Abstract: A mass spectrometry device includes a vacuum container in which an ionizer, a mass separator and a detector are arranged, and includes an opening-closing portion that is provided at the vacuum container and switches between a locked state of being locked in a close state and an unlocked state by a difference in pressure between inside and outside of the vacuum container, and a cooling gas introducer that introduces a cooling gas for cooling the ionizer into the vacuum container such that the opening-closing portion is kept in the locked state.

Abstract: A mass spectrometer includes an ion source including: an ionization chamber including an ion ejection hole, and an electron introduction port and an electron discharge port; a repeller electrode; a filament; a trap electrode; and a magnetic field forming unit. A first distance in a direction along the ion optical axis between an end of the electron introduction port on an ion ejection hole side and an inner face of a wall of the ionization chamber in which the ion ejection hole is formed and/or a second distance in a direction along the ion optical axis between an end of the electron introduction port on a repeller electrode side and the repeller electrode, is set to be larger than a radius of gyration of the thermal electron estimated based on energy imparted to the thermal electron and intensity of the magnetic field formed by the magnetic field forming unit.

Abstract: A mass spectrometry device includes a vacuum container in which an ionizer, a mass separator and a detector are arranged, and includes an opening-closing portion that is provided at the vacuum container and switches between a locked state of being locked in a close state and an unlocked state by a difference in pressure between inside and outside of the vacuum container, and a cooling gas introducer that introduces a cooling gas for cooling the ionizer into the vacuum container such that the opening-closing portion is kept in the locked state.

Abstract: An analytical device, includes: an ionization unit that ionizes carrier gas introduced into the separation column; a mass separation unit that mass-separates ions generated in the ionization unit; a detection unit that detects the ions mass-separated by the mass separation unit in amplification with a predetermined multiplication factor, and outputs a detection signal; an analysis unit that analyzes the detection signal having been output from the detection unit; and an adjustment unit performs an adjustment of the multiplication factor of the detection unit and/or voltage applied to an electrode of an ion transport system of the mass separation unit based on magnitude of the detection signal corresponding to the carrier gas detected by the detection unit.

Abstract: Measurement of a standard sample is repeated under control of an analysis control unit (94) while a CD voltage applied to a conversion dynode (61) of a detection unit (6) is gradually changed by a CD voltage adjustment unit (96). Then, every time a measured mass spectrum is obtained, a spectrum pattern determination unit (93) determines whether a pattern of the measured mass spectrum matches a pattern of a standard mass spectrum of a standard sample in a compound database (92), and determines the CD voltage at the time of being regarded as matching to be the set value. When the pattern of the mass spectrum is adjusted by changing the voltage applied to the ion lens (3), performance such as sensitivity is likely to be unstable due to stain on the lens electrode or the like, but since the detection unit (6) is unlikely to be affected by such a stain, unstable performance can be avoided.

Abstract: An analyzing system includes: a storage unit that stores batch files, each of which describes a measurement order of samples and a measurement condition for each of the samples and identification information; a sample arranging member which has identification information attached at a predetermined position of the sample arranging member, the identification information being in correspondence with a batch file to be used for measuring the samples; an auto-sampler to which the sample arranging member is set that sequentially collects one or more samples; an identification information reader that reads the identification information on the sample arranging member, and an analysis controller that reads out, from the storage unit, the batch file which corresponds to the identification information read by the identification information reader, and, based on a description in the batch file, controls the auto-sampler and an analyzer so as to measure the one or more samples.

Abstract: An analytical device, includes: an ionization unit that ionizes carrier gas introduced into the separation column; a mass separation unit that mass-separates ions generated in the ionization unit; a detection unit that detects the ions mass-separated by the mass separation unit in amplification with a predetermined multiplication factor, and outputs a detection signal; an analysis unit that analyzes the detection signal having been output from the detection unit; and an adjustment unit performs an adjustment of the multiplication factor of the detection unit and/or voltage applied to an electrode of an ion transport system of the mass separation unit based on magnitude of the detection signal corresponding to the carrier gas detected by the detection unit.

Abstract: Measurement of a standard sample is repeated under control of an analysis control unit (94) while a CD voltage applied to a conversion dynode (61) of a detection unit (6) is gradually changed by a CD voltage adjustment unit (96). Then, every time a measured mass spectrum is obtained, a spectrum pattern determination unit (93) determines whether a pattern of the measured mass spectrum matches a pattern of a standard mass spectrum of a standard sample in a compound database (92), and determines the CD voltage at the time of being regarded as matching to be the set value. When the pattern of the mass spectrum is adjusted by changing the voltage applied to the ion lens (3), performance such as sensitivity is likely to be unstable due to stain on the lens electrode or the like, but since the detection unit (6) is unlikely to be affected by such a stain, unstable performance can be avoided.

Abstract: In a chromatogram mass spectrometer's data processing system, if the intensity of a target peak originating from a target component at a target mass-to-charge ratio is equal to or higher than a threshold, the mass-to-charge ratio of a peak having a signal intensity lower than the threshold on the mass spectrum corresponding to the point in time where the target peak appears is designated as a correction mass-to-charge ratio. A mass spectrum at a point in time in the target peak where the signal intensity does not exceed the threshold is acquired. A sensitivity factor is calculated by dividing the strength at the target mass to-charge ratio on this mass spectrum by the strength at the correction mass to-charge ratio on the same spectrum. A mass chromatogram at the correction mass-to-charge ratio is created. This mass chromatogram is multiplied by the sensitivity factor to create a corrected mass chromatogram.

Abstract: A window regulator (1) provided in a door (9) of a vehicle to raise and lower a windowpane (90) in the door (9) includes a guide rail (20) arranged along the travel direction of the windowpane (90), a wire (3) extending along the longitudinal direction of the guide rail (20), and a traveling body (4) that is guided by the guide rail (20) and travels together with the windowpane (90). The traveling body (4) includes a drum (40) with a part of the wire (3) wound thereon, a motor (5) generating a drive force that rotates and drives the drum (40), and a housing (6) that holds the drum (40) and the motor (5). The motor (5) is more outwardly situated in a vehicle width direction than the guide rail (20) in the door (9).

Abstract: A window regulator includes a carrier plate holding a windowpane, a drum rotated by driving a motor that generates a driving force, a wire whose one end is connected to the carrier plate and whose other end is connected to the drum, a wire end fixed to an end on a side of the one end of the wire, and a housing member that is formed of a synthetic resin and houses the wire end. The housing member is configured to define a housing hole that is surrounded by a base in which an inserting hole to insert the wire is formed, and a sidewall that is formed extending from an outer edge of the base. The wire end is housed in the housing hole while being pressed against a protrusion that protrudes from the sidewall.

Abstract: In a device adjustment process, when a solenoid valve is opened, a gas resulting from vaporization of PFTBA held in a container is drawn into an ion source, a relationship between ambient temperature and a correction coefficient for actual signal values is experimentally determined beforehand. In an actual adjustment process, an ambient temperature acquirer reads the ambient temperature and refers to the correction information to determine the correction coefficient corresponding to the ambient temperature at that moment. A signal value corrector multiplies an actually measured peak area value by the correction coefficient to correct the actual signal value. A device adjustment controller adjusts a voltage applied to an ion detector so that the corrected actual signal value matches with a reference signal value. The voltage applied to the ion detector can be thereby adjusted so that the detector has the same level of gain independent of the ambient temperature.

Abstract: A window regulator provided in a door of a vehicle to raise and lower a windowpane in the door. The window regulator includes a traveling body that holds the windowpane and travels together with the windowpane, a wire that pulls the traveling body, and a drive mechanism that generates a drive force to wind the wire. The traveling body includes a sub-housing that encloses at least a portion of the drive mechanism. The traveling body includes a recessed groove into which the wire is inserted and which has a depth in a plate thickness direction thereof. The sub-housing is fixed to the traveling body while striding across the recessed groove.

Abstract: In a device adjustment process, when a solenoid valve is opened, a gas resulting from vaporization of PFTBA held in a container is drawn into an ion source, a relationship between ambient temperature and a correction coefficient for actual signal values is experimentally determined beforehand. In an actual adjustment process, an ambient temperature acquirer reads the ambient temperature and refers to the correction information to determine the correction coefficient corresponding to the ambient temperature at that moment. A signal value corrector multiplies an actually measured peak area value by the correction coefficient to correct the actual signal value. A device adjustment controller adjusts a voltage applied to an ion detector so that the corrected actual signal value matches with a reference signal value. The voltage applied to the ion detector can be thereby adjusted so that the detector has the same level of gain independent of the ambient temperature.

