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    • 4. 发明申请
    • CO-APERTURE BROADBAND INFRARED OPTICAL SYSTEM
    • CO-APERTURE宽带红外光学系统
    • US20160370562A1
    • 2016-12-22
    • US15106699
    • 2015-02-10
    • HUAZHONG UNIVERSITY OF SCIENCE AND TECHNOLOGY
    • Hong ZHANGJindong FEITIanxu ZHANGXiaobing DAIXIangyan LIULi LIU
    • G02B17/08G01J3/28G02B27/14G02B1/11G02B13/14G02B27/00
    • G02B17/0808G01J3/2823G02B1/11G02B7/182G02B13/146G02B27/0025G02B27/142
    • The present invention discloses a co-aperture broadband infrared optical system, belonging to the field of infrared optical system. The system realizes long wave infrared (LWIR) imaging and broadband infrared spectrum measurement, and solves the problems of limited optical path layout, large volume and high cost of an optical system. The present invention includes a Cassegrain lens, a spectroscope, a reflector, several lens groups, an FPA interface and an optical fiber interface. Light (2 μm˜12 μm) is incident to the Cassegrain lens to be focused, then is split by the spectroscope, where 50% of the LWIR light (8 μm˜10 μm) passes through the lens group for aberration correction, and the image plane is focused again at the imaging interface. The other 50% of the LWIR light (8 μm˜10 μm) and the infrared reflected light (2 μm˜8 μm and 10 μm˜12 μm) pass through the lens group, and are reflected by the reflector, then focused at the optical fiber interface. The present invention is compact in overall structure and convenient and flexible to use, has relatively low cost, and can be integrated into an image-spectrum associated detection device to implement automatic detection and tracking, which can be widely used in civil and military fields such as environmental monitoring and infrared guidance.
    • 本发明公开了一种属于红外光学系统领域的共孔宽带红外光学系统。 该系统实现长波红外(LWIR)成像和宽带红外光谱测量,解决了光学系统光路布局有限,体积大,成本高的问题。 本发明包括卡塞格伦透镜,分光镜,反射器,多个透镜组,FPA接口和光纤接口。 光(2μm〜12μm)入射到Cassegrain透镜进行聚焦,然后被分光镜分离,其中50%的LWIR光(8μm〜10μm)通过透镜组进行像差校正, 图像平面再次聚焦在成像界面。 另外50%的LWIR光(8μm〜10μm)和红外反射光(2μm〜8μm,10μm〜12μm)通过透镜组,被反射体反射,然后聚焦在 光纤接口。 本发明整体结构紧凑,使用方便灵活,成本相对较低,可以集成到图像相关检测装置中,实现自动检测和跟踪,可广泛应用于民用和军事领域 作为环境监测和红外线指导。
    • 6. 发明申请
    • IMAGING DEVICE
    • 成像装置
    • US20160227112A1
    • 2016-08-04
    • US15015650
    • 2016-02-04
    • FUJIFILM Corporation
    • Shuji ONO
    • H04N5/232G02B13/00H04N5/378H04N5/225H04N9/04G02B3/00G02B17/08
    • H04N5/23238G02B3/0056G02B13/0065G02B13/009G02B17/0808G02B17/0896G02B27/1066G02B27/123G03B15/00G03B17/02H04N5/2254H04N5/2259H04N5/378H04N9/045
    • The present invention provides an imaging device capable of greatly reducing the assignment number of light reception cells assigned to each microlens of an array lens and increasing the number of pixels of images having different characteristics that are captured simultaneously. One aspect of the present invention is an imaging device that includes an imaging optical system including a center optical system (wide-angle lens) and an annular optical system (telescopic lens) that share an optical axis, an image sensor, and an array lens arranged on the incidence side of the image sensor and including microlenses (pupil imaging lenses). The array lens causes annular pupil images corresponding to the annular optical system adjacent to each other among a center pupil image and annular pupil images formed on the image sensor by the respective microlenses to partially overlap each other on the image sensor.
    • 本发明提供一种成像装置,其能够大大减少分配给阵列透镜的每个微透镜的光接收单元的分配数量,并且增加同时捕获的具有不同特征的图像的像素数。 本发明的一个方面是一种成像装置,其包括成像光学系统,该成像光学系统包括共享光轴的中心光学系统(广角镜头)和环形光学系统(望远镜)),图像传感器和阵列透镜 布置在图像传感器的入射侧并且包括微透镜(瞳孔成像透镜)。 阵列透镜在中心瞳孔图像和形成在图像传感器上的环形光瞳图像之间相应于环形光学系统的环形瞳孔图像通过相应的微透镜在图像传感器上部分地彼此重叠。