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Black Hole

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Black Hole — applying computational intelligence to a domain-specific scientific or engineering challenge.


Topics: general-relativity · black-hole-physics · computational-astrophysics · deep-learning · neural-networks · physics-simulation · schwarzschild-metric · accretion-disk · event-horizon-simulation · ray-tracing-geodesics

Overview

Black Hole is a domain-specific computational project that combines machine learning, data analysis, or scientific simulation with domain expertise to address a real problem in science or engineering. The project demonstrates that effective AI/ML is not just about algorithms — it requires deep understanding of the domain, the data it generates, and the domain-specific evaluation criteria that determine whether a model is actually useful.

The pipeline covers data acquisition or generation, preprocessing and feature engineering appropriate to the domain, model training and evaluation using domain-standard metrics, and interpretation of results in domain-meaningful terms. All code is structured for reproducibility: random seeds are fixed, data splits are deterministic, and results are logged with all hyperparameters.

Visualisations are designed for the domain audience: not generic accuracy curves, but domain-specific plots that communicate the model's utility in the language of the field.


Motivation

Domain-specific AI applications have higher impact than generic benchmark performance. A model that solves a real scientific measurement problem or engineering decision task creates value that transcends its accuracy score. This project was built to demonstrate that combination of domain knowledge and ML can produce practically useful results.


Architecture

Domain Data Input
        │
  Domain-specific preprocessing
        │
  ML / Computational Model
        │
  Domain-specific evaluation
        │
  Interpretable output + visualisation

Features

Domain-Specific Data Pipeline

Data loading, cleaning, and preprocessing tailored to the specific format and conventions of the domain dataset.

Feature Engineering

Domain-informed feature construction that encodes relevant physical, biological, or engineering prior knowledge.

ML Model

Trained predictive or classification model with domain-appropriate evaluation metrics.

Domain Visualisations

Result visualisations that communicate findings in the language of the domain, not just generic ML plots.

Reproducibility

Fixed seeds, deterministic data splits, and logged hyperparameters for reproducible results.

Batch Processing

Command-line batch mode for processing multiple domain data samples.

Export

Results exportable in domain-standard formats for use in further analysis tools.

Documentation

Inline code documentation explaining the domain context for each processing step.


Tech Stack

Library / Tool Role Why This Choice
Python Primary language Scientific Python ecosystem
NumPy / SciPy Numerical computing Array operations, scientific functions
pandas Data management Tabular data handling
Matplotlib / Plotly Visualisation Domain-specific plots
scikit-learn / PyTorch ML model Classification or regression

Getting Started

Prerequisites

  • Python 3.9+ (or Node.js 18+ for TypeScript/JS projects)
  • pip or npm package manager
  • Relevant API keys (see Configuration section)

Installation

git clone https://github.com/Devanik21/Black-hole.git
cd Black-hole
pip install -r requirements.txt
python main.py

Usage

python main.py --input data.csv --output results/

# Or launch interactive interface
streamlit run app.py

Configuration

Variable Default Description
INPUT_PATH data/ Input data directory
OUTPUT_PATH results/ Output directory for results
MODEL_PATH model.pkl Trained model path

Copy .env.example to .env and populate all required values before running.


Project Structure

Black-hole/
├── README.md
└── ...

Roadmap

  • Integration with domain-specific data APIs for live data ingestion
  • Advanced model architectures (GNN, Transformer) for complex domain data
  • Uncertainty quantification for domain-critical predictions
  • Collaborative annotation interface for domain expert feedback
  • Publication-ready figure generation for research reports

Contributing

Contributions, issues, and feature requests are welcome. Please:

  1. Fork the repository
  2. Create a feature branch (git checkout -b feature/your-feature)
  3. Commit your changes (git commit -m 'feat: add your feature')
  4. Push to your branch (git push origin feature/your-feature)
  5. Open a Pull Request

Please follow conventional commit messages and ensure any new code is documented.


Notes

Domain expertise is required to correctly interpret and use these results. Please consult relevant literature and domain experts before applying outputs to real-world decisions.


Author

Devanik Debnath
B.Tech, Electronics & Communication Engineering
National Institute of Technology Agartala

GitHub LinkedIn


License

This project is open source and available under the MIT License.


Crafted with curiosity, precision, and a belief that good software is worth building well.

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Computational astrophysics simulation — Schwarzschild/Kerr metric photon orbit tracing, gravitational lensing raytracer, and Doppler-shifted accretion disc emission rendering.

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