Abstract: A window regulator includes a carrier plate holding a windowpane, a drum rotated by driving a motor that generates a driving force, a wire whose one end is connected to the carrier plate and whose other end is connected to the drum, a wire end fixed to an end on a side of the one end of the wire, and a housing member that is formed of a synthetic resin and houses the wire end. The housing member is configured to define a housing hole that is surrounded by a base in which an inserting hole to insert the wire is formed, and a sidewall that is formed extending from an outer edge of the base. The wire end is housed in the housing hole while being pressed against a protrusion that protrudes from the sidewall.

Abstract: A window regulator (1) provided in a vehicle door (9) to raise and lower a windowpane (90) in the door (9) includes a guide rail (20) arranged along the travel direction of the windowpane (90), a wire (3) tensely fitted along the longitudinal direction of the guide rail (20), and a traveling body (4) that is guided by the guide rail (20) and travels together with the windowpane (90). The traveling body (4) includes a drum (40) with a part of the wire (3) wound thereon, a motor (5) generating a drive force that rotates and drives the drum (40), and a housing (6) that holds the drum (40) and the motor (5). Both end portions of the wire (3) are held by first and second wire support members (21) and (22) that are provided at an upper end portion and a lower end portion of the guide rail (20).

Abstract: A window regulator (1) provided in a door (9) of a vehicle to raise and lower a windowpane (90) in the door (9) includes a guide rail (20) arranged along the travel direction of the windowpane (90), a wire (3) tensely fitted along the longitudinal direction of the guide rail (20), and a traveling body (4) that is guided by the guide rail (20) and travels together with the windowpane (90). The traveling body (4) includes a drum (40) with a part of the wire (3) wound thereon, a motor (5) generating a drive force that rotates and drives the drum (40), and a housing (6) that holds the drum (40) and the motor (5). The motor (5) is more outwardly situated in a vehicle width direction than the guide rail (20) in the door (9).

Abstract: In a chromatogram mass spectrometer's data processing system, if the intensity of a target peak originating from a target component at a target mass-to-charge ratio is equal to or higher than a threshold, the mass-to-charge ratio of a peak having a signal intensity lower than the threshold on the mass spectrum corresponding to the point in time where the target peak appears is designated as a correction mass-to-charge ratio. A mass spectrum at a point in time in the target peak where the signal intensity does not exceed the threshold is acquired. A sensitivity factor is calculated by dividing the strength at the target mass to-charge ratio on this mass spectrum by the strength at the correction mass to-charge ratio on the same spectrum. A mass chromatogram at the correction mass-to-charge ratio is created. This mass chromatogram is multiplied by the sensitivity factor to create a corrected mass chromatogram.

Abstract: A window regulator provided in a door of a vehicle to raise and lower a windowpane in the door. The window regulator includes a traveling body that holds the windowpane and travels together with the windowpane, a wire that pulls the traveling body, and a drive mechanism that generates a drive force to wind the wire. The traveling body includes a sub-housing that encloses at least a portion of the drive mechanism. The traveling body includes a recessed groove into which the wire is inserted and which has a depth in a plate thickness direction thereof. The sub-housing is fixed to the traveling body while striding across the recessed groove.

Abstract: The present invention provides a method and apparatus for rapidly extracting the analyte existing in the liquid phase in analyzing an analyte “having a large partition coefficient in gas-liquid equilibrium”, “having a high water solubility”, or “having a low olfactory threshold” by a gas-liquid contact extraction method, and further provides, a method and apparatus for unmanned continuous sample introduction of the analyte to a GC or the like for a long time. In the present invention, using a gas-liquid contact extractor to which a sample liquid is continuously introduced from above and a purge gas from beneath, the analyte in the sample liquid is extracted by gas-liquid contact between the sample liquid and the purge gas. A discharge pipe is connected to the bottom of the gas-liquid contact extractor, the pipe having a liquid sump through which the sample liquid is discharged, while blocking the outflow of the purge gas from the liquid sump.