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A deep learning framework for seismic facies classification

We have proposed a deep neural network-based framework for seismic facies classification. We implement two different neural networks based on the architectures of DeepLab v3+ and generative adversarial network for segmentation and compare the mapping results from seismic reflection data to lithologic facies. DeepLab v3+ predictions have sharper boundaries between the predicted facies whereas GAN output has a better continuity of predicted facies. We incorporate uncertainty analysis into the workflow using a Bayesian framework. The proposed approach consisting of joint analysis of predicted facies from multiple networks along with uncertainty in prediction accelerates the interpretation process by reducing the need for human intervention and also lessens individual biases that an interpreter may bring. We determine the effectiveness of the proposed algorithm by testing on field data examples, and we find that the proposed workflow classifies facies accurately. This may potentially enable the development of depositional environment maps in areas of low well density.