mhurhangee/ep-ind-claims huggingface dataset:
A fuel injection system, in particular a common rail injection system, in which fuel is conducted from a distributor pipe via high-pressure lines to injectors, by means of which the fuel can be injected during an injection cycle with a number of injection pulses, wherein each of the high-pressure lines is provided with at least one damping device for damping pressure pulsations, characterized in that the damping device has a pipe (15, 21), in which a massive core that is held at a distance via spacers (16, 19, 20, 22) so as to form an interrupted annular gap is provided, wherein the spacers (16, 19, 20, 22) extend radially from the inner side of the pipe (15, 21) to the outer side of the core, wherein the spacers (16, 19, 20, 22) extend either a) axially over the entire length of the cylindrical core parallel to the axial direction, or b) over the entire length of the cylindrical core being wound around the outer periphery of the core in the manner of a portion of a helix, or c) merely over a relatively small axial portion of the core parallel to the axial direction. a) axially over the entire length of the cylindrical core parallel to the axial direction, or b) over the entire length of the cylindrical core being wound around the outer periphery of the core in the manner of a portion of a helix, or c) merely over a relatively small axial portion of the core parallel to the axial direction.
An electronic device comprising: a housing comprising a first plate facing in a first direction, a second plate facing in a second direction opposite to the first direction, and a side surface member surrounding at least part of a space between the first and second plates; a printed circuit board comprising a first surface facing in the first direction and a second surface facing in the second direction, the printed circuit board being disposed in the housing; a dielectric structure disposed on the first surface of the printed circuit board, the dielectric structure having a base and a vertical sidewall that define an inner space of the dielectric structure; an antenna module disposed adjacent to the side surface member, forming a first gap therewith, on a seating portion defined by the inner space of the dielectric structure, the antenna module being configured to radiate an antenna beam in a third direction which is perpendicular to the first and second directions; a wireless communication circuit electrically connected with the antenna module, and configured to transmit or receive a signal having a frequency between 3 gigahertz, GHz, and 100 GHz; and the dielectric structure comprising the seating portion to have the antenna module mounted thereon, and configured to form the antenna beam to be radiated toward an outside of the housing in the third direction. a housing comprising a first plate facing in a first direction, a second plate facing in a second direction opposite to the first direction, and a side surface member surrounding at least part of a space between the first and second plates; a printed circuit board comprising a first surface facing in the first direction and a second surface facing in the second direction, the printed circuit board being disposed in the housing; a dielectric structure disposed on the first surface of the printed circuit board, the dielectric structure having a base and a vertical sidewall that define an inner space of the dielectric structure; an antenna module disposed adjacent to the side surface member, forming a first gap therewith, on a seating portion defined by the inner space of the dielectric structure, the antenna module being configured to radiate an antenna beam in a third direction which is perpendicular to the first and second directions; a wireless communication circuit electrically connected with the antenna module, and configured to transmit or receive a signal having a frequency between 3 gigahertz, GHz, and 100 GHz; and the dielectric structure comprising the seating portion to have the antenna module mounted thereon, and configured to form the antenna beam to be radiated toward an outside of the housing in the third direction.
An induction heating type cooktop comprising: a case; a cover plate coupled to the upper end of the case and provided with an upper plate portion on which an object to be heated is placeable; a thin film coated on the upper plate portion; a first working coil (WC-1) and a second working coil (WC-2) provided inside the case; an inverter connected to the first working coil; and characterised by a first switch connected between the first working coil and the second working coil; and by a controller configured to control only the first working coil (WC-1) to operate or control both the first working coil (WC-1) and the second working coil (WC-2) to operate according to whether a target power and an output power match. a case; a cover plate coupled to the upper end of the case and provided with an upper plate portion on which an object to be heated is placeable; a thin film coated on the upper plate portion; a first working coil (WC-1) and a second working coil (WC-2) provided inside the case; an inverter connected to the first working coil; and characterised by a first switch connected between the first working coil and the second working coil; and by a controller configured to control only the first working coil (WC-1) to operate or control both the first working coil (WC-1) and the second working coil (WC-2) to operate according to whether a target power and an output power match.
