mhurhangee/ep-ind-claims huggingface dataset:
An assembly for the magnetic shielding of an electrical cable (3; 1a, 1b), with the assembly comprising: - an electric cable (3; 1a, 1b) adapted for having an electric current to flow therethrough, - a jacket positioned around said cable, - an electrical connector which said electric cable is connected to, at one end, said electrical cable comprising several electrical wires (1a, 1b) electromagnetically unshielded and twisted together, except at said end where said electrical wires are thus untwisted, characterized in that: - the jacket is positioned around the untwisted wires at said end, only, - the jacket, positioned around the wires, can slide along the twisted portion, - and the jacket is provided with magnetised particles oriented perpendicularly to the direction of the electric current flow in the cable. - an electric cable (3; 1a, 1b) adapted for having an electric current to flow therethrough, - a jacket positioned around said cable, - an electrical connector which said electric cable is connected to, at one end, said electrical cable comprising several electrical wires (1a, 1b) electromagnetically unshielded and twisted together, except at said end where said electrical wires are thus untwisted, - the jacket is positioned around the untwisted wires at said end, only, - the jacket, positioned around the wires, can slide along the twisted portion, - and the jacket is provided with magnetised particles oriented perpendicularly to the direction of the electric current flow in the cable.
Use, as oenological product, of a proanthocyanidinic tannin of phloroglucinol type, the monomers of which correspond to the formula: in which R 1, R 2 and R 3 independently represent either a hydrogen or a hydroxyl group, extracted from Acacia catechu, containing less than 10 ppm of phenol acids of para-coumaric acid or ferulic acid type, and comprising at least 30% of (+)-catechin units and/or the derivatives thereof, relative to the total of units of (+)-catechin, (-)-epicatechin and the derivatives thereof constituting said tannin.
A Raman scattered light enhancement device (100, 200, 300) comprising: a waveguide (13, 111) provided in a photonic crystal (20, 30, 50) made of a semiconductor substrate in which holes are formed, the waveguide having resonant modes with respect to incident light at a plurality of frequencies, wherein: a difference in frequency between one resonant mode and another resonant mode is equal to a Raman shift frequency of the semiconductor substrate; and a waveguide extending direction with respect to a crystal plane orientation of the semiconductor substrate is set so as to maximize a Raman transition probability which is represented by electromagnetic field distribution of the two resonant modes and a Raman tensor of the semiconductor substrate, wherein: the semiconductor substrate is silicon; and characterized in that the waveguide extends along the direction of crystal orientation or an equivalent direction thereto with respect to the crystal plane orientation of the silicon. a waveguide (13, 111) provided in a photonic crystal (20, 30, 50) made of a semiconductor substrate in which holes are formed, the waveguide having resonant modes with respect to incident light at a plurality of frequencies, wherein: a difference in frequency between one resonant mode and another resonant mode is equal to a Raman shift frequency of the semiconductor substrate; and a waveguide extending direction with respect to a crystal plane orientation of the semiconductor substrate is set so as to maximize a Raman transition probability which is represented by electromagnetic field distribution of the two resonant modes and a Raman tensor of the semiconductor substrate, a difference in frequency between one resonant mode and another resonant mode is equal to a Raman shift frequency of the semiconductor substrate; and a waveguide extending direction with respect to a crystal plane orientation of the semiconductor substrate is set so as to maximize a Raman transition probability which is represented by electromagnetic field distribution of the two resonant modes and a Raman tensor of the semiconductor substrate, the semiconductor substrate is silicon; and characterized in that the waveguide extends along the direction of crystal orientation or an equivalent direction thereto with respect to the crystal plane orientation of the silicon.
