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Created 7 months ago · Last pushed 7 months ago
Metadata Files
Readme License Citation

README.md

HeartMAP: Heart Multi-chamber Analysis Platform

PyPI version License Python 3.8+ CI Status DOI

A production-ready Python package for comprehensive single-cell heart analysis with chamber-specific insights

🫀 Package Overview

HeartMAP is a specialized bioinformatics package that decodes cellular communication across all four chambers of the human heart. Unlike general single-cell tools, HeartMAP is purpose-built for cardiac biology, offering chamber-specific insights crucial for understanding heart function, disease, and therapeutic opportunities.

✨ Key Features: - 🔧 Production Ready: Fully tested, documented, and deployed on PyPI - 🚀 Multiple Interfaces: CLI, Python API, REST API, and Web interface
- 📦 Easy Installation: pip install heartmap - ⚙️ Configurable: Works on 8GB+ RAM with memory optimization - 🧪 Validated: Tested on real human heart datasets - 📊 Comprehensive: From basic QC to advanced communication analysis

📦 Quick Installation

```bash

Install from PyPI

pip install heartmap

Install with all features

pip install heartmap[all]

Verify installation

python -c "import heartmap; print('✅ HeartMAP ready!')" ```

🚀 Quick Start

30-Second Analysis

```bash

Analyze your heart data with one command

heartmap yourheartdata.h5ad ```

2-Minute Python Analysis

```python from heartmap import Config from heartmap.pipelines import ComprehensivePipeline

Quick analysis

config = Config.default() pipeline = ComprehensivePipeline(config) results = pipeline.run('your_data.h5ad', 'results/')

print("✅ Analysis complete! Check 'results/' directory.") ```

📚 Documentation

| Document | Description | Use When | |----------|-------------|----------| | 📖 User Guide | Complete step-by-step tutorials | Learning HeartMAP | | 🔧 API Documentation | Full API reference | Programming with HeartMAP | | 📦 Package README | Package-specific documentation | Installing/using the package | | 📝 Original README | Development documentation | Contributing to HeartMAP |

🔬 What HeartMAP Can Do

Analysis Pipelines

| Pipeline | Purpose | Output | Runtime | |----------|---------|---------|---------| | Basic | Quality control, cell typing | Cell annotations, QC metrics | 5-10 min | | Communication | Cell-cell interactions | Communication networks, hubs | 10-15 min | | Multi-Chamber | Chamber-specific analysis | Chamber markers, comparisons | 15-20 min | | Comprehensive | Complete analysis | All of the above + reports | 20-30 min |

Real-World Applications

```python

Clinical Research: Chamber-specific targets

from heartmap.pipelines import MultiChamberPipeline pipeline = MultiChamberPipeline(config) results = pipeline.run('patientdata.h5ad') lvtargets = results['chamber_markers']['LV']

Drug Discovery: Communication pathways

from heartmap.pipelines import AdvancedCommunicationPipeline
pipeline = AdvancedCommunicationPipeline(config) results = pipeline.run('diseasedata.h5ad') drugtargets = results['communication_hubs']

Education: Comparative analysis

results1 = pipeline.run('healthyheart.h5ad') results2 = pipeline.run('diseasedheart.h5ad') ```

⚡ Performance

| Hardware | Dataset Size | Memory | Runtime | Status | |----------|-------------|--------|---------|---------| | 8GB RAM | 30K cells | ~6GB | 15 min | ✅ Recommended | | 16GB RAM | 50K cells | ~12GB | 25 min | ✅ Optimal | | 32GB RAM | 100K cells | ~24GB | 45 min | ✅ Production |

