Physics-driven scattering generalization imaging method and experimental method
An imaging method and a physical technology, applied in neural learning methods, design optimization/simulation, biological neural network models, etc., can solve problems such as limitations, limited recovery effect of scattering target information, limited imaging quality, and long time-consuming target recovery. The effect of expanding the scope of work
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[0040] The present invention is described in further detail now in conjunction with accompanying drawing.
[0041] The physical-driven scattering generalization imaging method of the present invention, as shown in Figure 1(a)-Figure 1(c), specifically includes the following steps:
[0042] Step 1: The physical / data model built, see figure 2 ,
[0043] Step 1.1: Only use the traditional U-Net convolutional neural network structure and weaken the requirements for the network structure. The physical constraint network model consists of an autocorrelation physical constraint layer and a convolutional neural network layer. The physical constraint layer mainly includes speckle The autocorrelation calculation of I(x,y) is adjusted, and the speckle autocorrelation is obtained by the two-dimensional inverse Fourier transform of the energy spectrum
[0044] (3),
[0045] Equation (3) is the main operation of the physical constraint layer, which adjusts and reconstructs the speckle...
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