High-frequency response two-dimensional photoelectric auto-collimation method and device based on wavefront correction
A photoelectric self-collimation and wavefront correction technology, which is applied in the direction of optical devices, measuring devices, optics, etc., can solve the problem that it is difficult for autocollimators to achieve nano-arc-level angle measurement, and it is difficult for autocollimators to achieve high-precision angles. Measure and limit the technical indicators of the autocollimator and the use environment to achieve the effect of improving imaging quality and spot positioning accuracy, improving spot imaging quality, and improving spot positioning accuracy
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specific Embodiment 1
[0042] This embodiment is a high-frequency sound two-dimensional photoelectric self-accessed method and apparatus embodiment based on wavefront correction.
[0043] This embodiment is based on high frequency sound two-dimensional photoelectric self-accessed devices, structural diagrams such as wavefront, respectively. image 3 Indicated. The angular measuring device includes a first light source 1-1, a second light source 1-2, a first convex lens 1-3, a second convex lens 1-4, a first splitter 1-5, a second splitter 2, an image sensor 3 , First combined lens 4-1, second combination lens 4-2, planar mirror 5, small hole diaphragm 6, first transduction mirror 7, second transform mirror 8, first two-to-color mirror 9, reference reflection Mirror 10, the second two-to-color mirror 11, the third convex lens 12, the pre-wave sensor 13;
[0044] The light beam emitted by the first light source 1-1 and the beam emitted by the second light source 1-2 after the first splitter 1-5, the two be...
specific Embodiment 2
[0067] This embodiment is a high-frequency sound two-dimensional photoelectric self-accessed method and apparatus embodiment based on wavefront correction.
[0068] The high-frequency ring-based optical self-accepted straight device based on wavefrise correction based on the present embodiment is shown. Figure 4 Indicated. Based on the first embodiment, the second transformation mirror 8 is replaced with a definitive mirror 14 and a deformed mirror driver 15.
[0069] The high-frequency ring-based two-dimensional self-accepted method based on the wavefront response correction of the present embodiment includes the following steps:
[0070] Step A. Secure the planar mirror 5 to the surface of the subject;
[0071] Step b, light two laser light sources 1-1 and 1-2, adjust the position of the measured object and the planar mirror 5, the geometry center of the measured beam spot image received in the image sensor 3 is in the center position of the sensor;
[0072] Step c, the pre-wave...
specific Embodiment 3
[0079] This embodiment is a high-frequency sound two-dimensional photoelectric self-accessed method and apparatus embodiment based on wavefront correction.
[0080] The high-frequency ring-based optical self-accepted straight device based on wavefrise correction based on the present embodiment is shown. Figure 5 Indicated. On the basis of the specific embodiment, the present embodiment adds a spatial light modulator 16 between the first splitter 1-5 and the small hole diaphragm 6, replacing the second transforming mirror 8 as a definitive mirror 14 and a deformed mirror driver. 15.
[0081] The high-frequency ring-based two-dimensional self-accepted method based on the wavefront response correction of the present embodiment includes the following steps:
[0082] Step A. Secure the planar mirror 5 to the surface of the subject;
[0083] Step b, light two laser light sources 1-1 and 1-2, adjust the position of the measured object and the planar mirror 5, the geometry center of the m...
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