🛠️ Development

For Contributors

```bash

Development setup

git clone https://github.com/Tumo505/HeartMap.git cd HeartMap pip install -e .[dev]

Run tests

python -m pytest tests/ python -m flake8 src/heartmap/ python -m mypy src/heartmap/ ```

For Package Users

The package is production-ready and maintained. See the User Guide for complete usage instructions.

📊 Scientific Impact

  • 🏥 Clinical: Chamber-specific therapeutic strategies
  • 🔬 Research: First comprehensive multi-chamber communication atlas
  • 📚 Education: Accessible cardiac biology analysis platform
  • 🏭 Industry: Production-ready bioinformatics tool

🎯 Use Cases

  • Pharmaceutical Research: Drug target discovery, safety assessment
  • Clinical Cardiology: Precision medicine, disease mechanisms
  • Basic Research: Cardiac development, evolutionary biology
  • Computational Biology: Method benchmarking, data integration

📋 Requirements

  • Python: 3.8+ (tested on 3.8-3.11)
  • Memory: 8GB+ RAM (configurable)
  • Storage: 2GB+ for package and results
  • OS: Linux, macOS, Windows

🤝 Contributing

We welcome contributions! See our development documentation for details.

📖 Citation

bibtex @software{heartmap2025, title={HeartMAP: Heart Multi-chamber Analysis Platform}, author={Kgabeng, Tumo and Wang, Lulu and Ngwangwa, Harry and Pandelani, Thanyani}, year={2025}, url={https://github.com/Tumo505/HeartMap}, version={1.0.0} }

📄 License

Apache 2.0 License - see LICENSE for details.

🆘 Support


🎉 HeartMAP: Production-ready cardiac single-cell analysis for researchers worldwide 🫀✨

Install today: pip install heartmap

Supporting Files

├── scripts/ # Setup and utility scripts │ ├── setup.sh # Automated environment setup │ ├── validate.py # Installation validation │ ├── migrate.py # Legacy code migration │ └── deploy_huggingface.sh # HuggingFace deployment ├── tests/ # Comprehensive test suite ├── notebooks/ # Jupyter notebook examples ├── config.yaml # Default configuration ├── setup.py # Package installation ├── Dockerfile # Container deployment ├── docker-compose.yml # Multi-service orchestration └── app.py # Gradio web interface

🚀 Quick Start

Option 1: Automated Setup (Recommended)

```bash

Clone the repository

git clone https://github.com/Tumo505/HeartMap.git cd HeartMap

Run automated setup script

./scripts/setup.sh

Activate the environment

source heartmap_env/bin/activate # Linux/Mac

OR: heartmap_env\Scripts\activate # Windows

Validate installation

python scripts/validate.py

Start analyzing!

heartmap data/raw/your_data.h5ad --analysis-type comprehensive ```

Option 2: Manual Installation

```bash

Create virtual environment

python3 -m venv heartmapenv source heartmapenv/bin/activate

Install dependencies

pip install -r requirements-dev.txt

Install HeartMAP in development mode

pip install -e .[all]

Validate installation

python scripts/validate.py ```

Option 3: Package Installation

```bash

Install from PyPI (when available)

pip install heartmap[all]

Or install specific features

pip install heartmap[communication] # Communication analysis only pip install heartmap[api] # API features only ```

📊 Usage Examples

1. Command Line Interface

```bash

Basic analysis

heartmap data/raw/heart_data.h5ad

Comprehensive analysis with custom output

heartmap data/raw/heartdata.h5ad \ --analysis-type comprehensive \ --output-dir results/comprehensive \ --config myconfig.yaml

Specific analysis types

heartmap data/raw/heartdata.h5ad --analysis-type annotation heartmap data/raw/heartdata.h5ad --analysis-type communication
heartmap data/raw/heart_data.h5ad --analysis-type multi-chamber

Memory-optimized for large datasets

heartmap data/raw/largedataset.h5ad \ --analysis-type comprehensive \ --config configlarge.yaml ```

2. Python API

```python from heartmap import Config, HeartMapModel from heartmap.pipelines import ComprehensivePipeline

Load and customize configuration

config = Config.fromyaml('config.yaml') config.data.maxcellssubset = 50000 # Optimize for your memory config.data.maxgenes_subset = 5000

Option A: Use full HeartMAP model

model = HeartMapModel(config) results = model.analyze('data/raw/heart_data.h5ad')

Option B: Use specific pipeline

pipeline = ComprehensivePipeline(config) results = pipeline.run('data/raw/heart_data.h5ad', 'results/')

Save model for reuse

model.save('models/myheartmapmodel')

Load and reuse saved model

loadedmodel = HeartMapModel.load('models/myheartmapmodel') newresults = loadedmodel.predict(newdata) ```

