mhurhangee/ep-ind-claims huggingface dataset:
A battery charging device for charging a battery with power drawn via a wall plug, said device comprising: a first diode with the anode electrically coupled to a first terminal of a wall plug; a second diode with the anode electrically coupled to a second terminal of the wall plug; a third diode with the cathode electrically coupled to the first terminal of the wall plug; a fourth diode with the cathode electrically coupled to the second terminal of the wall plug, wherein the first diode, the second diode the third diode, and the fourth diode cooperate to form a full-wave rectifier; characterised in that the battery charging device further comprises: a first metal-oxide varistor (first MOV) connected in parallel with the third diode; a second metal-oxide varistor (second MOV) connected in parallel with the fourth diode; and a first capacitor arranged to electrically couple the anodes of the third diode and the fourth diode to a chassis ground of the device. a first diode with the anode electrically coupled to a first terminal of a wall plug; a second diode with the anode electrically coupled to a second terminal of the wall plug; a third diode with the cathode electrically coupled to the first terminal of the wall plug; a fourth diode with the cathode electrically coupled to the second terminal of the wall plug, wherein the first diode, the second diode the third diode, and the fourth diode cooperate to form a full-wave rectifier; characterised in that the battery charging device further comprises: a first metal-oxide varistor (first MOV) connected in parallel with the third diode; a second metal-oxide varistor (second MOV) connected in parallel with the fourth diode; and a first capacitor arranged to electrically couple the anodes of the third diode and the fourth diode to a chassis ground of the device. a first metal-oxide varistor (first MOV) connected in parallel with the third diode; a second metal-oxide varistor (second MOV) connected in parallel with the fourth diode; and a first capacitor arranged to electrically couple the anodes of the third diode and the fourth diode to a chassis ground of the device.
A method of disposing a composition onto a surface of an edible substrate, the method comprising (a) printing, via contact or non-contact printing, the composition onto the surface of the substrate; wherein the composition is in the form of a slurry and comprises a dry mix having a particle size between 30-75μm, the dry mix comprising one or more flavors, and being dispersed in one or more polar solvents wherein none of the components of the dry mix are dissolved in the one or more polar solvents; and one or more film-forming amphiphilic polymers or co-polymers dissolved in said one or more polar solvents; and wherein the one or more film-forming amphiphilic polymers or co-polymers and the one or more polar solvents are selected from the group consisting of: (i) ethanol and ethyl acetate as polar solvents, and polyvinyl acetate and hydroxypropylcellulose as film-forming polymers, and (ii) ethanol and propylene glycol as polar solvents, and vinylpyrrolidone-vinyl acetate copolymer as film-forming copolymer; and (b) evaporating the polar solvents of the composition from the surface of the substrate. (a) printing, via contact or non-contact printing, the composition onto the surface of the substrate; wherein the composition is in the form of a slurry and comprises a dry mix having a particle size between 30-75μm, the dry mix comprising one or more flavors, and being dispersed in one or more polar solvents wherein none of the components of the dry mix are dissolved in the one or more polar solvents; and one or more film-forming amphiphilic polymers or co-polymers dissolved in said one or more polar solvents; and wherein the one or more film-forming amphiphilic polymers or co-polymers and the one or more polar solvents are selected from the group consisting of: (i) ethanol and ethyl acetate as polar solvents, and polyvinyl acetate and hydroxypropylcellulose as film-forming polymers, and (ii) ethanol and propylene glycol as polar solvents, and vinylpyrrolidone-vinyl acetate copolymer as film-forming copolymer; and (i) ethanol and ethyl acetate as polar solvents, and polyvinyl acetate and hydroxypropylcellulose as film-forming polymers, and (ii) ethanol and propylene glycol as polar solvents, and vinylpyrrolidone-vinyl acetate copolymer as film-forming copolymer; and (b) evaporating the polar solvents of the composition from the surface of the substrate.
A method for preparing keratin hydrolyzates, in which at least 30% of the protein fragments present have a molecular weight of less than 1000 Da and at least 15% have a molecular weight of less than 500 Da, wherein firstly a) keratin is oxidatively pretreated and b) enzymatically hydrolyzed in the presence of at least one endopeptidase, wherein subsequently c) enzymatic hydrolysis is carried out once again in the presence of at least one exopeptidase.
