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This project is an interdisciplinary initiative aimed at revolutionizing infrastructure maintenance and longevity through the use of self-healing materials.
- π Design: Incorporate self-healing materials into architectural designs.
- π§ͺ Material Science: Research and develop self-healing materials.
- π» Simulation: Use computational models to simulate stress and damage.
- π Data Analysis: Utilize data to optimize the self-healing process.
- π€ Machine Learning: Implement AI to improve self-healing over time.
- π Supply Chain: Manage logistics for sourcing and implementing materials.
- What: Academic papers, lab results, patents.
- Where: PubMed, IEEE Xplore, Google Scholar.
- How: Web scraping or manual collection.
- What: Stress, strain, and environmental condition data.
- Where: Generated from ANSYS, Rhino, and Grasshopper.
- How: Exported in CSV, JSON, or XML formats.
- π ANSYS: For simulations.
- π¦ Rhino & Grasshopper: For design and optimization.
- π Python: For data analysis and machine learning.
This project is under the MIT License. See LICENSE.md for details.
- HealStruct-Material_Science: For storing research papers, summaries, and any code related to material science.
- HealStruct-Structural_Health: Simulated structural health data and analysis for optimizing self-healing materials. ======= <<<<<<< HEAD
Simulated structural health data and analysis for optimizing self-healing materials.
Structural_Health/main =======
For storing academic papers, lab results, patents, and any code related to material science research.
Material_Science/main main