Miniature Wafer-Level Camera Modules
    3.
    发明申请
    Miniature Wafer-Level Camera Modules 审中-公开
    微型晶圆级相机模块

    公开(公告)号:US20120242814A1

    公开(公告)日:2012-09-27

    申请号:US13071892

    申请日:2011-03-25

    摘要: In one aspect, a method includes providing a lens substrate having an array of lenses. The lens substrate includes an overflow region next to each lens of the array. Each overflow region includes an overflow lens material. The method also includes separating the lens substrate into a plurality of smaller lens substrates. Each of the smaller lens substrates has one of the single lens and the plurality of stacked lenses. Separating the lens substrate into the smaller lens substrates may include removing or substantially removing the overflow regions. In one aspect, the method may be performed as a method of making a miniature camera module. Other methods are also described, as are miniature camera modules.

    摘要翻译: 一方面,一种方法包括提供具有透镜阵列的透镜基板。 透镜基板包括在阵列的每个透镜旁边的溢出区域。 每个溢流区域包括溢流透镜材料。 该方法还包括将透镜基板分离成多个较小的透镜基板。 每个较小的透镜基板具有单个透镜和多个层叠透镜中的一个。 将透镜基板分离成较小的透镜基板可以包括去除或基本上去除溢流区域。 在一个方面,该方法可以作为制造微型相机模块的方法来执行。 还描述了其他方法,微型相机模块也是如此。

    POLARIZED REFLECTIVE PINHOLE MIRROR DISPLAY

    公开(公告)号:US20220413301A1

    公开(公告)日:2022-12-29

    申请号:US17897351

    申请日:2022-08-29

    IPC分类号: G02B27/01 G02B27/28 G02B27/09

    摘要: A see-through display including a polarized reflective pinhole mirror display. The pinhole mirror display includes a plurality of tiny switchable polarized mirrors. The respective polarized mirrors individually reflect impinging light from an illuminator, and guide the respective portion of light into a pupil of an eye. A reflective optically powered surface reflects light from the illuminator. Each mirror has a first polarization and reflects a portion of light and produces a picture element (pixel) that forms a virtual image seen by the eye of the user. A user may view the reflected virtual image having the first polarization from the illuminator, as well as the image from the real world via a rear substrate that has a second polarization. Although the mirrors are very small, human eyes can still detect the mirrors if they are not polarized. The mirrors and other components are polarized so that the eye can see the real world filtered with the second polarization, but not the mirrors having a different first polarization.

    System and method for optimizing optical and digital system designs
    8.
    发明申请
    System and method for optimizing optical and digital system designs 有权
    用于优化光学和数字系统设计的系统和方法

    公开(公告)号:US20050197809A1

    公开(公告)日:2005-09-08

    申请号:US11000819

    申请日:2004-12-01

    IPC分类号: G02B27/00 G06G7/48 H04N5/225

    CPC分类号: G02B27/0025 G02B27/0012

    摘要: A system, method and software product to optimize optical and/or digital system designs. An optical model of the optical system design is generated. A digital model of the digital system design is generated. Simulated output of the optical and digital models is analyzed to produce a score. The score is processed to determine whether the simulated output achieves one or more goals. One or more properties of at least one of the optical model and the digital model is modified if the goals are not achieved. The analyzing, processing and modifying is repeated until the goals are achieved, and an optimized optical system design and optimized digital system design are generated from the optical and digital models.

    摘要翻译: 一种用于优化光学和/或数字系统设计的系统,方法和软件产品。 生成光学系统设计的光学模型。 产生数字系统设计的数字模型。 对光学和数字模型的模拟输出进行分析,得出分数。 处理得分以确定模拟输出是否达到一个或多个目标。 如果没有实现目标,则修改光学模型和数字模型中的至少一个的一个或多个属性。 重复分析,处理和修改,直到实现目标,并从光学和数字模型生成优化的光学系统设计和优化的数字系统设计。

    Ultra-wide field viewing system
    9.
    发明授权
    Ultra-wide field viewing system 失效
    超宽视野观察系统

    公开(公告)号:US5982549A

    公开(公告)日:1999-11-09

    申请号:US79489

    申请日:1998-05-15

    CPC分类号: G02B23/12

    摘要: This invention provides a vision system that increases the field of view of an electronic binocular system without degrading image quality or requiring extremely large format sensors or displays. The vision system comprises an imaging device coupled with a viewing device. The imaging device comprises a compression lens and an image sensor. The viewing device comprises an image display and a decompression lens. The compression lens matches the optical distortion to the human visual acuity curve for field positions greater than an angle .theta.. Below angle .theta. there is substantially no distortion. The optimum angle .theta. depends on the application. For an average individual viewing a landscape the angle .theta. is about 10.degree.. For different viewing objects, the optimum angle .theta. varies from about 5.degree. to about 15.degree.. The image sensor can be infrared sensitive for infrared viewing. For low-light level viewing an image intensifier can be positioned between the compression lens and the image sensor. The imaging device can be connected to the viewing device in a unitary structure or the imaging device can be remote from the viewing device. The compression lens and the decompression lens are compound lenses, each comprising a plurality of component lenses. One or more surface of one or more component lens can be aspheric.

    摘要翻译: 本发明提供一种增加电子双目系统的视野而不降低图像质量或需要极大格式的传感器或显示器的视觉系统。 视觉系统包括与观看装置耦合的成像装置。 成像装置包括压缩透镜和图像传感器。 观察装置包括图像显示器和减压透镜。 压缩透镜将光学畸变与大于角度θ的场位置的人视力曲线相匹配。 角度θ以下基本上没有失真。 最佳角度θ取决于应用。 对于观看景观的平均个体,角度θ约为10度。 对于不同的观察对象,最佳角度θ在约5°至约15°之间变化。 图像传感器可以对红外线进行红外检测。 对于低光级别的观看,图像增强器可以位于压缩透镜和图像传感器之间。 成像装置可以以单一结构连接到观察装置,或者成像装置可以远离观察装置。 压缩透镜和减压透镜是复合透镜,每个透镜包括多个分量透镜。 一个或多个组件透镜的一个或多个表面可以是非球面的。

    Polarized reflective pinhole mirror display

    公开(公告)号:US11506898B1

    公开(公告)日:2022-11-22

    申请号:US17004401

    申请日:2020-08-27

    摘要: A see-through display including a polarized reflective pinhole mirror display. The pinhole mirror display includes a plurality of tiny switchable polarized mirrors. The respective polarized mirrors individually reflect impinging light from an illuminator, and guide the respective portion of light into a pupil of an eye. A reflective optically powered surface reflects light from the illuminator. Each mirror has a first polarization and reflects a portion of light and produces a picture element (pixel) that forms a virtual image seen by the eye of the user. A user may view the reflected virtual image having the first polarization from the illuminator, as well as the image from the real world via a rear substrate that has a second polarization. Although the mirrors are very small, human eyes can still detect the mirrors if they are not polarized. The mirrors and other components are polarized so that the eye can see the real world filtered with the second polarization, but not the mirrors having a different first polarization.