A method of identifying proteins present in a sample, said method comprising: (a) performing a mass spectrometry scan on said sample to produce a mass spectrum identifying masses of a plurality of peptides; (b) performing MS/MS scans on said plurality of peptides to produce a plurality of experimental MS/MS spectra; (c) comparing the experimental MS/MS spectra to theoretical mass spectra derived from a database of proteins; (d) providing plural peptide hypotheses for each experimental MS/MS spectrum; (e) associating a protein score contribution to each peptide hypothesis, said protein score contribution being based on a confidence that said peptide is in said sample; (f) determining a list of possible proteins based on said peptide hypotheses; (g) for each protein in said list, calculating a protein score based on protein score contributions from peptide hypotheses included in said protein; (h) identifying a winner protein based on said protein scores; (i) consuming the experimental MS/MS spectra of peptide hypotheses included in said winner protein; and (j) repeating steps (f) to (i), whereby repetitions of step (g) involve calculating an unused protein score for each protein in the list, said unused protein score being based on protein score contributions from peptide hypotheses present in said protein, but not including any protein score contributions from peptide hypotheses based on spectra that were previously consumed in step (i). (a) performing a mass spectrometry scan on said sample to produce a mass spectrum identifying masses of a plurality of peptides; (b) performing MS/MS scans on said plurality of peptides to produce a plurality of experimental MS/MS spectra; (c) comparing the experimental MS/MS spectra to theoretical mass spectra derived from a database of proteins; (d) providing plural peptide hypotheses for each experimental MS/MS spectrum; (e) associating a protein score contribution to each peptide hypothesis, said protein score contribution being based on a confidence that said peptide is in said sample; (f) determining a list of possible proteins based on said peptide hypotheses; (g) for each protein in said list, calculating a protein score based on protein score contributions from peptide hypotheses included in said protein; (h) identifying a winner protein based on said protein scores; (i) consuming the experimental MS/MS spectra of peptide hypotheses included in said winner protein; and (j) repeating steps (f) to (i), whereby repetitions of step (g) involve calculating an unused protein score for each protein in the list, said unused protein score being based on protein score contributions from peptide hypotheses present in said protein, but not including any protein score contributions from peptide hypotheses based on spectra that were previously consumed in step (i).
A time base generator for providing a first clock signal and a second clock signal, the frequencies (f1, f2) of said clock signals (CLK1, CLK2) being slightly different with a predetermined ratio (N/M), said time base generator comprising: - a clock signal generator for providing the first clock signal at the first clock frequency, - a first frequency divider for dividing the first clock frequency by a first integer and thus producing a first auxiliary signal, - a second frequency divider for dividing the second clock signal by a second integer different from the first integer to produce a second auxiliary signal, - a phase/period comparator for - measuring and weighting the cycle duration or phasing of the first auxiliary signal by a first factor, - measuring and weighting the cycle duration or phasing of the second auxiliary signal by a second factor different from the first factor, and - comparing the weighted first and second auxiliary signals for generating an error signal from their difference, and - a voltage-controlled oscillator adapted to be controlled by said error signal to generate said second clock signal and adjust its frequency so that the predetermined ratio (N/M) is the product of the ratios of the first and second integers (K1, K2) and the first and second factors (G1, G2). - a clock signal generator for providing the first clock signal at the first clock frequency, - a first frequency divider for dividing the first clock frequency by a first integer and thus producing a first auxiliary signal, - a second frequency divider for dividing the second clock signal by a second integer different from the first integer to produce a second auxiliary signal, - a phase/period comparator for - measuring and weighting the cycle duration or phasing of the first auxiliary signal by a first factor, - measuring and weighting the cycle duration or phasing of the second auxiliary signal by a second factor different from the first factor, and - comparing the weighted first and second auxiliary signals for generating an error signal from their difference, and - measuring and weighting the cycle duration or phasing of the first auxiliary signal by a first factor, - measuring and weighting the cycle duration or phasing of the second auxiliary signal by a second factor different from the first factor, and - comparing the weighted first and second auxiliary signals for generating an error signal from their difference, and - a voltage-controlled oscillator adapted to be controlled by said error signal to generate said second clock signal and adjust its frequency so that the predetermined ratio (N/M) is the product of the ratios of the first and second integers (K1, K2) and the first and second factors (G1, G2).