A method for transmitting a broadcast signal in a broadcast signal transmitting apparatus, the method comprising: compressing headers of data packets in an IP stream by using a Robust Header Compression, RoHC, scheme and outputting header compressed data packets, wherein the header compressed data packets comprise an Initialization and Refresh, IR, packet and an IR dynamic, IR-DYN, packet, wherein a header of the IR packet includes static chain information and dynamic chain information, and wherein a header of the IR-DYN packet includes dynamic chain information; separating the static chain information from the IR packet header and converting the IR packet header, which the static chain information is separated from, to an IR-DYN packet header; encoding Physical Layer Pipe, PLP, data in plural PLPs for each PLP, wherein one of the plural PLPs carries the separated static chain information and another of the plural PLPs carries the IR-DYN packets; bit interleaving the encoded PLP data; Quadrature Amplitude Modulation, QAM, mapping the bit-interleaved PLP data; time interleaving the QAM-mapped PLP data; generating a signal frame including the time-interleaved PLP data; modulating data in the signal frame by an Orthogonal Frequency Division Multiplexing, OFDM, method; and transmitting the broadcast signal including the modulated data. compressing headers of data packets in an IP stream by using a Robust Header Compression, RoHC, scheme and outputting header compressed data packets, wherein the header compressed data packets comprise an Initialization and Refresh, IR, packet and an IR dynamic, IR-DYN, packet, wherein a header of the IR packet includes static chain information and dynamic chain information, and wherein a header of the IR-DYN packet includes dynamic chain information; separating the static chain information from the IR packet header and converting the IR packet header, which the static chain information is separated from, to an IR-DYN packet header; encoding Physical Layer Pipe, PLP, data in plural PLPs for each PLP, wherein one of the plural PLPs carries the separated static chain information and another of the plural PLPs carries the IR-DYN packets; bit interleaving the encoded PLP data; Quadrature Amplitude Modulation, QAM, mapping the bit-interleaved PLP data; time interleaving the QAM-mapped PLP data; generating a signal frame including the time-interleaved PLP data; modulating data in the signal frame by an Orthogonal Frequency Division Multiplexing, OFDM, method; and transmitting the broadcast signal including the modulated data.
A Formwork of a central air-handling apparatus comprising: • an envelope which comprises: • a hollow floor forming a lower hollow facade, • a hollow ceiling forming an upper hollow facade, and • a side hollow facade connecting the ceiling and the floor, and • an access side wall inside the formwork, integral with the envelope, connected to the lower and upper hollow facades, disposed facing the side hollow facade and comprising at least one removable side panel, the envelope further comprising means for securing the side hollow facade to the lower hollow facade and/or the upper hollow facade, which securing means extend over the entire length of the formwork and are formed by an end part of the side hollow facade which is snap-fitted into an end part of the lower hollow facade and/or into an end part of the upper hollow facade, wherein the securing means between two adjacent facades (3, 4, 5) comprise at least one communication opening (11, 11') connecting the inner volumes of said adjacent facades (3, 4, 5). • an envelope which comprises: • a hollow floor forming a lower hollow facade, • a hollow ceiling forming an upper hollow facade, and • a side hollow facade connecting the ceiling and the floor, and • a hollow floor forming a lower hollow facade, • a hollow ceiling forming an upper hollow facade, and • a side hollow facade connecting the ceiling and the floor, and • an access side wall inside the formwork, integral with the envelope, connected to the lower and upper hollow facades, disposed facing the side hollow facade and comprising at least one removable side panel,
An uplink information sending method, comprising: obtaining, by an apparatus, downlink control information, DCI, and downlink data, wherein the DCI carries indication information for sending uplink information, the uplink information is used to indicate whether the apparatus receives the downlink data correctly; obtaining, by the apparatus, through a radio resource control, RRC, signaling, a quantity of repetition times for sending the uplink information; and sending, by the apparatus, the uplink information according to the indication information carried in the DCI and the quantity of repetition times for sending the uplink information. obtaining, by an apparatus, downlink control information, DCI, and downlink data, wherein the DCI carries indication information for sending uplink information, the uplink information is used to indicate whether the apparatus receives the downlink data correctly; obtaining, by the apparatus, through a radio resource control, RRC, signaling, a quantity of repetition times for sending the uplink information; and sending, by the apparatus, the uplink information according to the indication information carried in the DCI and the quantity of repetition times for sending the uplink information.
