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    • 1. 发明授权
    • Apparatus and methods for controlling a laser output and improving laser safety using a proximity sensor
    • 用于控制激光输出并使用接近传感器提高激光安全性的装置和方法
    • US08847161B2
    • 2014-09-30
    • US13408303
    • 2012-02-29
    • Yung Cheng ChangE Min ChouYu Heng Jan
    • Yung Cheng ChangE Min ChouYu Heng Jan
    • H01L31/16G01J5/10
    • H01L31/16H01S5/06825H04B10/503H04B10/564
    • A laser output control method and a laser output control device, including a luminous source in the optical interface of an optical transceiver, a proximity detector configured to detect and capture reflection intensity of a luminous beam from the luminous source, an optical processing circuit electrically connected to the proximity detector and configured to receive and process the reflection intensity, and a microcontroller configured to capture parametric information of the reflection intensity, are disclosed. The microcontroller is also electrically connected to a laser driver, to receive parametric information of the optical processing circuit and to regulate the laser and/or laser driver activity based on the parametric information. The laser output control device may effectively restrict the laser output activity and the total laser output energy, which may prevent exposing human eyes to relatively strong laser energy and enhance the security of laser usage and protection for the human body.
    • 一种激光输出控制方法和激光输出控制装置,包括光收发器的光接口中的光源,被配置为检测并捕获来自光源的发光束的反射强度的接近检测器,电连接的光学处理电路 并且被配置为接收和处理反射强度,以及被配置为捕获反射强度的参数信息的微控制器。 微控制器还电连接到激光驱动器,以接收光学处理电路的参数信息,并且基于参数信息来调节激光和/或激光驱动器的活动。 激光输出控制装置可以有效地限制激光输出活动和总的激光输出能量,这可以防止人眼暴露于相对较强的激光能量,并增强对人体的激光使用和保护的安全性。
    • 2. 发明申请
    • Apparatus and Methods for Controlling a Laser Output and Improving Laser Safety Using a Proximity Sensor
    • 使用接近传感器控制激光输出和改善激光安全的装置和方法
    • US20130168551A1
    • 2013-07-04
    • US13408303
    • 2012-02-29
    • Yung Cheng CHANGE. Min ChouYu Heng Jan
    • Yung Cheng CHANGE. Min ChouYu Heng Jan
    • H01L31/14G01J5/10H01L31/16
    • H01L31/16H01S5/06825H04B10/503H04B10/564
    • A laser output control method and a laser output control device, including a luminous source in the optical interface of an optical transceiver, a proximity detector configured to detect and capture reflection intensity of a luminous beam from the luminous source, an optical processing circuit electrically connected to the proximity detector and configured to receive and process the reflection intensity, and a microcontroller configured to capture parametric information of the reflection intensity, are disclosed. The microcontroller is also electrically connected to a laser driver, to receive parametric information of the optical processing circuit and to regulate the laser and/or laser driver activity based on the parametric information. The laser output control device may effectively restrict the laser output activity and the total laser output energy, which may prevent exposing human eyes to relatively strong laser energy and enhance the security of laser usage and protection for the human body.
    • 一种激光输出控制方法和激光输出控制装置,包括在光收发器的光学接口中的光源,被配置为检测并捕获来自光源的发光束的反射强度的接近检测器,电连接的光学处理电路 并且被配置为接收和处理反射强度,以及被配置为捕获反射强度的参数信息的微控制器。 微控制器还电连接到激光驱动器,以接收光学处理电路的参数信息,并且基于参数信息来调节激光和/或激光驱动器的活动。 激光输出控制装置可以有效地限制激光输出活动和总的激光输出能量,这可以防止人眼暴露于相对较强的激光能量,并增强对人体的激光使用和保护的安全性。
    • 4. 发明申请
    • VIRTUAL MASK SYSTEM AND METHOD FOR OPERATING THE SAME
    • 虚拟遮罩系统及其操作方法
    • US20110193951A1
    • 2011-08-11
    • US13009513
    • 2011-01-19
    • YUNG CHENG CHANGE MIN CHOUYU HENG JAN
    • YUNG CHENG CHANGE MIN CHOUYU HENG JAN
    • H04N7/18G09G5/00
    • G02B21/0016G02B21/365G02B27/62
    • A virtual mask system includes a stage configured to retain an object, an image-capturing device configured to capture the image of the field of view of the microscope, and a processing module configured to generate a virtual mask and superimpose the virtual mask with the image of the object. In one embodiment of the present invention, a method for operating a virtual mask system includes the steps of generating a virtual mask, placing a first object on a stage, capturing at least one image of the first object, and superimposing the virtual mask with the image of the first object by adjusting a position or an inclined angle of the stage or adjusting a capturing position of an image-capturing device by considering at least the virtual mask and the image of the first object.
