Abstract:
A fluorescence detection assembly that includes an emitter, a detector, a housing that defines an light chamber, a fluorescence chamber and a well, a light path that extends from the emitter, through the light chamber and through the well, and a fluorescence path that extends from the well, through the fluorescence chamber and to the detector.
Abstract:
An analyzer including a housing with a mutually adjacent first side and a second side, and an annular reagent holding part disposed within the housing is disclosed. An immunoassay method for measuring antigen or antibody of a measurement object contained in a sample and performed by the analyzer is also disclosed.
Abstract:
An observation device (1) is provided with: a general observation unit (10) for observing sample cells by observing an entire container (C) containing the cells and a culture solution; and a magnification observation unit (20) for magnifying a region within the container (C) and observing the cells, the general observation unit (10) and the magnification observation unit (20) each individually having lighting for illuminating the cells with light, and an optical system for observing the cells. The general observation unit (10) and the magnification observation unit (20) are thereby each provided with an individual optical system and lighting, making it possible to configure an appropriate observation unit for use both when the cells are observed by observing the entire container (C) and when a part within the container (C) is magnified and the cells are observed.
Abstract:
A portable, tabletop fluid sampling device simplifies spectral analysis to produce an accurate but inexpensive chromatic fingerprint for fluid samples. In one embodiment, the sampling device uses an array of variable wavelength LED emitters and photodiode detectors to measure Rayleigh scattering of electromagnetic energy from the fluid sample contained in a cuvette. Either the fluid itself, or particles suspended in the fluid can then be identified by performing spectral pattern matching to compare results of a spectral scan against a library of known spectra. A wide range of applications include substance identification, security screening, authentication, quality control, and medical diagnostics.
Abstract:
A target processing machine (100), such as a lithography or inspection machine, comprising a rigid base plate (150), a projection column (101) for projecting one or more optical or particle beams on to a target (130), a support frame (102) supporting the projection column, the support frame being supported by and fixed to the base plate, a stage comprising a movable part (128) for carrying the target and a fixed part (132, 133) being supported by and fixed to the base plate, a beam sensor (160) for detecting one or more of the beams projected by the column, the beam sensor at least in part being supported by and fixed to the base plate, and a vacuum chamber (110) enclosing the support frame and the column, for maintaining a vacuum environment in the interior space of the chamber, the vacuum chamber formed with the base plate forming part thereof and supporting a plurality of wall panels (171, 172) including a plurality of side wall panels (171) supported by and fixed thereto.
Abstract:
A sensor protector is intended to reduce the sensitivity of the optical sensor (4) to radiation products which, for example, are formed during sterilization with gamma radiation and to ensure simple and cost-effective manufacture. The sensor protector includes an upper part (1), a lower part (3) and an optical sensor (4). The optical sensor (4) situated on the lower part is positionable in an offset manner with respect to an opening (2) situated in the upper part and movable by means of displacement toward the opening (2) of the upper part (1). The sensor protector is suitable for use in containers and laboratory products that are sterilized by gamma radiation, for example disposable bioreactors.
Abstract:
A biological sample measurement apparatus includes container (10) having an opening in a top surface thereof and right and left accommodation chambers (12) and (13) formed by separating an inner space and the opening in container (10) by partition wall (11a), measurement device (1) accommodated in accommodation chamber (12) of container (10), and a holder accommodated in accommodation chamber (13) of container (10) and holding measurement device (1). Provided are recesses (15, 16) configuring holding means holding measurement device (1) on an outer peripheral wall configuring accommodation chamber (12) or in accommodation chamber (12) in a state where sensor mounting section (4) of measurement device (1) is projected to an outside of accommodation chamber (12).
Abstract:
An observation device (1) is provided with: a general observation unit (10) for observing sample cells by observing an entire container (C) containing the cells and a culture solution; and a magnification observation unit (20) for magnifying a region within the container (C) and observing the cells, the general observation unit (10) and the magnification observation unit (20) each individually having lighting for illuminating the cells with light, and an optical system for observing the cells. The general observation unit (10) and the magnification observation unit (20) are thereby each provided with an individual optical system and lighting, making it possible to configure an appropriate observation unit for use both when the cells are observed by observing the entire container (C) and when a part within the container (C) is magnified and the cells are observed.
Abstract:
Thermally controlled enclosures that can be used with gas analyzers are described. The enclosures incorporate one or more phase changing materials that buffer ambient and internal heat loads to reduce the power consumption demand of mechanical or electronic heating apparatus. Maintenance of gas analyzer equipment at a consistent temperature can be important to achieving stable and reproducible results. Related systems, apparatus, methods, and/or articles are also described.
Abstract:
A scanning mechanism 6 moves an optical head 5 relative to a mount plate 2 in a scan direction, and light emitting diodes 3A, 3B mounted on the optical head 5 emit their respective beams of measurement light along the scan direction and onto two color regions TP3, TP3, respectively, of an immunochromatographic test strip mounted on the mount plate 2. Photodiodes 4A, 4B mounted on the optical head 5 receive respective beams of reflected light from the two color regions TP3, TP3 perpendicularly to colored lines on the immunochromatographic test strip, thereby implementing simultaneous measurement of color intensities of the colored lines formed in the two color regions TP3, TP3 of the immunochromatographic test strip.