A fuel-saving control device, comprising: a surplus driving force calculation unit for calculating a surplus driving force, the surplus driving force being defined by a difference between a driving force of a driving wheel and a traveling resistance on a vehicle; a fuel-saving control unit configured to execute a fuel-saving control for lowering and correcting an instructed fuel injection amount depending on an accelerator position when the surplus driving force becomes equal to or greater than a first threshold value, and configured to stop the fuel-saving control when the surplus driving force becomes smaller than the first threshold value; a vehicle position detection unit for detecting a vehicle position; a map information storage unit for storing map information; and a front gradient identification unit for identifying a front gradient based on the vehicle position and the map information, characterized by further comprising: a downshifting operation detection unit for detecting a downshifting operation, wherein the fuel-saving control unit is configured to stop the fuel-saving control even if the surplus driving force does not become smaller than the first threshold value, when the front gradient is an ascending gradient equal to or greater than a second threshold value and the downshifting operation has been detected. a surplus driving force calculation unit for calculating a surplus driving force, the surplus driving force being defined by a difference between a driving force of a driving wheel and a traveling resistance on a vehicle; a fuel-saving control unit configured to execute a fuel-saving control for lowering and correcting an instructed fuel injection amount depending on an accelerator position when the surplus driving force becomes equal to or greater than a first threshold value, and configured to stop the fuel-saving control when the surplus driving force becomes smaller than the first threshold value; a vehicle position detection unit for detecting a vehicle position; a map information storage unit for storing map information; and a front gradient identification unit for identifying a front gradient based on the vehicle position and the map information, characterized by further comprising: a downshifting operation detection unit for detecting a downshifting operation, wherein the fuel-saving control unit is configured to stop the fuel-saving control even if the surplus driving force does not become smaller than the first threshold value, when the front gradient is an ascending gradient equal to or greater than a second threshold value and the downshifting operation has been detected. a downshifting operation detection unit for detecting a downshifting operation, wherein the fuel-saving control unit is configured to stop the fuel-saving control even if the surplus driving force does not become smaller than the first threshold value, when the front gradient is an ascending gradient equal to or greater than a second threshold value and the downshifting operation has been detected.
A hearing device comprising: a behind-the-ear part (20, 20') adapted for being arranged at an ear of a user and for providing a low frequency signal comprising audio, an at-the-head part (24, 24') adapted for being arranged at the head of the user, wherein the at-the-head part (24, 24') includes a first antenna adapted to communicate with an implant part (46, 46') comprising at least one cochlear electrode adapted for being arranged in the cochlea in proximity of an auditory nerve of the user, a coupling element (22, 22') coupling the behind-the-ear part and the at-the-head part, wherein the coupling element (22, 22') is adapted for transmitting the low frequency signal comprising audio to the at-the-head part, a second antenna for communicating at high frequency with an external unit, and a wireless interface for receiving and/or sending data via the second antenna, the at-the-head part (24, 24') being adapted for providing the low frequency signal comprising audio to the at least one cochlear electrode and the at least one cochlear electrode being adapted for converting the low frequency signal comprising audio to an output signal perceivable by a user as sound, wherein the coupling element (22, 22') comprises an electrically conducting element coupled to the wireless interface, the electrically conducting element is at least a part of the second antenna, and the electrically conducting element is adapted for transferring the signal comprising audio at a low frequency from the behind-the-ear part (20, 20') to the at-the-head part (24, 24') and for transmitting and/or receiving high frequency signals via the second antenna, and wherein the first antenna communicates with the implant part via mutual induction between coils of the first antenna and the implant part. a behind-the-ear part (20, 20') adapted for being arranged at an ear of a user and for providing a low frequency signal comprising audio, an at-the-head part (24, 24') adapted for being arranged at the head of the user, wherein the at-the-head part (24, 24') includes a first antenna adapted to communicate with an implant part (46, 46') comprising at least one cochlear electrode adapted for being arranged in the cochlea in proximity of an auditory nerve of the user, a coupling element (22, 22') coupling the behind-the-ear part and the at-the-head part, wherein the coupling element (22, 22') is adapted for transmitting the low frequency signal comprising audio to the at-the-head part, a second antenna for communicating at high frequency with an external unit, and a wireless interface for receiving and/or sending data via the second antenna,
A method of denaturizing protein in a beverage comprising: mixing beverage contents, including a protein, to form the beverage; heating the beverage preferably in a heat exchanger; transferring the beverage to a hold loop located outside of the heat exchanger; and denaturizing the protein within the hold loop for a residence time after the beverage is heated such that the denaturizing occurs outside of the heat exchanger to prevent fouling of the heat exchanger. mixing beverage contents, including a protein, to form the beverage; heating the beverage preferably in a heat exchanger; transferring the beverage to a hold loop located outside of the heat exchanger; and denaturizing the protein within the hold loop for a residence time after the beverage is heated such that the denaturizing occurs outside of the heat exchanger to prevent fouling of the heat exchanger.
