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| # Scandium Labs | |
| **AI Research for Computational Materials Discovery** | |
| Scandium Labs is an independent AI research organization focused on developing machine learning systems for computational materials science. Our work combines graph neural networks, scientific machine learning, and physics-informed artificial intelligence to accelerate the discovery and screening of advanced materials. | |
| Our mission is to reduce the computational cost of materials discovery by building models that complement first-principles simulations and enable scalable exploration of chemical and structural design spaces. | |
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| ## Research Areas | |
| - Physics-Informed Machine Learning | |
| - Graph Neural Networks | |
| - Computational Materials Science | |
| - Crystal Structure Representation Learning | |
| - High-Throughput Materials Screening | |
| - Battery Materials Discovery | |
| - Scientific Machine Learning | |
| - AI for Scientific Discovery | |
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| ## What We Build | |
| Our work includes open research, machine learning models, datasets, and tools for the materials science community. | |
| Current areas of development include: | |
| - Crystal property prediction models | |
| - Physics-constrained graph neural networks | |
| - Materials screening pipelines | |
| - Scientific datasets and benchmarks | |
| - Research software and reproducible training frameworks | |
| As our research progresses, models, datasets, and demonstration Spaces will be released through this organization. | |
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| ## Featured Research | |
| ### PIGNet V2 | |
| **Physics-Informed Graph Neural Networks for High-Throughput Crystalline Material Property Prediction** | |
| PIGNet V2 explores the integration of physical constraints into graph neural networks for predicting electronic and thermodynamic properties directly from crystal structures. | |
| The project investigates multi-task learning for: | |
| - Formation Energy | |
| - Band Gap | |
| - Thermodynamic Stability | |
| The preprint serves as the initial proof of concept for the research direction that underpins Scandium Labs. | |
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| ## Open Science | |
| We believe scientific progress benefits from transparency and reproducibility. | |
| Whenever possible, we aim to release: | |
| - Research papers | |
| - Model checkpoints | |
| - Training code | |
| - Datasets | |
| - Evaluation benchmarks | |
| - Technical documentation | |
| We welcome constructive feedback from researchers, students, and practitioners working in AI and materials science. | |
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| ## Vision | |
| Scandium Labs is building AI systems that assist scientists in discovering the next generation of materials for energy storage, semiconductors, catalysis, and sustainable technologies. | |
| Our long-term objective is to develop reliable, physics-aware machine learning systems that become practical tools for scientific research and industrial materials discovery. | |
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| ## Connect | |
| **Website** | |
| https://scandium-labs.com | |
| **GitHub** | |
| https://github.com/ScandiumLabs-in | |
| **LinkedIn** | |
| https://www.linkedin.com/company/scandium-labs/ | |
| **Email** | |
| team@scandium-labs.com | |
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| ## Founder | |
| **Shamique Khan** | |
| Founder and AI Researcher | |
| Shamique's research focuses on graph neural networks, scientific machine learning, and physics-informed artificial intelligence for computational materials science. His work aims to bridge advances in modern AI with the scientific principles that govern materials discovery. | |
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| *Scandium Labs is an independent research initiative dedicated to advancing artificial intelligence for scientific discovery.* |