angle profiles, forming with them a hidden block with the rubber sleeve.
A double-membrane pump comprising a pump housing having two parallel line sections (1, 2) each with a membrane chamber (11, 21), which in each case is enclosed between two ball valves (5, 6), which close in the same direction as the flow direction, and is divided in a liquid-tight manner by a membrane (12, 22) into a liquid chamber (13, 23) and an air chamber (14, 24), wherein at least one electromagnet is further associated with the pump housing in a magnet chamber arranged between the air chambers (14, 24), with action means connected to the membranes (12, 22) in the operative region of said electromagnet being arranged movably in each case between two movement end points, wherein the action means are ferromagnetic or permanent-magnetic elements or at least one further electromagnet associated in each case with the membranes (12, 22) and alternately attracted or repelled by the electromagnet in a contact-free manner, characterised in that the two membranes (12, 22) can be influenced independently of one another by means of two independently operable magnetic coils of the electromagnet.
A food biopreservative composition comprising (i) a consortium of lactic acid bacteria comprising at least one homofermentative lactic acid bacterium and at least one heterofermentative lactic acid bacterium; and (ii) an activating agent, wherein the activating agent is starch, a carbohydrate having from 3 to 5 carbon atoms or comprises a fructooligosaccharide and is either in solid form, in solution or dispersion in a concentration of between 0.001% and 20.0% (w/w) in the composition, and wherein (a) the homofermentative lactic acid bacterium is Lactobacillus delbrueckii subsp. bulgaricus, Lactobacillus delbrueckii subsp. lactis, Lactobacillus delbrueckii subsp. leichmannii, Lactobacillus acidophilus, Lactobacillus amylophilus, Lactobacillus amylovorus, Lactobacillus animalis, Lactobacillus crispatus, Lactobacillus farciminis, Lactobacillus gasseri, Lactobacillus jensenii, Lactobacillus ruminis, Lactobacillus salivarius, Lactobacillus sharpeae, Lactobacillus vitulinus, Lactobacillus yamanashiensis or any combination of at least two thereof; and/or (b) the heterofermentative bacterium is Streptococcus thermophilus, Leuconostoc, Pediococcus, Lactobacillus plantarum, Lactobacillus rhamnosus, Lactobacillus helveticus or any combination of at least two thereof. (a) the homofermentative lactic acid bacterium is Lactobacillus delbrueckii subsp. bulgaricus, Lactobacillus delbrueckii subsp. lactis, Lactobacillus delbrueckii subsp. leichmannii, Lactobacillus acidophilus, Lactobacillus amylophilus, Lactobacillus amylovorus, Lactobacillus animalis, Lactobacillus crispatus, Lactobacillus farciminis, Lactobacillus gasseri, Lactobacillus jensenii, Lactobacillus ruminis, Lactobacillus salivarius, Lactobacillus sharpeae, Lactobacillus vitulinus, Lactobacillus yamanashiensis or any combination of at least two thereof; and/or (b) the heterofermentative bacterium is Streptococcus thermophilus, Leuconostoc, Pediococcus, Lactobacillus plantarum, Lactobacillus rhamnosus, Lactobacillus helveticus or any combination of at least two thereof.
A method of manufacturing a smoking article, such as cigarillo, comprising the steps: fabricating a tobacco rod element comprised of tobacco cut filler and a binder layer which binds the tobacco cut filler in the rod element; providing a cover layer of natural tobacco leaf, wherein the cover layer comprises a pattern imprinted in the natural tobacco leaf; and wrapping or covering the tobacco rod element with the cover layer of natural tobacco leaf; and wherein the step of providing the cover layer of natural tobacco leaf comprises feeding or delivering the natural tobacco leaf to be wrapped around the tobacco rod element supported on a web of material, wherein the web of material comprises a surface profile which impresses the pattern into the natural tobacco leaf. fabricating a tobacco rod element comprised of tobacco cut filler and a binder layer which binds the tobacco cut filler in the rod element; providing a cover layer of natural tobacco leaf, wherein the cover layer comprises a pattern imprinted in the natural tobacco leaf; and wrapping or covering the tobacco rod element with the cover layer of natural tobacco leaf; and wherein the step of providing the cover layer of natural tobacco leaf comprises feeding or delivering the natural tobacco leaf to be wrapped around the tobacco rod element supported on a web of material, wherein the web of material comprises a surface profile which impresses the pattern into the natural tobacco leaf.