3. REST API

```bash

Start API server

python scripts/runapiserver.py

Server available at http://localhost:8000

API docs at http://localhost:8000/docs

Use the API

curl -X POST "http://localhost:8000/analyze" \ -H "Content-Type: multipart/form-data" \ -F "file=@data/raw/heartdata.h5ad" \ -F "analysistype=comprehensive"

Check available models

curl http://localhost:8000/models

Update configuration

curl -X POST "http://localhost:8000/config" \ -H "Content-Type: application/json" \ -d '{"data": {"maxcellssubset": 30000}}' ```

4. Web Interface (Gradio)

```bash

Start web interface

python app.py

Access at http://localhost:7860

Features:

- Upload .h5ad files

- Select analysis type

- Configure memory settings

- Download results

```

5. Jupyter Notebooks

```bash

Install Jupyter

pip install jupyter

Start notebook server

jupyter lab

Open example notebooks:

- notebooks/01basicanalysis.ipynb

- notebooks/02advancedcommunication.ipynb

- notebooks/03multichamber_analysis.ipynb

- notebooks/04comprehensiveanalysis.ipynb

```

⚙️ Configuration

HeartMAP uses YAML configuration files for easy customization:

```yaml

config.yaml or my_config.yaml

data: mingenes: 200 mincells: 3 maxcellssubset: 50000 # Adjust based on your RAM maxgenessubset: 5000 # Reduce for faster analysis targetsum: 10000.0 ntopgenes: 2000 randomseed: 42 test_mode: false # Set true for quick testing

analysis: ncomponentspca: 50 nneighbors: 10 npcs: 40 resolution: 0.5 nmarkergenes: 25 useleiden: true useliana: true # Cell-cell communication

model: modeltype: "comprehensive" saveintermediate: true usegpu: false # Set true if GPU available batchsize: null maxmemorygb: null # Auto-detect memory

paths: datadir: "data" rawdatadir: "data/raw" processeddatadir: "data/processed" resultsdir: "results" figuresdir: "figures" modelsdir: "models" ```

Memory Optimization Guidelines

| System RAM | maxcellssubset | maxgenessubset | Use Case | |------------|------------------|------------------|----------| | 8GB | 10,000 | 2,000 | Laptop/Desktop | | 16GB | 30,000 | 4,000 | Workstation | | 32GB | 50,000 | 5,000 | Server | | 64GB+ | 100,000+ | 10,000+ | HPC/Cloud |

🔬 Analysis Components

1. Basic Pipeline

  • Data Preprocessing: Quality control, normalization, scaling
  • Cell Type Annotation: Clustering and cell type identification
  • Basic Visualization: UMAP, t-SNE, cluster plots
  • Quality Metrics: Cell and gene filtering statistics

2. Advanced Communication Analysis

  • Cell-Cell Communication: Ligand-receptor interaction analysis
  • Communication Hubs: Identification of key signaling cells
  • Pathway Enrichment: Cardiac development and disease pathways
  • Network Analysis: Communication network topology

3. Multi-Chamber Atlas

  • Chamber-Specific Analysis: RA, RV, LA, LV specific patterns
  • Marker Identification: Chamber-specific biomarkers
  • Cross-Chamber Correlations: Inter-chamber relationship analysis
  • Comparative Analysis: Chamber-to-chamber differences

4. Comprehensive Pipeline

  • Integrated Analysis: All components combined
  • Advanced Visualizations: Multi-panel figures and dashboards
  • Comprehensive Reports: Automated result summaries
  • Model Persistence: Save complete analysis state

🚀 Deployment Guide

Local Development Setup

Prerequisites

  • Python 3.8+ (recommended: Python 3.10)
  • Git
  • Docker (optional, for containerized deployment)
  • 8GB+ RAM (16GB+ recommended for larger datasets)

Quick Setup

```bash

Clone and setup environment

git clone https://github.com/Tumo505/HeartMap.git cd HeartMap

Create virtual environment

python -m venv heartmapenv source heartmapenv/bin/activate # On Windows: heartmap_env\Scripts\activate

Install dependencies

pip install --upgrade pip pip install -r requirements-dev.txt pip install -e .[all]

Configure the platform

cp config.yaml my_config.yaml

Edit my_config.yaml to match your system resources

Test installation

python scripts/validate.py python scripts/run_examples.py ```

Docker Deployment

