mhurhangee/ep-ind-claims huggingface dataset:
A process for producing a suspension for the production of electrodes, wherein solids are finely distributed in a liquid, characterized in that carbon-based conductivity additives and active materials are used as solids and that the carbon-based conductivity additives and the active materials are simultaneously introduced, in particular mixed, into the liquid, wherein the carbon-containing conductivity additives comprise carbon nanotubes and the active materials are selected from the group consisting of titanium dioxide, lithium iron phosphate, activated carbon, graphite and lithium cobalt oxide.
An electromagnetic wave measuring apparatus comprising: a light source (1, 2, 31); an electro-optic probe configured to receive light from the light source (1, 2, 31) and an electromagnetic wave; an optical wavelength filter (13, 38) configured to receive light output from the electro-optic probe; and a light receiving element (14, 39) configured to convert light that has passed through the optical wavelength filter (13, 38) into an electric signal; wherein the electro-optic probe includes: an electro-optic crystal, and an optical fiber optically coupled to the electro-optic crystal; wherein a direction of a unique axis of the electro-optic crystal and a polarization direction of light from the optical fiber that enters the electro-optic crystal are set to be in line with each other, or the direction of the unique axis of the electro-optic crystal and a unique polarization direction of the optical fiber are set to be in line with each other. a light source (1, 2, 31); an electro-optic probe configured to receive light from the light source (1, 2, 31) and an electromagnetic wave; an optical wavelength filter (13, 38) configured to receive light output from the electro-optic probe; and a light receiving element (14, 39) configured to convert light that has passed through the optical wavelength filter (13, 38) into an electric signal; wherein the electro-optic probe includes: an electro-optic crystal, and an optical fiber optically coupled to the electro-optic crystal; an electro-optic crystal, and an optical fiber optically coupled to the electro-optic crystal; wherein a direction of a unique axis of the electro-optic crystal and a polarization direction of light from the optical fiber that enters the electro-optic crystal are set to be in line with each other, or the direction of the unique axis of the electro-optic crystal and a unique polarization direction of the optical fiber are set to be in line with each other.
An apparatus comprising: a receiver configured to receive a pair of cryptographic keys comprising a public key and a secret key, the public key being cryptographically signed; a memory configured to store the secret key, characterized by: a transmitter being configured to send the cryptographically signed public key to a correspondent node and initiate establishment of a cryptographic network protocol session based at least in part on the pair of cryptographic keys, and by the apparatus being configured to receive the pair of cryptographic keys over a short range communication from a short range node, and in that the public key is signed with a secret key of the short range node. a receiver configured to receive a pair of cryptographic keys comprising a public key and a secret key, the public key being cryptographically signed; a memory configured to store the secret key, a transmitter being configured to send the cryptographically signed public key to a correspondent node and initiate establishment of a cryptographic network protocol session based at least in part on the pair of cryptographic keys, and by the apparatus being configured to receive the pair of cryptographic keys over a short range communication from a short range node, and in that the public key is signed with a secret key of the short range node.
System for distributed or dispersed measurement of axial and bending deformations of a structure including at least one threadlike device equipped for the distributed or dispersed measurement of these axial and bending deformations, and means for processing measurement signals generated by said device, characterised in that each device includes a cylindrical reinforcement (11, 25) supporting, at its periphery, at least three optical fibres locally parallel to the axis of the reinforcement and fixed to this one, in that the optical fibres are housed in grooves (15, 16, 17; 25, 29) formed in specifically defined angular orientations at the periphery of the reinforcement (11; 25,29), and in that the processing means implement means for spectral or time division multiplexing of signals coming from optical fibres.
An x-ray imaging system comprising: an x-ray emitter and an x-ray detector; an optical camera operative to acquire an optical image of a patient; a controller in electronic communication with the x-ray emitter, the x-ray detector, and the optical camera and operative to: receive the optical image from the optical camera; and acquire an x-ray image via the x-ray emitter and the x-ray detector; characterized in that the controller is further operative to generate a view name for the x-ray image of the patient via an artificial intelligence subsystem analyzing/processing the optical image. an x-ray emitter and an x-ray detector; an optical camera operative to acquire an optical image of a patient; a controller in electronic communication with the x-ray emitter, the x-ray detector, and the optical camera and operative to: receive the optical image from the optical camera; and acquire an x-ray image via the x-ray emitter and the x-ray detector; characterized in that the controller is further operative to generate a view name for the x-ray image of the patient via an artificial intelligence subsystem analyzing/processing the optical image. receive the optical image from the optical camera; and acquire an x-ray image via the x-ray emitter and the x-ray detector; characterized in that the controller is further operative to generate a view name for the x-ray image of the patient via an artificial intelligence subsystem analyzing/processing the optical image.