An air-handling unit of the type constituted on the basis of an evaporator through which water is made to pass so that it cools the air passing through said evaporator, the air being driven by means of a turbo fan, and an evaporator mounting tray, in which there is a water-receiving surface, being located below the evaporator, characterized in that it incorporates a water-intake circuit that communicates directly with the evaporator mounting tray, which circuit is associated with an electric valve by which it is connected to the vehicle's own main pump associated with the corresponding feeder by means of the corresponding lines, with the particular feature that the evaporator mounting tray is associated with a water-cycle circuit that carries the water contained within it to the evaporator, which circuit is subdivided into two subcircuits, in each of which is included a water pump (8, 9), a water-level sensor (5, 6), a container valve, a filter for impurities (10, 13), and the corresponding lines, in such a way that said subcircuits are set up in correspondence with the front and rear zones of the tray, respectively, while the different electric valves, pumps, and sensors and the turbo fan are operated by a control module with the corresponding programming software for optimal control of the apparatus.
A vehicle comprising a chassis, a tiltable cab, a pipe being attached to the rear side of the cab, and a coupling device configured for providing a chassis based connection with the pipe in a non-tilted position of the cab and configured for disconnecting the pipe from the chassis based connection in a tilted position of the cab, said coupling device comprising a bellows connected to said pipe and a coupling element for receiving said bellows in said non-tilted position, characterized in that the vehicle comprises a liquefied gas fuel system and in that said pipe is a boil-off pipe of a liquefied gas fuel system for said vehicle, said fuel system having a chassis-mounted liquefied gas fuel tank for providing fuel to an engine of the vehicle, wherein evaporated gas is arranged to be evacuated from said tank via said boil-off pipe at a certain tank pressure, wherein said chassis based connection is arranged to provide a connection between said tank and said boil-off pipe, and wherein the evaporated gas from said tank is evacuated through said coupling element comprising a pipe opening for providing a connection for an external evacuation of said evaporated gas in said tilted position.
A flexible circuit structure for a hybrid voltage source converter suitable for high voltage DC power transmission and reactive power compensation, the circuit comprising an assembly of electrically interconnected elements including a plurality of first, elements (1 to 6) and a plurality of second elements (7 to 20) in which the circuit arrangement included in the or each first element is different to the circuit arrangement included in the or each second element, the circuit further including AC terminals (36a, 36b,36c) connectable, in use, to an AC network and DC terminals (42a, 42b) connectable, in use, to a DC network, characterized in that a first set (7 to 9), of the plurality of second elements is connected between the AC terminals and the plurality of first elements (1 to 6) and a second set (11 to 16) of the plurality of second elements is interconnected between the plurality of first elements (1 to 6) and the DC terminals, the circuit allowing each of the first and second elements being configured to be bypassed, to be disconnected or to include a circuit arrangement of one or more electronic components to construct, in use, hybrid voltage source converter configurations utilizing fewer of the components including at least one first element and at least one second element.
Device for the control of a safety-relevant process, wherein the device is of a redundant design, with a primary control unit and a secondary control unit, wherein the secondary control unit carries out the function of the primary control unit in the event of a fault, wherein the control of the safety-relevant process takes place based on the analysis of the signals of at least one sensor, wherein a communications bus is provided that enables the exchange of data between the primary and secondary control units, wherein the at least one sensor can be connected to the primary control unit and to the secondary control unit, characterized in that a respective dedicated sensor arrangement isolation circuit (116, 136) is associated with the primary control unit and the secondary control unit, which when activated isolates the associated primary or secondary control unit from the at least one sensor.
A computer implemented method for executing a modifying run-time-instrumentation controls, MRIC, instruction from a program running in a lesser-privileged state of a processor, the MRIC instruction for setting only a subset of run-time-instrumentation controls located in a register, wherein all of said run-time-instrumentation controls are loadable by a privileged load run-time-instrumentation controls, LRIC, instruction executing in a privileged state of the processor, the method comprising: fetching (702, 802) the MRIC instruction, the MRIC instruction including an address of a run-time-instrumentation control block, RICCB; fetching, by a processor, the RICCB, the RICCB including a plurality of run-time instrumentation control values for modifying said subset of run-time-instrumentation controls of the processor, the subset of run-time-instrumentation controls comprising a runtime instrumentation program buffer current address, RCA, of a runtime instrumentation program buffer, RIB, location, the RIB for holding runtime instrumentation information of events recognized by the processor during program execution; loading, the plurality of values into the run-time-instrumentation controls; and using the loaded plurality of values to provide run-time-instrumentation event information to the RIB; deriving a model dependent value for at least one of the plurality of values of the RICCB; and loading the model dependent value as an updated value into the run-time-instrumentation controls. fetching (702, 802) the MRIC instruction, the MRIC instruction including an address of a run-time-instrumentation control block, RICCB; fetching, by a processor, the RICCB, the RICCB including a plurality of run-time instrumentation control values for modifying said subset of run-time-instrumentation controls of the processor, the subset of run-time-instrumentation controls comprising a runtime instrumentation program buffer current address, RCA, of a runtime instrumentation program buffer, RIB, location, the RIB for holding runtime instrumentation information of events recognized by the processor during program execution; loading, the plurality of values into the run-time-instrumentation controls; and using the loaded plurality of values to provide run-time-instrumentation event information to the RIB; deriving a model dependent value for at least one of the plurality of values of the RICCB; and loading the model dependent value as an updated value into the run-time-instrumentation controls.