```bash

Single service

docker build -t heartmap . docker run -p 8000:8000 -v $(pwd)/data:/app/data heartmap

Multi-service with docker-compose

docker-compose up

Services:

- API server: http://localhost:8000

- Gradio interface: http://localhost:7860

- Worker processes for batch analysis

```

Hugging Face Spaces Deployment

```bash

Prepare deployment files

./scripts/deploy_huggingface.sh

Upload to your Hugging Face Space:

1. Create new Space at https://huggingface.co/new-space

2. Choose Gradio SDK

3. Upload generated files:

- app.py (Gradio interface)

- requirements.txt (Dependencies)

- src/ (Source code)

- config.yaml (Configuration)

```

Cloud Platforms

AWS Deployment

```bash

ECS deployment

docker build -t heartmap . aws ecr get-login-password --region us-east-1 | docker login --username AWS --password-stdin $ECRURI docker tag heartmap:latest $ECRURI/heartmap:latest docker push $ECR_URI/heartmap:latest

Lambda deployment for serverless

sam build sam deploy --guided ```

Google Cloud Platform

```bash

Cloud Run deployment

gcloud builds submit --tag gcr.io/$PROJECTID/heartmap gcloud run deploy --image gcr.io/$PROJECTID/heartmap --platform managed ```

Azure

```bash

Container Instances

az container create --resource-group myResourceGroup \ --name heartmap --image myregistry.azurecr.io/heartmap:latest ```

📊 Scientific Results

Chamber Distribution

  • RA (Right Atrium): 28.4% of cells
  • LV (Left Ventricle): 27.0% of cells
  • LA (Left Atrium): 26.4% of cells
  • RV (Right Ventricle): 18.2% of cells

Chamber-Specific Markers

  • RA: NPPA, MIR100HG, MYL7, MYL4, PDE4D
  • RV: NEAT1, MYH7, FHL2, C15orf41, PCDH7
  • LA: NPPA, ELN, MYL7, EBF2, RORA
  • LV: CD36, LINC00486, FHL2, RP11-532N4.2, MYH7

Cross-Chamber Correlations

  • RV vs LV: r = 0.985 (highest correlation)
  • RA vs LA: r = 0.960
  • LA vs LV: r = 0.870 (lowest correlation)

🧪 Testing & Validation

Run Tests

```bash

Full test suite

python tests/test_heartmap.py

Validation suite

python scripts/validate.py

Example analysis with mock data

python scripts/demo.py ```

Performance Benchmarks

| Dataset Size | Memory Usage | Processing Time | Output | |-------------|--------------|-----------------|--------| | 10K cells | 2GB RAM | 5 minutes | Complete analysis | | 50K cells | 8GB RAM | 15 minutes | Complete analysis | | 100K cells | 16GB RAM | 30 minutes | Complete analysis |

🎯 Use Cases

Research Applications

  • Interactive Analysis: Jupyter notebooks for exploration
  • Batch Processing: Command-line analysis of multiple datasets
  • Pipeline Integration: Python API for custom workflows
  • Collaborative Research: Shared configurations and models

Production Applications

  • Web Services: REST API for applications
  • Public Access: Hugging Face Spaces for community use
  • Microservices: Containerized deployment in cloud
  • High-Throughput: Scalable analysis for large cohorts

Educational Use

  • Teaching Platform: Web interface for students
  • Reproducible Science: Containerized environments
  • Method Comparison: Multiple analysis approaches
  • Best Practices: Clean, documented codebase

🔒 Data Integrity & Reproducibility

SHA-256 Checksums

  • Purpose: Ensure data file integrity during storage/transfer
  • Implementation: Automatic verification before analysis
  • Usage: python utils/sha256_checksum.py verify data/raw data/raw/checksums.txt

Fixed Random Seeds

  • Purpose: Ensure reproducible results across runs
  • Implementation: Fixed seeds in all stochastic processes
  • Scope: Random sampling, clustering, mock data generation

Examples of Reproducible Components

  1. Random Sampling: python np.random.seed(42) cell_indices = np.random.choice(adata.n_obs, size=50000, replace=False)

  2. Clustering: python kmeans = KMeans(n_clusters=n_clusters, random_state=42)

  3. LIANA Analysis: python li.mt.rank_aggregate.by_sample( adata, groupby=cell_type_col, resource_name='consensus', n_perms=100, seed=42, verbose=True )

🔧 Development & Contributing

Development Setup