Electro-optical component (1, 2, 3, 4, 5, 6), comprising a silicon- and/or germanium-based arrangement (100, 200, 300, 400, 500, 600), wherein the silicon- and/or germanium-based arrangement (100, 200, 300, 400, 500, 600) comprises a material volume and an adjoining material (104, 203, 303, 403, 503, 603), wherein the material volume consists of silicon and/or germanium and accordingly has a surface (101, 201, 301, 401, 501, 601) composed of silicon and/or germanium, wherein the surface (101, 201, 301, 401, 501, 601) is chemically modified by a halogen enrichment, wherein the silicon- and/or germanium-based arrangement (100, 200, 300, 400, 500, 600) comprises a layer of the adjoining material (104, 203, 303, 403, 503, 603) having a first refractive index n 1 and a double layer in the material volume, the material volume consisting of an electro-optically active layer (102, 202, 302, 402, 502, 602) and an electro-optically inactive layer, each having a second refractive index n 2, wherein the electro-optically active layer (102, 202, 302, 402, 502, 602) has the chemical surface modification (101, 201, 301, 401, 501, 601) in the form of silicon- and/or germanium-halogen bonds, which causes the electro-optical activity of the electro-optically active layer (102, 202, 302, 402, 502, 602), and wherein the material volume is applied on the adjoining material (104, 203, 303, 403, 503, 603) in order to form a waveguide arrangement, and the second refractive index n 2 is higher than the first refractive index n 1.
A bipolar pulse generating circuit for an electrosurgical generator, the bipolar pulse generating circuit comprising: a voltage source connectable to a load via a switching element; a coaxial transmission line having an inner conductor separated from an outer conductor by a dielectric material, wherein the inner conductor has a first end connected between an input of the switching element and the voltage source and a second end in an open circuit condition, whereby the coaxial transmission line is charged by the voltage source when the switching element is in an OFF state and to be discharged when the switching element is in an ON state; a first output connectable to the load, wherein the first output is located between an output of the switching element and ground to support a positive pulse when the coaxial transmission line discharges; and a second output connectable to the load, wherein the second output is located between the outer conductor of the coaxial transmission line and ground to support a negative pulse when the coaxial transmission line discharges, wherein the impedance of the coaxial transmission line is configured to match a sum of (i) the impedance the switching element, (ii) the impedance of the load at the first output, and (iii) the impedance of the load at the second output, wherein a delay line is connected to either the first output or the second output, whereby supply of the positive pulse and negative pulse at the first output and second output occurs sequentially. a voltage source connectable to a load via a switching element; a coaxial transmission line having an inner conductor separated from an outer conductor by a dielectric material, wherein the inner conductor has a first end connected between an input of the switching element and the voltage source and a second end in an open circuit condition, whereby the coaxial transmission line is charged by the voltage source when the switching element is in an OFF state and to be discharged when the switching element is in an ON state; a first output connectable to the load, wherein the first output is located between an output of the switching element and ground to support a positive pulse when the coaxial transmission line discharges; and a second output connectable to the load, wherein the second output is located between the outer conductor of the coaxial transmission line and ground to support a negative pulse when the coaxial transmission line discharges, wherein the impedance of the coaxial transmission line is configured to match a sum of (i) the impedance the switching element, (ii) the impedance of the load at the first output, and (iii) the impedance of the load at the second output, wherein a delay line is connected to either the first output or the second output, whereby supply of the positive pulse and negative pulse at the first output and second output occurs sequentially.
A method for noise distribution shaping for signals comprising the acts of - receiving a signal of interest from a signal transmitter, - detecting whether the received signal of interest is present, and - if the received signal of interest is present iteratively performing the following steps of ∘ adapting at least one blanking threshold or the received signal of interest according to an offset value depending on the amplitude of the received signal of interest, and ∘ generating a blanking control signal by comparing the received signal of interest with the at least one blanking threshold, ∘ modifying the noise distribution of the received signal of interest by applying blanking of the received signal of interest under control of the blanking control signal. - receiving a signal of interest from a signal transmitter, - detecting whether the received signal of interest is present, and - if the received signal of interest is present iteratively performing the following steps of ∘ adapting at least one blanking threshold or the received signal of interest according to an offset value depending on the amplitude of the received signal of interest, and ∘ generating a blanking control signal by comparing the received signal of interest with the at least one blanking threshold, ∘ modifying the noise distribution of the received signal of interest by applying blanking of the received signal of interest under control of the blanking control signal. ∘ adapting at least one blanking threshold or the received signal of interest according to an offset value depending on the amplitude of the received signal of interest, and ∘ generating a blanking control signal by comparing the received signal of interest with the at least one blanking threshold, ∘ modifying the noise distribution of the received signal of interest by applying blanking of the received signal of interest under control of the blanking control signal.
