AGAPI provides a simple way to interact with AtomGPT.org, enabling Agentic AI materials science research through intuitive APIs.
A significant amount of time in computational materials design is often spent on software installation and setup — a major barrier for newcomers.
AGAPI removes this hurdle by offering APIs for prediction, analysis, and exploration directly through natural language or Python interfaces, lowering entry barriers and accelerating research.
- 🧠 Capabilities & Example Prompts
- 1️⃣ Access Materials Databases
- 2️⃣ Graph Neural Network Property Prediction
- 3️⃣ Graph Neural Network Force Field
- 4️⃣ X-ray Diffraction → