Abstract: A system for measuring a concentration of a component included in a body fluid includes: an apparatus that acquires data including spectra in a time series obtained by irradiating at least part of the body fluid in a flowing state with laser light; and an analyzer apparatus that analyzes analysis target spectrum included in the acquired data based on an analysis reference spectrum that is highly similar to the analysis target spectrum, out of a plurality of reference spectra that primarily reflect one out of a plurality of principal components of the body fluid, and determines the concentration of a target component in the body fluid.

Abstract: A system for measurement is provided. The system comprises a core optical module and a scanning interface module. The core optical module is configured to generate a light for generating signals for analyzing an object through the scanning interface module and detect a light including the signals from the object through the scanning interface module. The scanning interface module is changeable for each application and configured to connect with the core optical module by a light transferring unit to scan the object with the transferred light from the core optical module and to receive the light from the object to transfer to the core optical module.

Abstract: A gas analyzing apparatus includes: an ionization device that generates an ion flow of a sample gas; an analyzer that analyzes the ion flow supplied from the ionization device; a first ion path that non-linearly guides the ion flow from the ionization device to an inlet of the analyzer; and a blocking device for intermittently blocking and releasing, using an electric field or a magnetic field, the ion flow on at least part of a path of the ion flow through the first ion path to a mass filter of the analyzer. It is possible to perform measurement in a state where the ion flow is blocked and measurement in a state where the ion flow is not blocked.

Abstract: There is provided an apparatus including a chip containing metal bodies capable of exciting localized surface plasmon resonance at a first surface, and an analyzer unit that performs a scan of the first surface of the chip, in a state where the first surface is in contact with a sample, with a laser in at least a one-dimensional direction and records scattered light, which has been enhanced at the first surface, in association with the scan. The chip includes a substrate, a first layer where concave and convex structures are repeatedly provided on the first surface of the substrate; and a second layer that contains the metal bodies and is provided via the first layer.

Abstract: A gas analyzer apparatus includes: a sample chamber that is provided with a dielectric wall structure and into which a sample gas to be measured flows; a plasma generation mechanism for generating plasma inside the sample chamber, which has been depressurized, using an electric field and/or a magnetic field through the dielectric wall structure; a gas input apparatus configured to cause only the sample gas to flow from a process into the sample chamber; a first detector configured to detect components in the plasma by filtered ionized gas from the generated plasma; and a second detector configured to analyze light emission of ions in the plasma inside the sample chamber and output a second detection result that is to be synchronized with the first detection result of the first detector.

Abstract: There is provided a gas analyzer apparatus that analyzes inflowing sample gas. The gas analyzer apparatus includes a filter unit that filters the sample gas, a detector unit that detects the result of filtering, a housing that houses these elements, and a control unit that controls the respective potentials of these elements. The control unit includes a cleaning control unit that sets the respective potentials of the filter unit, the detector unit, and the housing to cleaning potentials that draws in, as plasma for cleaning purposes, process plasma from a source that supplies the sample gas or plasma generated by a plasma generation unit.

Abstract: A system includes an optical path for irradiating a part of a target with the Stokes light pulses, the broadband pump light pulses, and the narrowband pump light pulses synchronously; a modulator that is configured to control the phases of the narrowband pump light pulses; and a detector configured to detect CARS spectrum to acquire sets of CARS spectrum in association with the phases of the narrowband pump light pulses.

Abstract: There is provided a living body monitoring system equipped with: an implant that is embedded under the skin of the living body and includes an optical part with a reflective function that is embedded below a target under the skin; and an analyzer apparatus. The analyzer apparatus includes: an irradiating apparatus for irradiating a blood vessel that is a target under the skin of the organism with a laser; and a detector that detects scattered light (CARS light) from the blood vessel via the optical unit of the implanted implant. A biomedical management system equipped with a medication system may also be provided.

Abstract: A system includes an optical path configured to irradiate a part of a target with Stokes light pulses, pump light pulses and hybrid probe light pulses including first probe light pulses and second light pulses, with the first probe light pulses and the second probe light pulses overlapping in time in part, with the first and second probe light pulses partially overlapping with the Stokes pulse and the pump pulse, and with at least one of the first probe light pulses and the second probe light pulses varying phases; and a detector configured to detect CARS spectrum and generated by the Stokes light pulses, the pump light pulses and the hybrid probe light pulses to acquire sets of CARS spectrum in association with the phases of the hybrid probe light pulses.

Abstract: A system includes a laser module that includes a first laser source configured to generate a narrowband first source laser light; and a plurality of routes configured by optical fibers without using a free space. The plurality of routes includes: a first route for splitting the first source light pulses for generating Stokes light pulses and pump light pulses; a second route for amplifying and broadening a range of wavelengths with a first train including a first amplifier, a first HCPCF, and HNLPCF spliced to supply the Stokes light pulses; and a third route for amplifying with a second train including a second amplifier and a second HCPCF spliced to supply the pump light pulses.

