Wavefront sensorless modal deformable mirror correction in adaptive optics: optical coherence tomography
Stefano Bonora, Robert J. Zawadzki
Abstract
Stefano Bonora, Robert J. Zawadzki
Abstract
We present a method for optimization of optical coherence tomography images using wavefront sensorless adaptive optics. The method consists of systematic adjustment of the coefficients of a subset of the orthogonal Zernike bases and application of the resulting shapes to a deformable mirror, while optimizing using image sharpness as a merit function. We demonstrate that this technique can compensate for aberrations induced by trial lenses. Measurements of the point spread function before and after compensation demonstrate near diffraction limit imaging.
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We present a method for optimization of optical coherence tomography images using wavefront sensorless adaptive optics. The method consists of systematic adjustment of the coefficients of a subset of the orthogonal Zernike bases and application of the resulting shapes to a deformable mirror, while optimizing using image sharpness as a merit function. We demonstrate that this technique can compensate for aberrations induced by trial lenses. Measurements of the point spread function before and after compensation demonstrate near diffraction limit imaging.
Key concepts: Zernike polynomials, Optics, Adaptive optics, Wavefront, Deformable mirror, Point spread function, Physics, Optical coherence tomography