A Semantic Segmentation Method of Multispectral Image Based on Convolutional Neural Network
A convolutional neural network and multi-spectral image technology, which is applied in biological neural network models, image analysis, image enhancement, etc., can solve the problems of loss of computing time, loss of high-resolution image space information, interference image cutting, etc., to achieve The effect of improving precision, improving work efficiency and ensuring precision
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Embodiment 1
[0022] For multispectral images, the bands are first separated according to the wavelength, and then the independent convolution operation is performed on different bands, that is, the convolutional neural network is used to convolve each data channel of the multispectral image independently, and then the feature map after the independent convolution of each data channel is fused (concatenation, summation). When convolving each data channel of a multispectral image independently, different sizes and numbers of convolutional nuclei are selected according to different bands. When convolving each data channel of a multispectral image independently, different convolutional layers are selected according to different bands. When implemented, convolutional neural networks employ U-NET neural networks.
Embodiment 2
[0024] When the multispectral image has a variety of resolutions, in the embodiment of example one using multi-channel independent convolution, the implementation of two using multi-channel independent convolution, multi-resolution input network. as Figure 2 As shown, the U-NET network is transformed into a convolutional neural network that supports multiple resolution inputs. Similar to conventional U-NET networks, the network of the present invention is composed of a scale shrinkage portion and a scale expansion portion, the scale shrinkage portion consists of a classic convolutional network, with the increase of the level of convolution, the image size decreases with the increase in the number of convolutional pooling, and the number of convolutional kernels increases with the increase in the number of pooling. The scale-expanded part is the same as the scale-expanding part of a U-NET network, and for each upsampling step of the scale-expanded part, the scale is tripled and the...
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