Microlens array method based on spherical surface, and optical system for camera shooting
A micro-lens array and micro-lens technology is applied in the field of photoelectric reconnaissance to achieve the effect of improving the utilization rate of light energy, reducing losses and reducing the difficulty of design.
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Embodiment 2
[0116] This embodiment is a drawing method, that is, using a three-dimensional design software, preferably NX software, to establish a body with a spherical surface 1 of r=250mm.
[0117] In NX, execute the operation steps of Embodiment 1. Capture the three-dimensional coordinate values of the center positions of each microlens 2 set on the spherical surface 1 on the digital model, and provide reference for the actual layout of each microlens 2 .
Embodiment 3
[0119] Such as image 3 Shown: the array of microlenses 2 is arranged by the method of the present invention to form a relay microlens array 4 . An optical system for imaging, including a main imaging optical system 3, a relay microlens array 4 and a detector array 5, the positional relationship of the three is set by coupling calculation of focusing parameters of each optical element. The detector 6 is a group of circuit boards with CMOS chips arranged at the focal plane of the single microlens array. The microlens array is divided into 30 channels to achieve a 60°×60° field of view.
[0120] The field of view of a single microlens 2 is 16.4°x12.5°, and the effective field of view is 12.5°x10.84°; the relay lens array 4 is an array of 30 microlenses 2, and the base number of the array is 5x6.
[0121] The relay microlens array 4 in the optical system of this embodiment is set using the microlens array method based on spherical arrangement of the present invention. Compared...
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