```bash

Development setup

git clone https://github.com/Tumo505/HeartMap.git cd HeartMap ./scripts/setup.sh source heartmap_env/bin/activate

Install development dependencies

pip install -e .[dev]

Run tests before committing

python tests/test_heartmap.py python scripts/validate.py

Code quality checks

black src/ tests/ scripts/ # Code formatting flake8 src/ --max-line-length=100 # Linting mypy src/heartmap --ignore-missing-imports # Type checking ```

Adding New Features

  1. New Models: Inherit from BaseModel in src/heartmap/models/
  2. New Pipelines: Inherit from BasePipeline in src/heartmap/pipelines/
  3. API Endpoints: Add to src/heartmap/api/rest.py
  4. Configuration: Extend dataclasses in src/heartmap/config/

Testing Guidelines

```python

Test structure

tests/ ├── testconfig.py # Configuration management ├── testdata.py # Data processing ├── testmodels.py # Analysis models ├── testpipelines.py # Analysis pipelines └── test_api.py # API interfaces ```

🆘 Troubleshooting

Common Issues

Memory Errors

```bash

Reduce dataset size in config

data: maxcellssubset: 10000 maxgenessubset: 2000 ```

Import Errors

```bash

Reinstall with all dependencies

pip install -e .[all]

Check Python path

python -c "import heartmap; print(heartmap.file)" ```

Data Loading Issues

```bash

Verify data format

python -c "import scanpy as sc; print(sc.readh5ad('data/raw/yourfile.h5ad'))"

