Abstract: An imaging system for digital stereo microscope is disclosed, wherein the system comprising two camera units with each camera unit comprises a lens and the two lenses of the two camera units are focused below the respective lens and optical axes of both lenses are arranged to focus at a same point; a main controller configured to provide both sensors with a common trigger signal for outputting image data and a common pixel reference clock signal for each sensor to generate its own pixel clock signal; a synchronous synthesizer for generating synthesized image data with left eye image data located on the left side and the right eye image data located on right side by synchronizing and synthesizing the left eye data and the right eye image data output by the respective sensor; the synthesized image data is compresses and encoded in the main controller to generate RGB image data corresponding to parallel image data; a stereoscopic display convertor for receiving the RGB image data and converting the received RGB

Abstract: An imaging system for digital stereo microscope is disclosed, wherein the system comprising two camera units with each camera unit comprises a lens and the two lenses of the two camera units are focused below the respective lens and optical axes of both lenses are arranged to focus at a same point; a main controller configured to provide both sensors with a common trigger signal for outputting image data and a common pixel reference clock signal for each sensor to generate its own pixel clock signal; a synchronous synthesizer for generating synthesized image data with left eye image data located on the left side and the right eye image data located on right side by synchronizing and synthesizing the left eye data and the right eye image data output by the respective sensor; the synthesized image data is compresses and encoded in the main controller to generate RGB image data corresponding to parallel image data; a stereoscopic display convertor for receiving the RGB image data and converting the received RGB

Abstract: The invention discloses a camera comprises a central processing unit (the processor), at least three infrared sensors connected to respective input port of the processor, and a camera head connected to the processor and is controllable by the processor, a rotation mechanism for mounting the camera head and for pivoting clockwise or counterclockwise under control of the processor, and a power supply for providing power to the above mentioned processor, camera head, infrared sensors and the rotation mechanism. All the infrared sensors are arranged circumferentially on the device and a vision scope of one infrared sensor partially overlaps with a vision scope of an adjacent infrared sensor such that the total vision scope covers 360 degrees. Each infrared sensor defines a shooting orientation, and the partially overlapping area of the vision scopes of adjacent infrared sensors also defines a shooting orientation such that the total shooting orientation is doubled.