    • 虚拟掩模系统包括被配置为保持对象的台,被配置为捕获显微镜的视场的图像的图像捕获装置,以及配置为生成虚拟掩码并且将虚拟掩模与图像重叠的处理模块 的对象。 在本发明的一个实施例中,一种用于操作虚拟掩模系统的方法包括以下步骤:产生虚拟掩码,将第一物体放置在平台上,捕获第一物体的至少一个图像,以及将虚拟掩模与 通过考虑至少虚拟掩模和第一物体的图像,通过调整舞台的位置或倾斜角度或调整图像拍摄装置的拍摄位置来调整第一物体的图像。
    • 5. 发明授权
    • Alignment system and method for operating the same
    • 对准系统及其操作方法
    • US08860799B2
    • 2014-10-14
    • US13009513
    • 2011-01-19
    • Yung Cheng ChangE Min ChouYu Heng Jan
    • Yung Cheng ChangE Min ChouYu Heng Jan
    • H04N7/18G02B21/00G02B27/62G02B21/36
    • G02B21/0016G02B21/365G02B27/62
    • An alignment system includes a stage configured to retain an object, an image-capturing device configured to capture the image of the field of view of the microscope, and a processing module configured to generate a virtual mask and superimpose the virtual mask with the image of the object. In one embodiment of the present invention, a method for operating a virtual mask system includes the steps of generating a virtual mask, placing a first object on a stage, capturing at least one image of the first object, and superimposing the virtual mask with the image of the first object by adjusting a position or an inclined angle of the stage or adjusting a capturing position of an image-capturing device by considering at least the virtual mask and the image of the first object.
    • 对准系统包括被配置为保持对象的台,被配置为捕获显微镜的视场的图像的图像捕获装置,以及处理模块,被配置为生成虚拟掩码并将虚拟掩码与图像 物体。 在本发明的一个实施例中,一种用于操作虚拟掩模系统的方法包括以下步骤:产生虚拟掩码,将第一物体放置在平台上,捕获第一物体的至少一个图像,以及将虚拟掩模与 通过考虑至少虚拟掩模和第一物体的图像,通过调整舞台的位置或倾斜角度或调整图像拍摄装置的拍摄位置来调整第一物体的图像。
    • 6. 发明授权
    • Actively aligned detectors for optical and optoelectronic arrays
    • 用于光学和光电子阵列的主动对准检测器
    • US09157791B2
    • 2015-10-13
    • US13824165
    • 2013-03-14
    • Mark HeimbuchE-Min Chou
    • Mark HeimbuchE-Min Chou
    • G01J1/04H01L25/00
    • G01J1/0411G01J3/021G01J2003/1217G02B6/29367G02B6/2938G02B6/4204G02B6/4227H01L25/50H01L2924/00H01L2924/0002
    • A multi-channel optical device and method of making the same are disclosed. The optical device includes a plurality of detectors on a detector mounting substrate, and a corresponding plurality of lenses on an interior surface of the optical device. Each detector detects light having a unique center wavelength. Each center wavelength corresponds to a channel of the optical device. Each lens focuses light towards a corresponding detector. Each detector has a location corresponding to a focal point of the light focused by a corresponding lens. The method of making the optical device includes placing lenses on a surface of the optical device housing, transmitting light having a plurality of center wavelengths through the lenses, determining locations on a detector mounting substrate where each light beam is focused by a lens, and placing a detector at each location.
    • 公开了一种多通道光学器件及其制造方法。 光学装置在检测器安装基板上包括多个检测器,以及在光学器件的内表面上的对应的多个透镜。 每个检测器检测具有独特中心波长的光。 每个中心波长对应于光学装置的通道。 每个镜头将光线对准相应的检测器。 每个检测器具有对应于由相应透镜聚焦的光的焦点的位置。 制造光学装置的方法包括将透镜放置在光学装置壳体的表面上,透射通过透镜的具有多个中心波长的光,确定检测器安装基板上的位置,其中每个光束被透镜聚焦,并且放置 每个位置的检测器。
    • 7. 发明申请
    • Actively Aligned Detectors for Optical and Optoelectronic Arrays
    • 光学和光电子阵列的积极对齐检测器
    • US20140263970A1
    • 2014-09-18
    • US13824165
    • 2013-03-14
    • Mark HeimbuchE-Min Chou
    • Mark HeimbuchE-Min Chou
    • G01J1/04H01L25/00
    • G01J1/0411G01J3/021G01J2003/1217G02B6/29367G02B6/2938G02B6/4204G02B6/4227H01L25/50H01L2924/00H01L2924/0002
    • A multi-channel optical device and method of making the same are disclosed. The optical device includes a plurality of detectors on a detector mounting substrate, and a corresponding plurality of lenses on an interior surface of the optical device. Each detector detects light having a unique center wavelength. Each center wavelength corresponds to a channel of the optical device. Each lens focuses light towards a corresponding detector. Each detector has a location corresponding to a focal point of the light focused by a corresponding lens. The method of making the optical device includes placing lenses on a surface of the optical device housing, transmitting light having a plurality of center wavelengths through the lenses, determining locations on a detector mounting substrate where each light beam is focused by a lens, and placing a detector at each location.
    • 公开了一种多通道光学器件及其制造方法。 光学装置在检测器安装基板上包括多个检测器,以及在光学器件的内表面上的对应的多个透镜。 每个检测器检测具有独特中心波长的光。 每个中心波长对应于光学装置的通道。 每个镜头将光线对准相应的检测器。 每个检测器具有对应于由相应透镜聚焦的光的焦点的位置。 制造光学装置的方法包括将透镜放置在光学装置壳体的表面上,透射通过透镜的具有多个中心波长的光,确定检测器安装基板上的位置,其中每个光束被透镜聚焦,并且放置 每个位置的检测器。