Crawler for pipe inspection systems, comprising a lifting unit for lifting a head unit, the lifting unit having: - a base carrier, - a lifting system having at least one lifting arm (7; 8) which can be deflected relative to the base carrier about a rotational axis, - and a head unit having a connection module for connecting inspection units, in particular cameras and lighting systems, characterized in that the crawler has a connection unit in the front part, and in that the base carrier has a connection module on a front part of the base carrier for connecting the lifting unit to the connection unit in the front part of the crawler, connectors of the connection unit of the crawler extending at least in part to the connection module of the head unit, and the connection module of the head unit corresponding to the connection unit of the crawler. - a base carrier, - a lifting system having at least one lifting arm (7; 8) which can be deflected relative to the base carrier about a rotational axis, - and a head unit having a connection module for connecting inspection units, in particular cameras and lighting systems,
A process for producing a polymer foam comprising reacting components A to C in the presence of component D and optionally E or of an isocyanate-functional prepolymer of components A and B with component C in the presence of component D and optionally E, the total amount of which is 100 wt%, 35 to 65 wt% of at least one polyisocyanate component A, wherein 10 to 100 wt% of component A is a condensation product comprising polyimide groups and obtained by condensing at least one polyisocyanate component with at least one polycarboxylic acid having at least 3 COOH groups per molecule or anhydride thereof, 5 to 50 wt% of at least one polyol component B, 1 to 59 wt% of at least one polycarboxylic acid component C, and 0.01 to 3 wt% of at least one Lewis base component D, 0 to 5 wt% of at least one foam stabilizer component E, wherein said reacting is effected to release carbon dioxide. 35 to 65 wt% of at least one polyisocyanate component A, wherein 10 to 100 wt% of component A is a condensation product comprising polyimide groups and obtained by condensing at least one polyisocyanate component with at least one polycarboxylic acid having at least 3 COOH groups per molecule or anhydride thereof, 5 to 50 wt% of at least one polyol component B, 1 to 59 wt% of at least one polycarboxylic acid component C, and 0.01 to 3 wt% of at least one Lewis base component D, 0 to 5 wt% of at least one foam stabilizer component E,
An ink jet recording apparatus comprising: an ink container in which ink to be used to perform printing on a print target is stored, a nozzle which is connected to the ink container and from which pressurized and supplied ink is jetted, charging electrodes that charge ink particles jetted from the nozzle with electricity, deflecting electrodes that polarize the ink particles charged with electricity by the charging electrodes, a gutter that recovers ink not used for printing, a solvent container in which a solvent is stored, and a liquid nozzle which is connected to the solvent container and from which a pressurized and supplied solvent is jetted, wherein the liquid nozzle includes a liquid flow passage portion that extends from the nozzle in a direction of the gutter, and a liquid jet hole that is formed at an angle allowing the pressurized and supplied solvent to hit the nozzle through the liquid flow passage portion, characterized in that: the liquid nozzle includes a second liquid jet hole that is formed at an angle allowing the solvent to hit the deflecting electrodes. an ink container in which ink to be used to perform printing on a print target is stored, a nozzle which is connected to the ink container and from which pressurized and supplied ink is jetted, charging electrodes that charge ink particles jetted from the nozzle with electricity, deflecting electrodes that polarize the ink particles charged with electricity by the charging electrodes, a gutter that recovers ink not used for printing, a solvent container in which a solvent is stored, and a liquid nozzle which is connected to the solvent container and from which a pressurized and supplied solvent is jetted, wherein the liquid nozzle includes a liquid flow passage portion that extends from the nozzle in a direction of the gutter, and a liquid jet hole that is formed at an angle allowing the pressurized and supplied solvent to hit the nozzle through the liquid flow passage portion, characterized in that: the liquid nozzle includes a second liquid jet hole that is formed at an angle allowing the solvent to hit the deflecting electrodes.
A method, comprising: sending, by a first computing device, to a second computing device, first communication data; receiving, by the first computing device, from the second computing device, second communication data; in response to determining that a data privacy attribute of the second computing device is the same as a predetermined data privacy attribute, protecting, by the first computing device, the second communication data by at least: converting, by the first computing device, the first communication data to a first set of text; converting, by the first computing device, the second communication data to a second set of text; and applying, by the first computing device, a privacy filter to the first set of text to generate a filtered set of text by removing from the first set of text any text that is repeated in the second set of text; determining, by the first computing device, a first keyword from the filtered set of text; sending, by the first computing device, to a computer, the first keyword; and receiving, by the first computing device, from the computer, contextual data associated with the first keyword. sending, by a first computing device, to a second computing device, first communication data; receiving, by the first computing device, from the second computing device, second communication data; in response to determining that a data privacy attribute of the second computing device is the same as a predetermined data privacy attribute, protecting, by the first computing device, the second communication data by at least: converting, by the first computing device, the first communication data to a first set of text; converting, by the first computing device, the second communication data to a second set of text; and applying, by the first computing device, a privacy filter to the first set of text to generate a filtered set of text by removing from the first set of text any text that is repeated in the second set of text; converting, by the first computing device, the first communication data to a first set of text; converting, by the first computing device, the second communication data to a second set of text; and applying, by the first computing device, a privacy filter to the first set of text to generate a filtered set of text by removing from the first set of text any text that is repeated in the second set of text; determining, by the first computing device, a first keyword from the filtered set of text; sending, by the first computing device, to a computer, the first keyword; and receiving, by the first computing device, from the computer, contextual data associated with the first keyword.