A device comprising a compound of Formula: wherein; R 1 is selected from the group consisting of: hydrogen; halogen; and alkyl or alkoxy group having 1 to 20 carbon atoms wherein at least one hydrogen atom is optionally replaced by halogen; i, j, k, l and m are same or different at each occurrence and represent an integer from 0 to 4, with the proviso that when R 1 is hydrogen, i is not 0; R A, R B, R C, R D and R E are any of substituents other than hydrogen, wherein either at least two of R 1 and R A form a fused ring, or R A, R B, R C, R D and R E are linear or branched alkyl chains or i is 0 and R B, R C, R D and R E are alkyl groups or R A is an aryl group and R 1 is hydrogen and a light emitting compound of formula wherein X 1 and X 2 are same or different at each occurrence and independently selected from the group consisting of C-R 5 and N-R 6, wherein R 5 or R 6 is selected from the group consisting of: an unshared electron pair, hydrogen and other substituents, A and B are the same or different at each occurrence and independently selected from the group consisting of five- or six-membered aryl or heteroaryl rings and fused rings, i represents an integer from 2 to 4, and M is a metal atom, preferably a platinum group metal.. R 1 is selected from the group consisting of: hydrogen; halogen; and alkyl or alkoxy group having 1 to 20 carbon atoms wherein at least one hydrogen atom is optionally replaced by halogen; hydrogen; halogen; and alkyl or alkoxy group having 1 to 20 carbon atoms wherein at least one hydrogen atom is optionally replaced by halogen; i, j, k, l and m are same or different at each occurrence and represent an integer from 0 to 4, with the proviso that when R 1 is hydrogen, i is not 0; R A, R B, R C, R D and R E are any of substituents other than hydrogen, wherein either at least two of R 1 and R A form a fused ring, or R A, R B, R C, R D and R E are linear or branched alkyl chains or i is 0 and R B, R C, R D and R E are alkyl groups or R A is an aryl group and R 1 is hydrogen and a light emitting compound of formula wherein X 1 and X 2 are same or different at each occurrence and independently selected from the group consisting of C-R 5 and N-R 6, wherein R 5 or R 6 is selected from the group consisting of: an unshared electron pair, hydrogen and other substituents, A and B are the same or different at each occurrence and independently selected from the group consisting of five- or six-membered aryl or heteroaryl rings and fused rings, i represents an integer from 2 to 4, and M is a metal atom, preferably a platinum group metal.. X 1 and X 2 are same or different at each occurrence and independently selected from the group consisting of C-R 5 and N-R 6, wherein R 5 or R 6 is selected from the group consisting of: an unshared electron pair, hydrogen and other substituents, A and B are the same or different at each occurrence and independently selected from the group consisting of five- or six-membered aryl or heteroaryl rings and fused rings, i represents an integer from 2 to 4, and M is a metal atom, preferably a platinum group metal..
Wall heater device of elongated shape and consisting of a heating baseboard, said device comprising a hollow body which has firstly a back intended to rest against the wall on which the device is mounted, and secondly a front located opposite it, said device further comprising a heat exchanger with fins as well as two tubes for circulating heating liquid in one direction each, said device being characterised in that the tubes are located between the heat exchanger and the front and that it further comprises at least one pair of frames for fixing the tubes, between which the heat exchanger is located and in which the tubes are arranged to be fixed by clipping into their cross section.
