mhurhangee/ep-ind-claims huggingface dataset:
A gas sampling and conditioning system comprising: a probe device operable to extract a gas sample from a gas-containing device; a gas conditioning device operable to receive the gas sample from said probe device, wherein said gas conditioning device comprises one or more components requiring electrical power; an analyzer device operable to receive the gas sample from said gas conditioning device and determine constituent components of the gas sample; and a first transport device operable to carry gas from said gas conditioning device to said analyzer device, wherein said first transport device is heated by a first heat tracing device that conducts electrical power and generates heat, characterized by an intermediate enclosure device operably connected to said probe device, wherein said intermediate enclosure device is for receiving the gas sample from said probe device and heating the gas sample to maintain the gas sample at a substantially constant temperature; and a second transport device operable to carry the heated gas sample from said intermediate enclosure device to said gas conditioning device; wherein the one or more components of said gas conditioning device that require electrical power derive the electrical power from the first heat tracing device; and wherein said second transport device comprises a second heat tracing device electrically connected to, and deriving electrical power from, said first heat tracing device. a probe device operable to extract a gas sample from a gas-containing device; a gas conditioning device operable to receive the gas sample from said probe device, wherein said gas conditioning device comprises one or more components requiring electrical power; an analyzer device operable to receive the gas sample from said gas conditioning device and determine constituent components of the gas sample; and a first transport device operable to carry gas from said gas conditioning device to said analyzer device, wherein said first transport device is heated by a first heat tracing device that conducts electrical power and generates heat, characterized by an intermediate enclosure device operably connected to said probe device, wherein said intermediate enclosure device is for receiving the gas sample from said probe device and heating the gas sample to maintain the gas sample at a substantially constant temperature; and a second transport device operable to carry the heated gas sample from said intermediate enclosure device to said gas conditioning device; wherein the one or more components of said gas conditioning device that require electrical power derive the electrical power from the first heat tracing device; and wherein said second transport device comprises a second heat tracing device electrically connected to, and deriving electrical power from, said first heat tracing device.
A conditional access module (CICAM), the conditional access module (CICAM) being removably connectable to a host device (HOST) via a communication channel (Cl+) comprising a transport stream interface, the conditional access module configured to inject a digital media transport stream into the host device (HOST), the conditional access module (CICAM) comprising: an IP interface (IPIN); a streaming module (HTTPASC) for receiving, via the IP interface (IPIN), at least one segment of digital content encoded according to an internet protocol, the segment comprising a plurality of data packets of the digital content; a parser to parse the received segment; and a transport stream injector (TSINJ) to inject the transport stream comprising at least a subset of the data packets into the transport stream interface; characterised in that: the streaming module (HTTPASC) is an adaptive streaming module for receiving the plurality of data packets of the digital content, wherein said plurality of data packets is encoded at one from a plurality of encoding bit-rates; the parser is configured to parse the received segment for at least one timing attribute associated with the subset of the data packets; and the conditional access module (CICAM) further comprises a PCR clock (CIPCRC) for keeping track of a reference time and in that the transport stream injector (TSINJ) is configured to begin transmitting the subset of data packets at a time when the timing attribute corresponds to the reference time, the transmission being carried out at an injection bit-rate which is higher than any from the plurality of encoding bit-rates. an IP interface (IPIN); a streaming module (HTTPASC) for receiving, via the IP interface (IPIN), at least one segment of digital content encoded according to an internet protocol, the segment comprising a plurality of data packets of the digital content; a parser to parse the received segment; and a transport stream injector (TSINJ) to inject the transport stream comprising at least a subset of the data packets into the transport stream interface; the streaming module (HTTPASC) is an adaptive streaming module for receiving the plurality of data packets of the digital content, wherein said plurality of data packets is encoded at one from a plurality of encoding bit-rates; the parser is configured to parse the received segment for at least one timing attribute associated with the subset of the data packets; and the conditional access module (CICAM) further comprises a PCR clock (CIPCRC) for keeping track of a reference time and in that the transport stream injector (TSINJ) is configured to begin transmitting the subset of data packets at a time when the timing attribute corresponds to the reference time, the transmission being carried out at an injection bit-rate which is higher than any from the plurality of encoding bit-rates.