A method for determining a bonding connection in a component arrangement, wherein the method comprises the following steps: - producing a bonding connection between a bonding section of a bonding wire and a metal contact point, - structuring a top-side surface of the bonding wire in the region of the bonding section, wherein a structuring of the top-side surface is created thereby which is produced in addition to a surface modification which may occur at random or as a result of the production process, and which is different from this surface modification, and - determining the bonding connection, wherein in this process - a test voltage is applied to the bonding wire and the bonding connection, so that the bonding connection heats up as a result of the current flow, - generating a thermographic image for the heated bonding connection and - determining whether the bonding connection was produced correctly by performing an evaluation of the thermographic image using digital image analysis and as part of this process searching for characteristic image patterns that correspond to the structuring of the top-side surface of the bonding wire, and subsequently evaluating the characteristic image patterns to determine the correctness of the bonding connection. - producing a bonding connection between a bonding section of a bonding wire and a metal contact point, - structuring a top-side surface of the bonding wire in the region of the bonding section, wherein a structuring of the top-side surface is created thereby which is produced in addition to a surface modification which may occur at random or as a result of the production process, and which is different from this surface modification, and - determining the bonding connection, wherein in this process - a test voltage is applied to the bonding wire and the bonding connection, so that the bonding connection heats up as a result of the current flow, - generating a thermographic image for the heated bonding connection and - determining whether the bonding connection was produced correctly by performing an evaluation of the thermographic image using digital image analysis and as part of this process searching for characteristic image patterns that correspond to the structuring of the top-side surface of the bonding wire, and subsequently evaluating the characteristic image patterns to determine the correctness of the bonding connection. - a test voltage is applied to the bonding wire and the bonding connection, so that the bonding connection heats up as a result of the current flow, - generating a thermographic image for the heated bonding connection and - determining whether the bonding connection was produced correctly by performing an evaluation of the thermographic image using digital image analysis and as part of this process searching for characteristic image patterns that correspond to the structuring of the top-side surface of the bonding wire, and subsequently evaluating the characteristic image patterns to determine the correctness of the bonding connection.
A Radio Link Monitor, RLM, adjustment or Beam Failure Detection, BFD, adjustment method, performed by a terminal, wherein the method comprises: obtaining first information, the first information comprising: a measurement result of the terminal; and determining, according to the first information, whether to perform RLM measurement adjustment or BFD detection adjustment; wherein the determining, according to the first information, whether to perform RLM measurement adjustment or BFD detection adjustment comprises: determining, according to a measurement result of a beam and a preset threshold, whether to perform the RLM measurement adjustment or the BFD detection adjustment; or, determining, according to measurement results of a current cell or a neighboring cell and a preset threshold, whether to perform the RLM measurement adjustment or the BFD detection adjustment, and if the measurement result of the current cell is greater than or equal to a nineteenth threshold, performing RLM measurement relaxation or BFD detection relaxation; wherein the measurement result of the current cell comprises a Reference Signal Receiving Power, RSRP, a Reference Signal Receiving Quality, RSRQ, a signal-to-noise and interference ratio, SINR, and a Channel Quality Indicator, CQI. obtaining first information, the first information comprising: a measurement result of the terminal; and determining, according to the first information, whether to perform RLM measurement adjustment or BFD detection adjustment; wherein the determining, according to the first information, whether to perform RLM measurement adjustment or BFD detection adjustment comprises: determining, according to a measurement result of a beam and a preset threshold, whether to perform the RLM measurement adjustment or the BFD detection adjustment; or, determining, according to measurement results of a current cell or a neighboring cell and a preset threshold, whether to perform the RLM measurement adjustment or the BFD detection adjustment, and if the measurement result of the current cell is greater than or equal to a nineteenth threshold, performing RLM measurement relaxation or BFD detection relaxation; wherein the measurement result of the current cell comprises a Reference Signal Receiving Power, RSRP, a Reference Signal Receiving Quality, RSRQ, a signal-to-noise and interference ratio, SINR, and a Channel Quality Indicator, CQI. determining, according to a measurement result of a beam and a preset threshold, whether to perform the RLM measurement adjustment or the BFD detection adjustment; or, determining, according to measurement results of a current cell or a neighboring cell and a preset threshold, whether to perform the RLM measurement adjustment or the BFD detection adjustment, and if the measurement result of the current cell is greater than or equal to a nineteenth threshold, performing RLM measurement relaxation or BFD detection relaxation; wherein the measurement result of the current cell comprises a Reference Signal Receiving Power, RSRP, a Reference Signal Receiving Quality, RSRQ, a signal-to-noise and interference ratio, SINR, and a Channel Quality Indicator, CQI.
Method for keeping free of ice, or thawing, at least one surface at risk of icing up of a tank interface, wherein the at least one surface at risk of icing up is provided on a fuelling nozzle and/or on a filler neck of a hydrogen-operated vehicle, wherein the at least one surface at risk of icing up is heated during a fuelling process and/or after a fuelling process, characterized in that the at least one surface at risk of icing up is inductively heated.