A computer-implemented method for determining whether a male fetus of a pregnant female has an X-linked mutation, wherein the pregnant female is heterozygous for a mutation and a normal allele at a target region on the X chromosome, wherein the mutation is a deletion or an amplification of the target region, the method comprising: receiving data from a plurality of reactions, each involving one or more nucleic acid molecules from a biological sample, the biological sample including nucleic acid molecules from the pregnant female and from the male fetus, wherein the data includes: a first set of quantitative data indicating a first amount of the nucleic acid molecules that are from the target region; and a second set of quantitative data indicating a second amount of the nucleic acid molecules that are from a reference region on the X chromosome; determining a parameter from the first amount and the second amount, wherein the parameter represents a relative amount between the first and second amounts; obtaining a percentage Pf of fetal nucleic acid molecules in the biological sample; calculating a first cutoff value for determining whether the male fetus has inherited the mutation, the first cutoff value being dependent on the percentage Pf; calculating a second cutoff value for determining whether the fetus has inherited the normal allele, the second cutoff value being dependent on the percentage Pf; and comparing the parameter to at least one of the first and second cutoff values to determine a classification of whether the fetus has inherited the mutation or the normal allele. receiving data from a plurality of reactions, each involving one or more nucleic acid molecules from a biological sample, the biological sample including nucleic acid molecules from the pregnant female and from the male fetus, wherein the data includes: a first set of quantitative data indicating a first amount of the nucleic acid molecules that are from the target region; and a second set of quantitative data indicating a second amount of the nucleic acid molecules that are from a reference region on the X chromosome; a first set of quantitative data indicating a first amount of the nucleic acid molecules that are from the target region; and a second set of quantitative data indicating a second amount of the nucleic acid molecules that are from a reference region on the X chromosome; determining a parameter from the first amount and the second amount, wherein the parameter represents a relative amount between the first and second amounts; obtaining a percentage Pf of fetal nucleic acid molecules in the biological sample; calculating a first cutoff value for determining whether the male fetus has inherited the mutation, the first cutoff value being dependent on the percentage Pf; calculating a second cutoff value for determining whether the fetus has inherited the normal allele, the second cutoff value being dependent on the percentage Pf; and comparing the parameter to at least one of the first and second cutoff values to determine a classification of whether the fetus has inherited the mutation or the normal allele.
A polymer blend comprising: an aromatic polyester polymer; a polyphenylsulfone ("PPSU") polymer; and a reactive impact modifier comprising an elastomer. an aromatic polyester polymer; a polyphenylsulfone ("PPSU") polymer; and a reactive impact modifier comprising an elastomer.
Method of determining an open circuit voltage parameter of an electrochemical battery of a battery system, the method being performed by a controller of the system during a relaxation phase of the battery and comprising the following steps - the continuous measurement of a voltage signal, Uacc(t), at the terminals of the battery in relaxation as a function of the time elapsed from a first instant of the start of the relaxation phase, - the estimation (207a; 207b) of the open circuit voltage parameter depending on said measured voltage signal, said method being characterized in that it further comprises: - the calculation continuously during the relaxation of the battery of a logarithmic signal of the voltage depending on said voltage signal Uacc(t) as a function of the value in logarithmic form of the time elapsed from of the first moment, - the verification whether the logarithmic signal comprises a point of inflection, - and, in the event of detection of at least one point of inflection at a second instant, the estimation (207a; 207b) consists in calculating the open circuit voltage parameter symmetrically by relative to the point of inflection as a function at least of the value of the logarithmic signal at the second instant. - the continuous measurement of a voltage signal, Uacc(t), at the terminals of the battery in relaxation as a function of the time elapsed from a first instant of the start of the relaxation phase, - the estimation (207a; 207b) of the open circuit voltage parameter depending on said measured voltage signal, said method being characterized in that it further comprises: - the calculation continuously during the relaxation of the battery of a logarithmic signal of the voltage depending on said voltage signal Uacc(t) as a function of the value in logarithmic form of the time elapsed from of the first moment, - the verification whether the logarithmic signal comprises a point of inflection, - and, in the event of detection of at least one point of inflection at a second instant, the estimation (207a; 207b) consists in calculating the open circuit voltage parameter symmetrically by relative to the point of inflection as a function at least of the value of the logarithmic signal at the second instant. - the calculation continuously during the relaxation of the battery of a logarithmic signal of the voltage depending on said voltage signal Uacc(t) as a function of the value in logarithmic form of the time elapsed from of the first moment, - the verification whether the logarithmic signal comprises a point of inflection, - and, in the event of detection of at least one point of inflection at a second instant, the estimation (207a; 207b) consists in calculating the open circuit voltage parameter symmetrically by relative to the point of inflection as a function at least of the value of the logarithmic signal at the second instant.