A method of determining whether a chromosomal region exhibits a copy number aberration in a biological sample from a subject, wherein the biological sample includes a mixture of cell-free DNA molecules including clinically-relevant DNA molecules and other DNA molecules, the method comprising: for each size range of a plurality of size ranges: measuring a first amount of cell-free DNA molecules from the biological sample corresponding to the size range, and calculating, by a computer system, a size ratio using the first amount of cell-free DNA molecules corresponding to the size range and a second amount of DNA molecules in a second size range that includes sizes not in the size range; obtaining a reference size pattern including a plurality of reference size ratios for the plurality of size ranges, wherein the reference size pattern is determined from a plurality of reference samples from subjects with a copy number aberration or from subjects without a copy number aberration in the chromosomal region; comparing a plurality of the size ratios to the reference size pattern; and determining whether the chromosomal region exhibits a copy number aberration based on the comparison. for each size range of a plurality of size ranges: measuring a first amount of cell-free DNA molecules from the biological sample corresponding to the size range, and calculating, by a computer system, a size ratio using the first amount of cell-free DNA molecules corresponding to the size range and a second amount of DNA molecules in a second size range that includes sizes not in the size range; measuring a first amount of cell-free DNA molecules from the biological sample corresponding to the size range, and calculating, by a computer system, a size ratio using the first amount of cell-free DNA molecules corresponding to the size range and a second amount of DNA molecules in a second size range that includes sizes not in the size range; obtaining a reference size pattern including a plurality of reference size ratios for the plurality of size ranges, wherein the reference size pattern is determined from a plurality of reference samples from subjects with a copy number aberration or from subjects without a copy number aberration in the chromosomal region; comparing a plurality of the size ratios to the reference size pattern; and determining whether the chromosomal region exhibits a copy number aberration based on the comparison.
A composition, comprising: a molecular compound comprising at least: (a) a first portion derived from a polydentate acid, wherein said polydentate acid has three or more -COOH moieties; (b) a second portion derived from polyalkylene glycol; and (c) a third portion derived from an anhydride selected from succinic anhydride, alkyl succinic anhydride, alkenyl succinic anhydride and/or poly(isobutenylsuccinic anhydride); wherein the first portion is covalently bonded to the second portion, and the second portion is covalently bonded to the third portion; wherein the overall mole ratio of the first portion to the third portion is between 1:0.1 and 1:1, and the overall mole ratio of the third portion to the second portion is between 0.1:1 and 0.5:1, and the overall mole ratio of the first portion to the second portion is between 1:1 to 1:4. (a) a first portion derived from a polydentate acid, wherein said polydentate acid has three or more -COOH moieties; (b) a second portion derived from polyalkylene glycol; and (c) a third portion derived from an anhydride selected from succinic anhydride, alkyl succinic anhydride, alkenyl succinic anhydride and/or poly(isobutenylsuccinic anhydride); wherein the first portion is covalently bonded to the second portion, and the second portion is covalently bonded to the third portion; wherein the overall mole ratio of the first portion to the third portion is between 1:0.1 and 1:1, and the overall mole ratio of the third portion to the second portion is between 0.1:1 and 0.5:1, and the overall mole ratio of the first portion to the second portion is between 1:1 to 1:4.
Sliding brush assembly for a slipring, comprising at least one sliding brush (21, 22, 23,24, 30), the at least one sliding brush (21, 22, 23,24, 30) comprising a first end for holding the at least one sliding brush (21, 22, 23,24, 30), opposing thereto a second end and a contact section between the ends, the at least one sliding brush (21, 22, 23,24, 30) further comprising a metal wire or metal sheet, and an absorbing device (201, 202) to reduce vibrations and/or oscillations is attached to the at least one sliding brush (21, 22, 23,24, 30), characterized in, that the absorbing device (201, 202) comprising a housing enclosing an elastic absorbing material, and at least a section of the at least one sliding brush (21, 22, 23,24, 30) is enclosed by the absorbing material and/or the absorbing material is penetrated by the at least one sliding brush (21, 22, 23,24, 30).