Abstract: A system includes an optical module for supplying a Stokes light, a pump light and a probe light for generating a CARS light. The optical module includes a fiber laser module and an optical plate. The fiber laser module includes an oscillator, a generator, a first amplifier, a second amplifier and a LD power distributor that is configured to distribute a laser power from a first laser diode to the oscillator as an oscillation source, to the generator as a pump power, to the first preamplifier as a pump power and to the second preamplifier as a pump power.

Abstract: A gas analyzing apparatus includes: an ionization device that generates an ion flow of a sample gas; an analyzer that analyzes the ion flow supplied from the ionization device; a first ion path that non-linearly guides the ion flow from the ionization device to an inlet of the analyzer; and a blocking device for intermittently blocking and releasing, using an electric field or a magnetic field, the ion flow on at least part of a path of the ion flow through the first ion path to a mass filter of the analyzer. It is possible to perform measurement in a state where the ion flow is blocked and measurement in a state where the ion flow is not blocked.

Abstract: There is provided a gas analyzer apparatus including: a sample chamber which is equipped with a dielectric wall structure and into which only sample gas to be measured is introduced; a plasma generation mechanism that generates plasma inside the sample chamber, which has been depressurized, using an electric field and/or a magnetic field applied through the dielectric wall structure; and an analyzer unit that analyzes the sample gas via the generated plasma. By doing so, it is possible to provide a gas analyzer apparatus capable of accurately analyzing sample gases, even those including corrosive gas, over a long period of time.

Abstract: A plasma generating device includes: a chamber which is equipped with a dielectric wall structure and into which sample gas to be measured flows; an RF supplying mechanism that generates plasma inside the chamber using an electric field and/or a magnetic field through the dielectric wall structure; and a floating potential supplying mechanism that includes a first electrode disposed along an inner surface of the chamber. The RF supplying mechanism may include an RF field forming unit disposed in a first direction with respect to the chamber and the first electrode may include an electrode disposed in a second direction with respect to the chamber.

Abstract: An optical system includes a first optical path configured to supply a first light with a first range of wavelengths; a second optical path configured to supply a second light with a second range of wavelengths shorter than the first range of wavelengths; a third optical path configured to supply a third light with a third range of wavelengths shorter than the second range of wavelengths; an optical I/O unit configured to emit the first light, the second light and the third light to a target and acquire a light from the target; a reference unit configured to split off a reference light from the third light; and a detector that includes a range of detection wavelengths shared with a CARS light and an interference light.

Abstract: A system includes an optical module for supplying a Stokes light, a pump light and a probe light for generating a CARS light. The optical module includes a fiber laser module and an optical plate. The fiber laser module includes an oscillator, a generator, a first amplifier, a second amplifier and a LD power distributor that is configured to distribute a laser power from a first laser diode to the oscillator as an oscillation source, to the generator as a pump power, to the first preamplifier as a pump power and to the second preamplifier as a pump power.

Abstract: A plasma generating device includes: a chamber which is equipped with a dielectric wall structure and into which sample gas to be measured flows; an RF supplying mechanism that generates plasma inside the chamber using an electric field and/or a magnetic field through the dielectric wall structure; and a floating potential supplying mechanism that includes a first electrode disposed along an inner surface of the chamber. The RF supplying mechanism may include an RF field forming unit disposed in a first direction with respect to the chamber and the first electrode may include an electrode disposed in a second direction with respect to the chamber.

Abstract: A system includes an optical path for irradiating a part of a target with pulses of Stokes light and pump light, and pulses of probe light with pulse widths larger than pulse widths of the pulses of the Stokes light and the pump light; a modulator that is configured to control relative temporal relationships between the pulses of the probe light and the pulses of the Stokes light and the pump light within the pulse width of the probe light; and a detector configured to detect CARS spectrum.

Abstract: A system for measurement is provided. The system includes a first optical path configured to supply first light pulses with a first range of wavelengths; a second optical path configured to supply second light pulses with a second range of wavelengths shorter than the first range of wavelengths; an optical I/O unit configured to emit the first light pulses and the second light pulses to a target and acquire a light from the target to detect CARS light pluses from the target by a detector; and a first phase modulating unit configured to vary phase differences between the first light pulses and the second light pulses as the first light pulses and the second light pulses are emitted via the optical I/O unit.

Abstract: A plasma generating device includes: a chamber which is equipped with a dielectric wall structure and into which sample gas to be measured flows; an RF supplying mechanism that generates plasma inside the chamber using an electric field and/or a magnetic field through the dielectric wall structure; and a floating potential supplying mechanism that includes a first electrode disposed along an inner surface of the chamber. The RF supplying mechanism may include an RF field forming unit disposed in a first direction with respect to the chamber and the first electrode may include an electrode disposed in a second direction with respect to the chamber.