An impact-absorbing member of an automobile, which extends in a vehicle length direction of the automobile and whose both end portions in the vehicle length direction are offset so that positions of the both end portions become mutually different when seen from the vehicle length direction, the impact-absorbing member of the automobile comprising a hat-shaped outer member and a hat-shaped inner member which are mutually joined at flange portions, wherein when a ratio between a length G in, which is the length in an offset direction from a gravity center of a cross section of the outer member and the inner member perpendicular to the vehicle length direction to a top portion of the inner member, and a length G out, which is the length in the offset direction from the gravity center of the cross section to a top portion of the outer member, (G in /G out) is defined as a ratio of gravity centers, the ratio of gravity centers increases from a side of the end portion, selected from the both end portions, whose position is offset toward a vehicle outer side when seen from the vehicle length direction, toward another side of the end portion, whose position is offset toward a vehicle inner side when seen from the vehicle length direction. a hat-shaped outer member and a hat-shaped inner member which are mutually joined at flange portions, wherein when a ratio between a length G in, which is the length in an offset direction from a gravity center of a cross section of the outer member and the inner member perpendicular to the vehicle length direction to a top portion of the inner member, and a length G out, which is the length in the offset direction from the gravity center of the cross section to a top portion of the outer member, (G in /G out) is defined as a ratio of gravity centers, the ratio of gravity centers increases from a side of the end portion, selected from the both end portions, whose position is offset toward a vehicle outer side when seen from the vehicle length direction, toward another side of the end portion, whose position is offset toward a vehicle inner side when seen from the vehicle length direction.
A method to be performed in a wireless device, the method comprising: adapting, based on one or more pre-defined rules or criteria, a minimum number of a first type of cells, Min_type_1, and a minimum number of a second type of cells, Min_type_2, for which the wireless device is to perform radio measurements during an at least partly overlapping measurement time, T0, wherein a cell of the first type transmits at least one type of reference signal in every subframe over T0 and a cell of the second type operates according to an on/off scheme whereby the cell of the second type does not transmit any type of reference signal in at least one subframe over T0, wherein Min_type_2 is determined based on a periodicity, Tp, with which a discovery reference signal, DRS, burst is transmitted and/or the length of a discovery reference signal, DRS, burst in the reference signal configuration of the second type of cells; performing the radio measurements on preference signals received during T0 from at least Min_type_1 of the first type of cells and at least Min_type_2 of the second type of cells; and using the radio measurements for one or more radio tasks. adapting, based on one or more pre-defined rules or criteria, a minimum number of a first type of cells, Min_type_1, and a minimum number of a second type of cells, Min_type_2, for which the wireless device is to perform radio measurements during an at least partly overlapping measurement time, T0, wherein a cell of the first type transmits at least one type of reference signal in every subframe over T0 and a cell of the second type operates according to an on/off scheme whereby the cell of the second type does not transmit any type of reference signal in at least one subframe over T0, wherein Min_type_2 is determined based on a periodicity, Tp, with which a discovery reference signal, DRS, burst is transmitted and/or the length of a discovery reference signal, DRS, burst in the reference signal configuration of the second type of cells; performing the radio measurements on preference signals received during T0 from at least Min_type_1 of the first type of cells and at least Min_type_2 of the second type of cells; and using the radio measurements for one or more radio tasks.
A gas detector system comprising: an emitter configured to emit radiation in a beam path; a detector configured to receive at least a portion of the emitted radiation; a ring reflector having a curved wall configured to contain the beam path and to reflect the emitted radiation and direct the emitted radiation around the ring reflector toward the detector, wherein the ring reflector comprises at least a portion of a spheroid shape, wherein the ring reflector is configured to allow gas to flow through at least a portion of the beam path, and wherein the detector and the emitter are mounted on the same surface within the ring reflector and are oriented side by side in the same plane; a reflector, within the ring reflector, configured to direct the beam path from the emitter to the curved wall, and a further reflector, within the ring reflector, configured to direct the beam path from the curved wall toward the detector; and a processing circuit coupled to the detector configured to process an output from the detector. an emitter configured to emit radiation in a beam path; a detector configured to receive at least a portion of the emitted radiation; a ring reflector having a curved wall configured to contain the beam path and to reflect the emitted radiation and direct the emitted radiation around the ring reflector toward the detector, wherein the ring reflector comprises at least a portion of a spheroid shape, wherein the ring reflector is configured to allow gas to flow through at least a portion of the beam path, and wherein the detector and the emitter are mounted on the same surface within the ring reflector and are oriented side by side in the same plane; a reflector, within the ring reflector, configured to direct the beam path from the emitter to the curved wall, and a further reflector, within the ring reflector, configured to direct the beam path from the curved wall toward the detector; and a processing circuit coupled to the detector configured to process an output from the detector.