n error correction encoding method of calculating a parity bit sequence from an information bit sequence by using a sparse parity-check matrix for a QC-LDPC, Quasi-Cyclic Low-Density Parity-Check code, and to generate a codeword, in which ∘ said information bit sequence d=d b,1,..., d b,K is a vector consisting of elements d b,i corresponding an i-th information bit block, 1≤i≤K, where each element d b,i consists of q elements, ∘ said parity bit sequence p=p b,1,..., p b,M is a vector consisting of elements p b,j corresponding an j-th parity bit block, 1≤j≤M, where each element p b,j consists of q elements, ∘ said parity-check matrix with M rows and N columns of qxq submatrices has the following structure X 11 X 12... X 1K Z 1 l 0...... 0 X 21 X 22... X 2K Z 2 l l 0... 0 0 l l 0 0 0 l l X M1 X M2... X MK Z M 0 0 0 0 l where the submatrices X ji correspond to said information bit sequence and are cyclic shifted q x q unit matrices or q x q zero matrices, the submatrices Z j correspond to the first parity bit element p b,1 and are cyclic shifted q x q unit matrices or q x q zero matrices, and the submatrices I are q x q unit submatrices, or said parity check matrix has said structure after column permutation, and ∘ each element of said parity bit sequence is calculated according to three equations shown below ∘ ∘ d b, 1 T = Σ M j = 1 Z j − 1 Σ M j = 1 Σ i = 1 K X ji d T b, i ∘ ∘ 2 ≤ j ≤ M − 1: p T b, j = Σ M r = j Σ i = 1 K X ri d T b, i + Σ M r = j Z r p b, 1 T ∘ ∘ p b, M T = Σ K i = 1 X Mi d T b, i + Z M p b, 1 T where T is a transposed matrix. ∘ said information bit sequence d=d b,1,..., d b,K is a vector consisting of elements d b,i corresponding an i-th information bit block, 1≤i≤K, where each element d b,i consists of q elements, ∘ said parity bit sequence p=p b,1,..., p b,M is a vector consisting of elements p b,j corresponding an j-th parity bit block, 1≤j≤M, where each element p b,j consists of q elements, ∘ said parity-check matrix with M rows and N columns of qxq submatrices has the following structure X 11 X 12... X 1K Z 1 l 0...... 0 X 21 X 22... X 2K Z 2 l l 0... 0 0 l l 0 0 0 l l X M1 X M2... X MK Z M 0 0 0 0 l where the submatrices X ji correspond to said information bit sequence and are cyclic shifted q x q unit matrices or q x q zero matrices, the submatrices Z j correspond to the first parity bit element p b,1 and are cyclic shifted q x q unit matrices or q x q zero matrices, and the submatrices I are q x q unit submatrices, or said parity check matrix has said structure after column permutation, and ∘ each element of said parity bit sequence is calculated according to three equations shown below ∘ ∘ d b, 1 T = Σ M j = 1 Z j − 1 Σ M j = 1 Σ i = 1 K X ji d T b, i ∘ ∘ 2 ≤ j ≤ M − 1: p T b, j = Σ M r = j Σ i = 1 K X ri d T b, i + Σ M r = j Z r p b, 1 T ∘ ∘ p b, M T = Σ K i = 1 X Mi d T b, i + Z M p b, 1 T where T is a transposed matrix.
Method for processing a measured-value signal representing a value determined in an analogue manner for the output current of a converter, wherein the measured-value signals detected by a sensor, which in particular comprises a shunt resistor, are supplied to a respective processing channel having at least one delta-sigma modulator, wherein the measured-value signal is supplied to the delta-sigma modulator, which provides a bit stream, specifically a single-bit data stream, at its output, wherein the bit stream is supplied to a first digital filter, which converts the bit stream into a stream of digital intermediate words, i.e. a multi-bit data stream, wherein the first digital filter has a number n of accumulators, in particular integrators, arranged in series, wherein n is 3, wherein the bit stream is clocked at a clock frequency f S, i.e. with a clock period T S = 1/f S, wherein the stream of digital intermediate words is clocked and thus updated at a clock frequency fs, i.e. with the clock period T S = 1/f S, wherein the output signal of the first digital filter is supplied to a second digital filter, wherein the second digital filter has the difference between a first and a second result data word stream as the output data word stream, wherein the first and second result data word streams are determined from the intermediate data word stream over a first and second time range, wherein the first and second time ranges are arranged in an interval T1, wherein the first result data word stream is determined from the intermediate data word stream as a discrete-time differential of the (n-1)th order having the time scale T D and wherein the second result data word stream is determined from the intermediate data word stream as a discrete-time differential of the (n-1)th order having the time scale T D, wherein T1 is greater than double T D or equal to double T D.