One of the significant challenges in seismic interpretation is to accurately delineate subsurface features and quantify the uncertainty of the interpretation results due to the non-unique nature of seismic processing and imaging. Salt interpretation usually has limited resolution and relies upon an interpreter’s experience with a limited set of geological concepts. In seismic interpretation, especially salt interpretation, researchers have focused on improving the accuracy of pixel predictions by developing various neural network architectures, such as Attention U-Net (Oktay et al., 2018), Residual U-Net (Alom et al., 2018), Dense U-Net (Cai et al., 2020), etc. Studying uncertainty quantification of point predictions is important in assessing prediction quality. In this paper, we implemented multi-attributed assisted deep neural network to analyze seismic data for probabilistic interpreting evaporite salt in an exploration area in Mediterranean. In the study area, the newly acquired data express a high degree of complexity and no wells were drilled in this area. Salt tectonics knowledge in the study area is very limited and does not exhibit any know analogues. These factors bring challenges to interpretation. We show that our DL approach proposes a new way to train and predict different evaporite salt structures with good prediction results.