title: Drug Discovery Pipeline
emoji: π
colorFrom: purple
colorTo: green
sdk: docker
pinned: false
license: mit
short_description: AI-Powered Drug Discovery Pipeline Demo
π¬ AI-Powered Drug Discovery Pipeline
An interactive demonstration of how artificial intelligence and computational tools can accelerate the drug discovery process from target identification to post-market surveillance.
π Try Live Demo β’ π Documentation β’ π οΈ Installation β’ π€ Contribute
π― Overview
This comprehensive application integrates the four major phases of pharmaceutical drug development into a single, interactive web interface. Built with cutting-edge AI and computational biology tools, it demonstrates how modern technology can accelerate and optimize the traditionally lengthy drug discovery process.
π Pipeline Phases
π― Phase 1
|
π§ͺ Phase 2
|
π¬ Phase 3
|
π Phase 4
|
β¨ Key Features
π― Phase 1: Discovery & Target Identification
- 𧬠Protein Structure Fetching - Retrieve 3D structures from PDB database
- π FASTA Sequence Analysis - Fetch and analyze protein sequences from NCBI
- π Interactive 3D Visualization - Explore protein structures with py3Dmol
- βοΈ Molecular Property Calculation - Compute physicochemical properties using RDKit
- π Drug-Likeness Assessment - Evaluate compounds using Lipinski's Rule of Five
- π Properties Dashboard - Visualize molecular properties with interactive plots
π§ͺ Phase 2: Lead Generation & Optimization
- π― Virtual Screening Simulation - Rank compounds by predicted binding affinity
- π ADMET Prediction - Assess Absorption, Distribution, Metabolism, Excretion, and Toxicity
- π¬ 2D/3D Molecular Visualization - Interactive molecule viewers with dark theme
- π Protein-Ligand Interaction - Visualize binding sites and molecular interactions
- π Lead Compound Analysis - Analyze drugs like Oseltamivir, Zanamivir, Aspirin, and Ibuprofen
π¬ Phase 3: Preclinical Development
- π Comprehensive Property Analysis - Extended molecular descriptor calculations
- π€ AI-Powered Toxicity Prediction - Machine learning model for toxicity risk assessment
- 𧬠Advanced Compound Profiling - Analysis of clinical candidates including Remdesivir and Penicillin G
- π¨ 3D Molecular Gallery - Interactive visualization of compound libraries
π Phase 4: Implementation & Post-Market
- π Regulatory Documentation - AI/ML model documentation templates for FDA submission
- β οΈ Pharmacovigilance Simulation - Real-world data analysis for adverse event detection
- π‘οΈ Ethical Framework - Guidelines for responsible AI in healthcare
- π Adverse Event Analysis - Statistical analysis and visualization of safety data
π οΈ Technical Stack
Core Technologies
Category | Technologies |
---|---|
π₯οΈ Framework | |
π§ͺ Cheminformatics | |
𧬠Bioinformatics | |
π¨ Visualization | |
π€ Machine Learning |
Data Sources
Source | Description |
---|---|
ποΈ PDB | Protein Data Bank - 3D protein structures |
𧬠NCBI | Protein sequences and biological data |
π ChEMBL | Bioactivity database (referenced) |
π Installation & Usage
π Quick Start - Hugging Face Spaces
The easiest way to explore the pipeline:
π https://huggingface.co/spaces/alidenewade/drug-discovery-pipeline
No installation required! Simply click the link above to start exploring.
π» Local Development
Prerequisites
- Python 3.8 or higher
- Git
Setup
# π₯ Clone the repository
git clone <repository-url>
cd drug-discovery-pipeline
# π§ Create virtual environment (recommended)
python -m venv venv
source venv/bin/activate # On Windows: venv\Scripts\activate
# π¦ Install dependencies
pip install -r requirements.txt
# π Launch the application
streamlit run app.py
Access the Application
π Local URL: http://localhost:8501
π³ Docker Deployment
Option 1: Quick Run
# πββοΈ Run directly from Docker Hub (if available)
docker run -p 8501:8501 alidenewade/drug-discovery-pipeline
Option 2: Build from Source
# π¨ Build the Docker image
docker build -t drug-discovery-pipeline .
# π Run the container
docker run -p 8501:8501 drug-discovery-pipeline
Docker Compose (Advanced)
# docker-compose.yml
version: '3.8'
services:
drug-discovery:
build: .