A polymerizable composition for use in a 3D gel dosimeter, comprising: 2-5 % by weight of Gelatin; 1-12 % by weight of N-(Hydroxymethyl)acrylamide (NHMA); 1-4 % by weight of N,N-methylene-bis-acrylamide; 0-0.1 mM of Hydroquinone and Ultra-pure de-ionized water as a solvent. 2-5 % by weight of Gelatin; 1-12 % by weight of N-(Hydroxymethyl)acrylamide (NHMA); 1-4 % by weight of N,N-methylene-bis-acrylamide; 0-0.1 mM of Hydroquinone and Ultra-pure de-ionized water as a solvent.
Active combination comprising - a botanical extract of Vigna radiata, - a botanical extract of the flower of Trifolium pratense, - a peptide comprising the amino acid sequence Gly-His-Lys from N-terminal to C-terminal end, wherein the V. radiata extract is an extract of the sprout of the mung bean. - a botanical extract of Vigna radiata, - a botanical extract of the flower of Trifolium pratense, - a peptide comprising the amino acid sequence Gly-His-Lys from N-terminal to C-terminal end,
A method of monitoring protocol health in a mobile device network (17,18) comprising: monitoring said protocol health based upon a message transmission rate monitoring process, said message transmission rate monitoring process including a message transmission rate threshold determining process, which process includes setting a lock threshold, the lock threshold being set for one of a slow protocol and a fast protocol, and monitoring a message transmission rate associated with a selected address and, if the message transmission rate is below the lock threshold, selecting another address and monitoring the message transmission rate associated with the selected other address, and if the message transmission rate is at or above the lock threshold, locking the address and establishing a maximum transmission rate threshold; and creating a protocol health log. monitoring said protocol health based upon a message transmission rate monitoring process, said message transmission rate monitoring process including a message transmission rate threshold determining process, which process includes setting a lock threshold, the lock threshold being set for one of a slow protocol and a fast protocol, and monitoring a message transmission rate associated with a selected address and, if the message transmission rate is below the lock threshold, selecting another address and monitoring the message transmission rate associated with the selected other address, and if the message transmission rate is at or above the lock threshold, locking the address and establishing a maximum transmission rate threshold; and creating a protocol health log.
A method of CELP encoding an audio/speech signal, the method comprising: determining a mixed codebook vector based on an incoming audio/speech signal, the mixed codebook vector comprising a sum of a first codebook entry from a first codebook and a second codebook entry from a second codebook, wherein the first codebook comprises pulse-like entries and the second codebook comprises noise-like entries; generating an encoded audio signal based on the determined mixed codebook vector; and transmitting a coded excitation index of the determined mixed codebook vector, wherein the determining and generating are performed using a hardware-based audio encoder; wherein the first and second codebooks are fixed codebooks. determining a mixed codebook vector based on an incoming audio/speech signal, the mixed codebook vector comprising a sum of a first codebook entry from a first codebook and a second codebook entry from a second codebook, wherein the first codebook comprises pulse-like entries and the second codebook comprises noise-like entries; generating an encoded audio signal based on the determined mixed codebook vector; and transmitting a coded excitation index of the determined mixed codebook vector, wherein the determining and generating are performed using a hardware-based audio encoder; wherein the first and second codebooks are fixed codebooks.
Cryogenic refrigeration installation for the same application by means of a plurality of refrigerators/liquefiers (L/R) disposed in parallel, the refrigerators/liquefiers (L/R) in parallel using a working gas of the same nature having a low molar mass, that is to say having a mean total molar mass of less than 10 g/mol such as pure gaseous helium, each refrigeration/liquefier (L/R) comprising a station for compressing the working gas, a cold box intended to cool the working gas emerging from the compression station to a cryogenic temperature at least close to its liquefaction temperature, the working gas cooled by each of the respective cold boxes of the refrigerator/liquefiers (L/R) being put in heat exchange with the application with a view to yielding frigories to the latter, in which all the compression stations of the refrigerator(s)/liquefier(s) form a single compression station compressing the working gas for each of the respective separate cold boxes of the refrigerators/liquefiers (L, R) disposed in parallel, the single compression station comprising solely compression machines of the lubricated-screw type (EC1, EC2, EC3) and systems (4, 14) for removing oil from the working fluid emerging from the compression machines (EC1, EC2, EC3), so that the compression machines (EC1, EC2, EC3) and the oil-removal systems (4, 14) are matched by the refrigerator/liquefier (L/R) disposed in parallel.