Current take-off device, comprising a current-carrying component configured as a battery and a current-drawing component configured as a plug, wherein a separating wall configured as a housing with an opening for the passage of the current-drawing component is arranged between the current-carrying component and the current-drawing component, wherein the diameter of the opening and of the current-drawing component corresponds to at least the diameter of a finger and the opening and the current-drawing component have a diameter of at least 12 mm, characterized in that flexible and/or sprung protective elements are arranged in the region of the opening in order to prevent contact of the current-carrying component by a finger, such that a free space between the protective elements in the region of the opening is so small that a finger and the current-drawing component can be inserted through the free space only by applying a force to push away the protective elements, wherein the protective elements are formed on an insulating protective body which is configured to cover the opening, wherein the protective elements are in particular integrally formed on the protective body, wherein the protective body has a hollow cylinder which can be inserted through the opening and the protective elements are formed in the region of the inner circumference of the hollow cylinder, wherein securing aids, in particular protrusions or spring elements, are arranged on the outer circumference of the hollow cylinder of the protective body.
A measurement abnormality detecting method for surface plasmon field-enhanced fluorescence spectroscopy (SPFS) comprising: a light measurement step of providing excitation light EL to irradiation areas (E1, E2, E3) of a measurement target region of a sample and thereby measuring light output from the measurement target region due to incidence of the excitation light, wherein the measurement target region is a reaction field in which a biochemical reaction is performed, and a measurement result is calculated from measurement values of the amount of light emitted from a fluorescent substance positioned in the reaction field, in response to the incident excitation light EL, wherein said fluorescent substance has the property that the color fades every time the substance is irradiated with the excitation light EL; and the measurement result is calculated using: a determination step of comparing measurement values of the light measured at a plurality of times while changing the position of the irradiation areas (E1, E2, E3) of the measurement target region to thereby determine an abnormality of the measurement result, wherein the determination step determines a measurement abnormality in the reaction field in a case where a reference measurement value being a measurement value obtained for a first measurement in the reaction field is lower than a comparison measurement value defined as the highest measurement value among measurement values obtained at a subsequent second and subsequent further measurements in the reaction field, wherein a first irradiation area irradiated during the first measurement from among the irradiation areas (E1, E2, E3) within the measurement target region corresponding to the reaction field, partially overlaps all other irradiation areas (E2, E3) irradiated during the measurements at the subsequent second and subsequent further times. a determination step of comparing measurement values of the light measured at a plurality of times while changing the position of the irradiation areas (E1, E2, E3) of the measurement target region to thereby determine an abnormality of the measurement result, wherein the determination step determines a measurement abnormality in the reaction field in a case where a reference measurement value being a measurement value obtained for a first measurement in the reaction field is lower than a comparison measurement value defined as the highest measurement value among measurement values obtained at a subsequent second and subsequent further measurements in the reaction field, wherein a first irradiation area irradiated during the first measurement from among the irradiation areas (E1, E2, E3) within the measurement target region corresponding to the reaction field, partially overlaps all other irradiation areas (E2, E3) irradiated during the measurements at the subsequent second and subsequent further times.
A method for simultaneously compressing and encrypting an input data set comprising: mapping the input data set into an entropy measure sequence by performing a windowed entropy measure over plaintext data samples and performing frequency analysis of the entropy variation over the plaintext data; segmenting the input data set based on a period value corresponding to a significant peak in the magnitude of Fourier Transform of the entropy measure sequence; generating one or more statistical models that represent a statistical measurement of the input data set segments; changing a state of a compressive entropy encoder according to an encryption key and the one or more statistical models to simultaneously compress and encrypt the input data set. mapping the input data set into an entropy measure sequence by performing a windowed entropy measure over plaintext data samples and performing frequency analysis of the entropy variation over the plaintext data; segmenting the input data set based on a period value corresponding to a significant peak in the magnitude of Fourier Transform of the entropy measure sequence; generating one or more statistical models that represent a statistical measurement of the input data set segments; changing a state of a compressive entropy encoder according to an encryption key and the one or more statistical models to simultaneously compress and encrypt the input data set.