A biometric verification method using a first data medium storing in association, for at least one individual of a set of individuals: an identity (I 1) relating to said individual, the result (w 1 ⊕ c 1) of adding, by an exclusive OR operation, a first word (c 1), of an error-correcting code associated with said individual to a first digital string (w 1) obtained from biometric data relating to said individual and at least two identifiers of distinct determined discriminating powers obtained by applying respective hashing functions to the first error-correcting code word; the method comprising the following steps relating to an individual of the set of individuals: - obtaining biometric data relating to the individual; - converting the biometric data into a second digital string (w' 1); - determining a second error-correcting code word (c' 1) corresponding substantially to adding, by an exclusive OR operation, the second digital string (w' 1) to the result (w 1 ⊕ c 1) of adding, by an exclusive OR operation, the first error-correcting code word to the first digital string stored on the first data medium in association with the identity (I 1) relating to said individual; - determining a desired level of discrimination; - determining the identifier (H(c 1)) stored on the first data medium in association with the identity relating to said individual, having discriminating power corresponding substantially to the desired level of discrimination; - applying to the second error-correcting code word (c' 1) the hashing function in application of which said determined identifier was obtained; and - comparing the result (H(c' 1)) of applying said hashing function to said second error-correcting code word with the determined identifier (H(c 1)). - obtaining biometric data relating to the individual; - converting the biometric data into a second digital string (w' 1); - determining a second error-correcting code word (c' 1) corresponding substantially to adding, by an exclusive OR operation, the second digital string (w' 1) to the result (w 1 ⊕ c 1) of adding, by an exclusive OR operation, the first error-correcting code word to the first digital string stored on the first data medium in association with the identity (I 1) relating to said individual; - determining a desired level of discrimination; - determining the identifier (H(c 1)) stored on the first data medium in association with the identity relating to said individual, having discriminating power corresponding substantially to the desired level of discrimination; - applying to the second error-correcting code word (c' 1) the hashing function in application of which said determined identifier was obtained; and - comparing the result (H(c' 1)) of applying said hashing function to said second error-correcting code word with the determined identifier (H(c 1)).
A loading station for transferring supplies via a first hose and a second hose wherein said first hose and said second hose are adapted to be pulled from a first sea vessel or first dock to a second sea vessel or second dock comprising; a jumper shaft, a first modular reel assembly having a spool adapted to independently rotate to wind and unwind said first hose from said first sea vessel or first dock to said second sea vessel or second dock and wherein said spool is rotated by a first rotating shaft segment having a first end, a second end which is removably attached to a first end of said jumper shaft, and a length; a second modular reel assembly having a spool adapted to independently rotate to wind and unwind said second hose from said first sea vessel or first dock to said second sea vessel or second dock and wherein said spool is rotated by a second rotating shaft segment having a first end which is removably attached to a second end of said jumper shaft, a second end, and a length; and a motor having a third rotating shaft with an end in communication with said first end of said first rotating shaft segment of said first modular reel assembly; wherein the length of the jumper shaft is about the same as the length of the first rotating shaft segment of the first modular reel assembly.
A filter characteristics changing device comprising: a set of filters (163, 164, 165) for processing waveform sound signals which includes a plurality of partial filters and forms a specified characteristic by combining the plurality of partial filters; and a processor which performs, as crossfading processing for a first filter and a second filter among the plurality of partial filters, fade-out processing of gradually decreasing a degree of contribution of the first filter to the characteristic and fade-in processing of gradually increasing a degree of contribution of the second filter to the characteristic, when an instruction is provided for changing the characteristic formed by the set of filters (163, 164, 165) characterized in that the set of filters (163, 164, 165) is constituted by the plurality of partial filters including at least one backup partial filter not used for characteristic formation before the instruction, and wherein the processor takes one of the plurality of partial filters used for characteristic formation before the instruction as the first filter, takes the backup partial filter as the second filter after setting a parameter corresponding to the characteristic indicated by the instruction to the backup partial filter, and performs the crossfading processing such that a partial filter contributing to the characteristic is switched from the first filter to the second filter. a set of filters (163, 164, 165) for processing waveform sound signals which includes a plurality of partial filters and forms a specified characteristic by combining the plurality of partial filters; and a processor which performs, as crossfading processing for a first filter and a second filter among the plurality of partial filters, fade-out processing of gradually decreasing a degree of contribution of the first filter to the characteristic and fade-in processing of gradually increasing a degree of contribution of the second filter to the characteristic, when an instruction is provided for changing the characteristic formed by the set of filters (163, 164, 165) characterized in that the set of filters (163, 164, 165) is constituted by the plurality of partial filters including at least one backup partial filter not used for characteristic formation before the instruction, and wherein the processor takes one of the plurality of partial filters used for characteristic formation before the instruction as the first filter, takes the backup partial filter as the second filter after setting a parameter corresponding to the characteristic indicated by the instruction to the backup partial filter, and performs the crossfading processing such that a partial filter contributing to the characteristic is switched from the first filter to the second filter.
