DEVICE FOR EXAMINING PLANKTON
    105.
    发明申请
    DEVICE FOR EXAMINING PLANKTON 审中-公开
    用于检验飞机的设备

    公开(公告)号:US20160258872A1

    公开(公告)日:2016-09-08

    申请号:US15028820

    申请日:2014-06-25

    Abstract: A plankton examination apparatus comprises: a sub-pipe in which a transparent pipe unit; a light source unit which radiates only blue-series light; a detection unit which receives light radiated in the direction on the other side outside the transparent pipe unit through the transparent pipe unit from the light source unit and generates an image of the plankton; and a dichroic mirror installed between the transparent pipe unit and the detection unit in such a way as to transmit only red-series light which belongs to the light radiated by the light source unit and passed through the transparent pipe unit and has a wavelength of 620 nm to 780 nm and to deliver the red-series light to the detection unit.

    Abstract translation: 浮游生物检查装置包括:副管,其中透明管单元; 仅发射蓝色系列光的光源单元; 检测单元,其从所述光源单元通过所述透明管单元接收在所述透明管单元的外侧的另一侧的方向上照射的光,并生成所述浮游生物的图像; 以及安装在透明管单元和检测单元之间的分色镜,以仅透射属于由光源单元辐射的光并通过透明管单元并具有620的波长的红色系列的光 nm至780nm,并将红色系列光输送到检测单元。

    Multiview light-sheet microscopy
    106.
    发明授权
    Multiview light-sheet microscopy 有权
    多视点照片显微镜

    公开(公告)号:US09404869B2

    公开(公告)日:2016-08-02

    申请号:US14049470

    申请日:2013-10-09

    Abstract: A live biological specimen is imaged by generating a plurality of light sheets; directing the plurality of light sheets along an illumination axis through the biological specimen such that the light sheets spatially and temporally overlap within the biological specimen along an image plane, and optically interact with the biological specimen within the image plane; and recording, at each of a plurality of views, images of the fluorescence emitted along a detection axis from the biological specimen due to the optical interaction between the light sheets and the biological specimen. The temporal overlap is within a time shift that is less than a resolution time that corresponds to a spatial resolution limit of the microscope.

    Abstract translation: 通过生成多个光片对活体生物样本进行成像; 沿着照明轴线引导多个光片通过生物样本,使得光片沿着图像平面在空间和时间上在生物样本内重叠,并与图像平面内的生物样本光学相互作用; 并且在多个视图的每一个处,由于光片和生物样本之间的光学相互作用,沿着检测轴从生物样本记录荧光的图像。 时间重叠在时间偏移之内,其小于对应于显微镜的空间分辨率极限的分辨率时间。

    SPECTROMETRIC APPARATUS AND STORAGE CASE
    107.
    发明申请
    SPECTROMETRIC APPARATUS AND STORAGE CASE 审中-公开
    光谱设备和存储盒

    公开(公告)号:US20160120450A1

    公开(公告)日:2016-05-05

    申请号:US14926174

    申请日:2015-10-29

    Inventor: Kazunori SAKURAI

    Abstract: A biological body inspection apparatus includes a measurement module that acquires an amount of light having a wavelength under measurement contained in light incident on the measurement module and an enclosure that accommodates the measurement module and has a window that transmits light traveling toward the measurement module. An adhesive member is provided on a surface of the enclosure at least in an area thereof that surrounds the window. The adhesive member has a light blocking section that is located in an area outside the window and surrounds the window in a plan view in the direction along the optical axis of the light traveling toward the measurement module and blocks light that belongs to a measurement wavelength region within which at least the wavelength under measurement is present.

    Abstract translation: 生物体检查装置包括测量模块,该测量模块获取入射在测量模块上的光所包含的测量波长的光量,以及容纳测量模块的外壳,并且具有透射朝向测量模块传播的光的窗口。 至少在其围绕窗户的区域中,在外壳的表面上设置粘合构件。 所述粘接部件具有遮光部,所述遮光部位于所述窗外部的区域中,并且沿着朝向所述测量模块行进的所述光的光轴方向的俯视图中包围所述窗,并且遮挡属于所述测量波长区域的光 其中至少存在测量波长。

    Fluorescent Biological Sample Operating and Monitoring System
    109.
    发明申请
    Fluorescent Biological Sample Operating and Monitoring System 有权
    荧光生物样品操作和监测系统

    公开(公告)号:US20150330901A1

    公开(公告)日:2015-11-19

    申请号:US14716438

    申请日:2015-05-19

    Inventor: Chih-Yi Yang

    Abstract: A fluorescent biological sample operating and monitoring system for restricting the range of movement of a biological sample to facilitate observation. The system includes: a base formed with a predetermined observation position; a shield formed with an operation opening and cooperating with the base to define a light shielding cavity; an infrared illuminating device for illuminating the predetermined observation position; a low-angle excitation light source device including an excitation light source that emits light in a direction oriented toward the predetermined observation position and of a wavelength smaller than that of light emitted by the infrared illuminating device; and an observation display device including an image capturing device having a lens disposed within the shield for capturing an infrared image and oriented toward the predetermined observation position, and an image display.

    Abstract translation: 用于限制生物样品的运动范围的荧光生物样品操作和监测系统,以便于观察。 该系统包括:形成有预定观察位置的底座; 形成有操作开口并与基座配合以限定遮光腔的屏蔽件; 用于照亮所述预定观察位置的红外线照明装置; 低角度激发光源装置,其具有:朝向所述规定观察位置的方向发光的激励光源,并且比由所述红外线照明装置发出的光的波长小的波长; 以及观察显示装置,其包括具有设置在所述屏蔽内的用于捕获红外图像并朝向所述预定观察位置定向的所述透镜的图像捕获装置和图像显示器。

    SUPER-RESOLUTION MICROSCOPY METHOD AND DEVICE
    110.
    发明申请
    SUPER-RESOLUTION MICROSCOPY METHOD AND DEVICE 有权
    超分辨率显微镜方法和器件

    公开(公告)号:US20150211986A1

    公开(公告)日:2015-07-30

    申请号:US14411373

    申请日:2012-10-22

    Abstract: This invention discloses a super-resolution microscopy method and device, of which the method comprises the following steps: converting laser beam into linearly polarized light after collimation; linearly polarized light is deflected and phase modulated by a spatial light modulator; the deflected beam is focused, collimated and then converted into circularly polarized light for projection on the sample to collect signal light from various scanning points on the sample, and obtaining the first signal light intensity; switching over modulation function to project linearly polarized light modulated by the second phase modulation on the sample to collect signal light from various scanning points on the sample, and obtaining the second signal light intensity; calculating valid signal light intensity to obtain the super-resolution image. This device features in a simple structure and easy operation, which can obtain a super-resolution beyond diffraction limit at a lower luminous power; it is quick in image formation with the frame frequency over 15 frames when the number of scanning points in each image is 512×512 .

    Abstract translation: 本发明公开了一种超分辨率显微镜方法和装置,其方法包括以下步骤:准直后将激光束转换成线偏振光; 线性偏振光被空间光调制器偏转和相位调制; 偏转光束被聚焦,准直,然后转换成圆偏振光,用于投射在样品上,以从样品上的各个扫描点收集信号光,并获得第一信号光强度; 切换调制功能,将样品上的第二相位调制调制的线偏振光投射到样品上的各个扫描点,以获得第二信号光强度; 计算有效信号光强度以获得超分辨率图像。 该器件结构简单,操作方便,可以在较低的发光功率下获得超过衍射极限的超分辨率; 当每个图像中的扫描点数量为512×512时,帧频超过15帧的图像形成速度很快。

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