It is an
adaptive optics system based on the
linear phase inversion recovery technique, comprising the imaging sensor, the
linear phase inversion recovery algorithm, the real-
time control algorithm, the wave-front correction and drive circuit, and the reference
light source. During the
system running, the imaging sensor measures the residual aberration far-field image after the compensation of the wave-front correction device, and subtracting with the benchmark image to obtain the image
difference vector. In advance, using the reference
light source to calibrate the imaging sensor to obtain the benchmark image, and according to the corresponding relations between the wave-front correction device and the imaging sensor, obtaining the
recovery matrix between the image
difference vector and control
voltage. Multiply the image
difference vector and the
recovery matrix to obtain the corresponding control
voltage of the residual wave-front, and use real-
time control algorithms, such as proportional integral, to obtain the control
voltage of the wave-front correction device, making the wave-front aberration to be corrected. Compared the
adaptive optics system based on the
linear phase inversion recovery technique and the conventional adaptive optical technology, it has simple structure, high
optical energy efficiency, and other advantages.