ports:
- "8501:8501"
environment:
- STREAMLIT_SERVER_PORT=8501
volumes:
- ./data:/app/data # Optional: for persistent data
# π³ Deploy with Docker Compose
docker-compose up -d
π Dependencies
π¦ Click to view complete requirements.txt
# π₯οΈ Web Framework
streamlit>=1.28.0
# π Data Processing
pandas>=1.5.0
numpy>=1.24.0
# π Visualization
matplotlib>=3.6.0
seaborn>=0.12.0
plotly>=5.15.0
# π Network & APIs
requests>=2.28.0
# πΌοΈ Image Processing
pillow>=9.5.0
# π§ͺ Cheminformatics
rdkit>=2023.3.1
# 𧬠Bioinformatics
biopython>=1.81
# π€ Machine Learning
scikit-learn>=1.3.0
# π¨ 3D Molecular Visualization
py3dmol>=2.0.0
# π§ Utilities
streamlit-option-menu>=0.3.6
streamlit-aggrid>=0.3.4
π― Use Cases & Applications
π Educational | π¬ Research | π Industry |
---|---|---|
Drug discovery training | Proof of concept demos | Pipeline optimization |
Cheminformatics education | Method validation | AI strategy planning |
Bioinformatics learning | Collaborative research | Regulatory compliance |
AI in healthcare | Publication support | Risk assessment |
π Educational Applications
- π University Courses - Pharmaceutical sciences, computational biology
- π©βπ« Training Programs - Professional development in drug discovery
- π Self-Learning - Interactive exploration of drug development concepts
- π― Workshops - Hands-on demonstrations for conferences and seminars
π¬ Research Applications
- π‘ Hypothesis Generation - Explore structure-activity relationships
- π§ͺ Method Development - Test computational approaches
- π Data Visualization - Create publication-ready figures
- π€ Collaboration - Share analyses with research teams
π¬ Scientific Methodology
𧬠Molecular Analysis Framework
Method | Description | Implementation |
---|---|---|
π Lipinski's Rule of Five | Drug-likeness assessment | RDKit molecular descriptors |
π ADMET Profiling | Pharmacokinetic predictions | Machine learning models |
β οΈ Toxicity Modeling | Safety risk assessment | Ensemble ML algorithms |
π SAR Analysis | Structure-activity relationships | Statistical correlation analysis |
π Data Integration Pipeline
graph LR
A[𧬠Structural Data] --> D[π Integration Engine]
B[π Chemical Data] --> D
C[π Biological Data] --> D
D --> E[π€ AI Analysis]
E --> F[π Results Dashboard]
β οΈ Important Disclaimers
π¨ FOR EDUCATIONAL AND RESEARCH PURPOSES ONLY
β οΈ Limitation | π Details |
---|---|
π Educational Tool | Demonstration purposes only, not for actual drug development |
π² Simulated Data | Some analyses use simulated data for illustration |
π Regulatory Compliance | Consult regulatory agencies for actual submissions |
π¨ββοΈ Professional Use | Real development requires validated, regulated systems |
π¬ Research Grade | Requires validation for production use |
π€ Contributing
We welcome contributions from the community! Here's how you can help:
π οΈ Development Guidelines
# π΄ Fork the repository
git fork https://github.com/username/drug-discovery-pipeline
# πΏ Create a feature branch
git checkout -b feature/amazing-feature
# π» Make your changes
# ... code changes ...
# β
Test your changes
python -m pytest tests/
# π Commit your changes
git commit -m "Add amazing feature"
# π Push to your branch
git push origin feature/amazing-feature
# π Create a Pull Request
π Contribution Areas
- π Bug Fixes - Fix issues and improve stability
- β¨ New Features - Add new analysis methods or visualizations
- π Documentation - Improve README, add tutorials
- π§ͺ Testing - Expand test coverage
- π¨ UI/UX - Enhance user interface and experience
- β‘ Performance - Optimize for speed and memory usage
π Code Standards
- π Python Style - Follow PEP 8 guidelines
- π Documentation - Add docstrings and comments
- π§ͺ Testing - Include unit tests for new features
- π§ Type Hints - Use type annotations where applicable
π Support & Community
π Issue Type | π Where to Go |
---|---|
π Bug Reports | GitHub Issues (if available) |
π‘ Feature Requests | Hugging Face Discussions |
β Usage Questions | Community Tab on HF Space |
π Documentation | README and inline help |
π License & Citation
π License
This project is licensed under the MIT License - see the LICENSE file for details.
π Citation
If you use this tool in your research or education, please cite:
@software{drug_discovery_pipeline_2024,
title={AI-Powered Drug Discovery Pipeline},
author={alidenewade},
year={2024},
url={https://huggingface.co/spaces/alidenewade/drug-discovery-pipeline},
note={Interactive demonstration of AI in pharmaceutical development}
}
π Acknowledgments
Built with β€οΈ by the open-source community
ποΈ Organization | π― Contribution |
---|---|
π§ͺ RDKit Community | Excellent cheminformatics tools and algorithms |
ποΈ PDB & NCBI | Open access to biological and structural data |
π₯οΈ Streamlit Team | Intuitive web application framework |
𧬠BioPython | Comprehensive biological computation tools |
π€ Scikit-learn | Machine learning algorithms and utilities |
π¨ py3Dmol | Beautiful 3D molecular visualization |
π¬ Scientific Community | Advancing computational drug discovery |
π Quick Links
π Action | π Link |
---|---|
π Live Demo | Try Now |
π€ Author Profile | alidenewade |
π¬ ORCID | 0009-0007-0069-4646 |
π ResearchGate | Ali Denewade |
π¬ Discussions | Community |
π Analytics | Space Stats |
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