SigUNet
SigUNet applies convolutional neural networks to recognize signal peptides and predict protein sorting and localization for proteomics studies.
Key Features:
- Deep Learning Architecture: Employs a convolutional neural network without fully connected layers and applies semantic segmentation principles inspired by computer vision.
- Performance and Accuracy: Outperforms existing signal peptide predictors on eukaryotic datasets, yielding higher accuracy in signal peptide prediction.
- Model Reduction and Data Augmentation: Incorporates model reduction and data augmentation strategies to enhance predictive power, particularly for bacterial data.
- Cross-Domain Adaptation: Adopts advanced neural network designs from computer vision for application to signal peptide recognition in bioinformatics.
Scientific Applications:
- Signal peptide prediction (proteomics): Accurate prediction of signal peptides to support proteomics analyses.
- Protein sorting and localization studies: Prediction results facilitate studies of protein targeting and cellular localization.
- Eukaryotic and bacterial sequence analysis: Applicable to both eukaryotic and bacterial signal peptide prediction, with specific strategies for bacterial data.
- Functional inference: Improved signal peptide recognition aids in elucidating protein functions and interactions within cells.
Methodology:
Uses a convolutional neural network architecture without fully connected layers applying semantic segmentation principles, together with model reduction and data augmentation techniques inspired by computer vision.
Topics
Details
- Programming Languages:
- Python
- Added:
- 1/14/2020
- Last Updated:
- 12/20/2020
Operations
Publications
Wu J, Liu Y, Chang DT. SigUNet: signal peptide recognition based on semantic segmentation. BMC Bioinformatics. 2019;20(S24). doi:10.1186/s12859-019-3245-z. PMID:31861981. PMCID:PMC6923836.