Check file permissions

ls -la data/raw/ ```

Performance Issues

```bash

Enable test mode for quick validation

test_mode: true # in config.yaml

Use GPU acceleration (if available)

model: use_gpu: true ```

Getting Help

  1. Validation: python scripts/validate.py
  2. Logs: Check logs in results/ directory
  3. Test Mode: Set test_mode: true in configuration
  4. Mock Data: python scripts/demo.py for testing
  5. Documentation: Comprehensive docstrings in source code

📋 Requirements

System Requirements

  • Python: 3.8+ (recommended: 3.10)
  • Memory: 8GB+ recommended (configurable)
  • Storage: 5GB+ for data and results
  • OS: Linux, macOS, Windows

Dependencies

  • Core: scanpy, pandas, numpy, scipy, scikit-learn
  • Visualization: matplotlib, seaborn, plotly
  • Communication: liana, cellphonedb (optional)
  • API: fastapi, uvicorn (optional)
  • Web: gradio (optional)

🎯 Clinical Applications

  • Personalized Medicine: Chamber-specific treatment strategies
  • Drug Development: Chamber-specific therapeutic targets
  • Disease Understanding: Chamber-specific disease mechanisms
  • Biomarker Discovery: Chamber and communication-specific markers

🤝 Contributing

  1. Fork the repository
  2. Create a feature branch: git checkout -b feature-name
  3. Install development dependencies: pip install -e .[dev]
  4. Run tests: python tests/test_heartmap.py
  5. Submit a pull request

📄 License

This project is licensed under the Apache License 2.0 - see the LICENSE file for details.

📖 Citation

bibtex @software{heartmap2025, title={HeartMAP: A Multi-Chamber Spatial Framework for Cardiac Cell-Cell Communication}, author={Kgabeng, Tumo and Wang, Lulu and Ngwangwa, Harry and Pandelani, Thanyani}, year={2024}, url={https://github.com/Tumo505/HeartMap}, version={1.0.0}, doi={10.5281/zenodo.16745118} }

🆘 Support

🎉 Acknowledgments

  • Department of Mechanical, Bioresources and Biomedical Engineering, University of South Africa
  • Department of Engineering, Reykjavik University
  • Single Cell Portal (SCP498) for providing the heart dataset
  • The open-source scientific Python community

🎉 HeartMAP is now production-ready and available for research, deployment, and collaboration!

Whether you're a researcher exploring cardiac biology, a developer building applications, or an educator teaching single-cell analysis, HeartMAP provides the tools and flexibility you need.

Owner

  • Name: Tumo_505
  • Login: Tumo505
  • Kind: user
  • Location: gaborone, botswana
  • Company: @Anton-Tech-BW, @GDSC-BotswanaAccountancyCollege

Software Engineer

Citation (CITATION.cff)

cff-version: 1.2.0
message: "If you use this work, please cite it as below."
title: "HeartMAP: A Multi-Chamber Spatial Framework for Cardiac Cell-Cell Communication"
authors:
  - family-names: Kgabeng
    given-names: Tumo
    affiliation: "Department of Mechanical, Bioresources and Biomedical Engineering, University of South Africa"
    email: 28346416@mylife.unisa.ac.za
    orcid: "https://orcid.org/0009-0006-5826-4289"
  - family-names: Pandelani
    given-names: Thanyani
    affiliation: "Department of Mechanical, Bioresources and Biomedical Engineering, University of South Africa"
    orcid: "https://orcid.org/0000-0003-2107-5194"
  - family-names: Wang
    given-names: Lulu
    affiliation: "Department of Engineering, Reykjavik University"
    orcid: "https://orcid.org/0000-0001-7466-9522"
  - family-names: Ngwangwa
    given-names: Harry
    affiliation: "Department of Mechanical, Bioresources and Biomedical Engineering, University of South Africa"
    orcid: "https://orcid.org/0000-0001-5486-8049"
date-released: 2025-07-19
version: "1.0.0"
license: Apache-2.0
repository-code: "https://github.com/Tumo505/HeartMap.git"
url: "https://github.com/Tumo505/HeartMap.git"
abstract: >
  The human heart is composed of four distinct chambers, each with unique cellular and molecular characteristics. Understanding cell-cell communication within and between these chambers is essential for unraveling cardiac function and disease. Here, we present HeartMAP (Heart Multi-chamber Analysis Platform), a comprehensive spatial framework that integrates single-cell RNA-seq data and advanced computational models to map cardiac cell-cell communication at chamber resolution. Using a dataset of 287,269 cells from healthy human hearts, we identify chamber-specific cell populations, communication networks, and therapeutic targets. Our multi-model approach reveals both shared and unique signaling pathways across chambers, providing a foundation for chamber-specific therapies and precision cardiology.
keywords:
  - cell-cell communication
  - single-cell RNA-seq
  - graph neural networks
  - spatial transcriptomics
  - cardiac regeneration
  - deep learning
  - bioinformatics

GitHub Events

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Last Year
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Packages

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pypi.org: heartmap

Heart Multi-chamber Analysis Platform for single-cell RNA-seq

  • Versions: 1
  • Dependent Packages: 0
  • Dependent Repositories: 0
Rankings
Dependent packages count: 8.7%
Average: 28.9%
Dependent repos count: 49.2%
Maintainers (1)
Last synced: 7 months ago

Dependencies

requirements.txt pypi
  • anndata >=0.8.0
  • cellphonedb >=3.0.0
  • liana >=0.1.0
  • matplotlib >=3.5.0
  • networkx >=2.8.0
  • numpy >=1.21.0
  • omnipath >=1.0.0
  • pandas >=1.5.0
  • plotly >=5.0.0
  • scanpy >=1.9.0
  • scikit-learn >=1.1.0
  • scipy >=1.9.0
  • seaborn >=0.11.0
environment.yml conda
  • anndata >=0.8.0
  • ipython
  • ipywidgets
  • jupyterlab
  • matplotlib >=3.5.0
  • networkx >=2.8.0
  • notebook
  • numpy >=1.21.0
  • pandas >=1.5.0
  • pip
  • plotly >=5.0.0
  • python 3.10.*
  • scanpy >=1.9.0
  • scikit-learn >=1.1.0
  • scipy >=1.9.0
  • seaborn >=0.11.0
  • statsmodels
  • tqdm