NatDRAP
NatDRAP identifies Ras pathway activation from multiomic cancer data by integrating bulk RNA sequencing, copy number variation, and mutation data into a deep neural network optimized with a hybrid artificial bee colony and gradient-based optimization strategy for precision oncology analysis.
Key Features:
- Deep Neural Network (DNN) Model: Integrates bulk RNA sequencing, copy number variations, and mutation data from the PanCanAtlas across 33 cancer types for joint multiomic modeling.
- Nature-Inspired Optimization: Synergizes an artificial bee colony algorithm with gradient-based optimizers to collaboratively optimize DNN parameters.
- Robust Performance: Demonstrates superior performance versus benchmark methods in diagnosing Ras pathway aberrant activity across multiple cancer types.
- Downstream Analysis: Supports gene ontology enrichment and pathological analysis to characterize Ras pathway activation and related molecular mechanisms.
Scientific Applications:
- Precision oncology stratification: Identifies patients with Ras pathway alterations and hidden responders who may benefit from targeted therapies.
- Biomarker discovery: Enables discovery of novel biomarkers and therapeutic targets through integrated analysis of RNA-seq, copy number, and mutation data.
- Cross-cancer characterization: Facilitates comparative analysis of Ras pathway activation across 33 cancer types using PanCanAtlas data.
Methodology:
Integration of bulk RNA sequencing, copy number variation, and mutation data from PanCanAtlas into a deep neural network, with optimization via a hybrid artificial bee colony plus gradient-based optimizers, followed by gene ontology enrichment and pathological analysis.
Topics
Details
- Tool Type:
- command-line tool
- Programming Languages:
- Python
- Added:
- 1/18/2021
- Last Updated:
- 3/8/2021
Operations
Publications
Li X, Li S, Wang Y, Zhang S, Wong K. Identification of pan-cancer Ras pathway activation with deep learning. Briefings in Bioinformatics. 2020;22(4). doi:10.1093/bib/bbaa258. PMID:33126245.