Process for producing a polycrystalline ceramic solid body having - a main phase having a composition of the following general formula: 1 − y Pb a Mg b Nb c O 3 − e + yPb a Ti d O 3 where 0.055 ≤ y ≤ 0.065 0.95 ≤ a ≤ 1.02; 0.29 ≤ b ≤ 0.36; 0.63 ≤ c ≤ 0.69; 0.9 ≤ d ≤ 1.1; 0 ≤ e ≤ 0.1; - and optionally one or more secondary phases, wherein, in any section through the solid body, the area proportion of the secondary phases based on an arbitrary cross section through the solid body is less than or equal to 0.5 percent or wherein the solid body is free of secondary phases, comprising the process steps of: A) providing starting materials comprising the elements Mg, Nb, Ti and Pb, B) producing a mixture comprising the starting materials, C) calcining the mixture to produce a calcined mixture, E) processing the calcined mixture into a preform, F) sintering the preform, wherein, to control the lead balance, - step F) is carried out in a closed container, wherein the closed container (1, 2), has an inner space in which one or more preforms are arranged, such that the volume fill level of all the preforms, based on the volume of the inner space, is at least 30% by volume. - a main phase having a composition of the following general formula: 1 − y Pb a Mg b Nb c O 3 − e + yPb a Ti d O 3 where 0.055 ≤ y ≤ 0.065 0.95 ≤ a ≤ 1.02; 0.29 ≤ b ≤ 0.36; 0.63 ≤ c ≤ 0.69; 0.9 ≤ d ≤ 1.1; 0 ≤ e ≤ 0.1; - and optionally one or more secondary phases, wherein, in any section through the solid body, the area proportion of the secondary phases based on an arbitrary cross section through the solid body is less than or equal to 0.5 percent or wherein the solid body is free of secondary phases, comprising the process steps of: A) providing starting materials comprising the elements Mg, Nb, Ti and Pb, B) producing a mixture comprising the starting materials, C) calcining the mixture to produce a calcined mixture, E) processing the calcined mixture into a preform, F) sintering the preform, wherein, to control the lead balance, A) providing starting materials comprising the elements Mg, Nb, Ti and Pb, B) producing a mixture comprising the starting materials, C) calcining the mixture to produce a calcined mixture, E) processing the calcined mixture into a preform, F) sintering the preform, - step F) is carried out in a closed container, wherein the closed container (1, 2), has an inner space in which one or more preforms are arranged, such that the volume fill level of all the preforms, based on the volume of the inner space, is at least 30% by volume.
A ship handling device for a ship, comprising: a driving force source; a propulsion device; a position calculating device configured to calculate a position of the ship; and an orientation calculating device configured to calculate an orientation of the ship, wherein the ship handling device is capable of executing dynamic positioning control for balancing a thrust of the ship with an external force acting on the ship, characterized by while the dynamic positioning control is active, and a predetermined period of time has elapsed from a time point when a thrust setting value was stored, in a case where a distance deviation from a target position is greater than a predetermined value and a first condition that a state where a moving amount of the ship per unit time is equal to or less than a predetermined amount has continued for a predetermined period of time is satisfied, or in a case where an orientation deviation from a target orientation is greater than a predetermined value and a second condition that a state where a turning amount of the ship per unit time is equal to or less than a predetermined amount has continued for a predetermined period of time is satisfied, a thrust setting value resulting from the dynamic positioning control at the time of determination on the first condition or the second condition is stored as a reference value, and the reference value is added to a thrust setting value subsequently resulting from the dynamic positioning control. a driving force source; a propulsion device; a position calculating device configured to calculate a position of the ship; and an orientation calculating device configured to calculate an orientation of the ship, wherein the ship handling device is capable of executing dynamic positioning control for balancing a thrust of the ship with an external force acting on the ship, characterized by while the dynamic positioning control is active, and a predetermined period of time has elapsed from a time point when a thrust setting value was stored, in a case where a distance deviation from a target position is greater than a predetermined value and a first condition that a state where a moving amount of the ship per unit time is equal to or less than a predetermined amount has continued for a predetermined period of time is satisfied, or in a case where an orientation deviation from a target orientation is greater than a predetermined value and a second condition that a state where a turning amount of the ship per unit time is equal to or less than a predetermined amount has continued for a predetermined period of time is satisfied, a thrust setting value resulting from the dynamic positioning control at the time of determination on the first condition or the second condition is stored as a reference value, and the reference value is added to a thrust setting value subsequently resulting from the dynamic positioning control.