MTTLmsup6 supA

MTTLmsup6 supA predicts base-resolution N6-methyladenosine (m^6A) sites in mRNA by leveraging multi-task transfer learning with an enhanced transformer-based architecture to integrate low-resolution and base-resolution datasets.


Key Features:

  • Multi-Task Transfer Learning: Integrates low-resolution and base-resolution m^6A site prediction and leverages low-resolution data from RMBase, including Saccharomyces cerevisiae entries.
  • Enhanced Transformer Architecture: Combines convolutional neural network (CNN) layers with a multi-head-attention framework to capture complex RNA sequence patterns.
  • One-Hot Sequence Encoding: Encodes RNA sequences using one-hot encoding as standardized model input.
  • Probability Assignment: Assigns probabilities to predicted sites to indicate prediction confidence.
  • Transfer Learning for Base-Resolution Prediction: Applies transfer learning to extrapolate base-resolution predictions from low-resolution datasets to improve accuracy and generalization.

Scientific Applications:

  • Base-resolution m^6A site prediction: Predicts base-resolution m^6A sites to support studies of gene expression regulation, RNA stability, and other m^6A-related processes.
  • Validation and cross-species performance: Validated on Saccharomyces cerevisiae m^6A data (AUROC 77.13%) and on Homo sapiens m^1A data (AUROC 92.9%), demonstrating cross-species generalization and performance gains over existing models.

Methodology:

RNA sequences are encoded using one-hot encoding, and a multi-task model combining CNNs and multi-head-attention is trained to predict low-resolution and base-resolution m^6A sites using transfer learning to enhance base-resolution accuracy.

Topics

Details

Cost:
Free of charge
Tool Type:
web application
Operating Systems:
Mac, Linux, Windows
Added:
6/17/2024
Last Updated:
11/24/2024

Operations

Publications

Wang H, Zeng W, Huang X, Liu Z, Sun Y, Zhang L. MTTLm<sup>6</sup>A: A multi-task transfer learning approach for base-resolution mRNA m<sup>6</sup>A site prediction based on an improved transformer. Mathematical Biosciences and Engineering. 2023;21(1):272-299. doi:10.3934/mbe.2024013. PMID:38303423.