A method (300, 600, 700) of controlling a surveying instrument (100, 200) operable to perform different types of data collection tasks, wherein at least one of the different types of data collection tasks includes measuring a distance and/or a direction to a target, the method comprising: controlling the surveying instrument to perform data collection tasks in accordance with a queue of data collection tasks, the queue including a data collection task of at least one of said different types of data collection tasks; during an ongoing sequence of data collection tasks as defined by the queue, receiving an instruction indicating an additional data collection task to be performed by the surveying instrument in addition to the data collection tasks already in the queue; and controlling the surveying instrument to perform data collection tasks in an order determined based on the queue and the received instruction. controlling the surveying instrument to perform data collection tasks in accordance with a queue of data collection tasks, the queue including a data collection task of at least one of said different types of data collection tasks; during an ongoing sequence of data collection tasks as defined by the queue, receiving an instruction indicating an additional data collection task to be performed by the surveying instrument in addition to the data collection tasks already in the queue; and controlling the surveying instrument to perform data collection tasks in an order determined based on the queue and the received instruction.
A method comprising the sequential process steps of manufacturing an array of STT-MRAM memory cells: introducing a plurality of patterned features on a substrate; conformally introducing a spacer material on the plurality of patterned features, the spacer material having a thickness selected for a junction region of an access transistor (220, 360); anisotropically etching the spacer material to expose the plurality of patterned features; removing the plurality of patterned features; etching the substrate to form a plurality of fins each comprising a body having a length dimension comprising a plurality of first junction regions and a plurality of second junction regions that are generally parallel to one another and offset by angled channel regions displacing in the length dimension an end of a first junction regions from the beginning of a second junction region; removing the spacer material; and introducing a gate electrode on the channel region of each of the plurality of fins, wherein the gate electrode is arranged in an orthogonal orientation relative to the plurality of first junction regions and the second junction regions. introducing a plurality of patterned features on a substrate; conformally introducing a spacer material on the plurality of patterned features, the spacer material having a thickness selected for a junction region of an access transistor (220, 360); anisotropically etching the spacer material to expose the plurality of patterned features; removing the plurality of patterned features; etching the substrate to form a plurality of fins each comprising a body having a length dimension comprising a plurality of first junction regions and a plurality of second junction regions that are generally parallel to one another and offset by angled channel regions displacing in the length dimension an end of a first junction regions from the beginning of a second junction region; removing the spacer material; and introducing a gate electrode on the channel region of each of the plurality of fins, wherein the gate electrode is arranged in an orthogonal orientation relative to the plurality of first junction regions and the second junction regions.
A method for producing a pneumatic tire, the method comprising the steps of: setting a raw cover in a mold; supplying steam into a bladder located inside the raw cover, such that an internal pressure of the bladder becomes a predetermined pressure; discharging gas in the bladder; stopping the discharge of the gas when the internal pressure of the bladder decreases to a predetermined pressure; increasing the internal pressure of the bladder by supplying the steam into the bladder; supplying a pressurized gas into the bladder such that the internal pressure of the bladder becomes a predetermined pressure; discharging the gas in the bladder; stopping the discharge of the gas when the internal pressure of the bladder decreases to a predetermined pressure; and increasing the internal pressure of the bladder by supplying the pressurized gas into the bladder. setting a raw cover in a mold; supplying steam into a bladder located inside the raw cover, such that an internal pressure of the bladder becomes a predetermined pressure; discharging gas in the bladder; stopping the discharge of the gas when the internal pressure of the bladder decreases to a predetermined pressure; increasing the internal pressure of the bladder by supplying the steam into the bladder; supplying a pressurized gas into the bladder such that the internal pressure of the bladder becomes a predetermined pressure; discharging the gas in the bladder; stopping the discharge of the gas when the internal pressure of the bladder decreases to a predetermined pressure; and increasing the internal pressure of the bladder by supplying the pressurized gas into the bladder.
A double rail for creating a stretched fabric structure, having a tubular body comprising a longitudinal passage opening for the passage of stretched fabrics, two internal flanges (4, 5) converging towards one another and an internal wall, with said internal flanges (4, 5) delimiting with the internal wall, a cavity open towards the passage opening, characterized in that the double rail includes lighting means housed in the cavity and in that each internal flange (4, 5) is so arranged as to form a support for fastening a stretched fabric respectively.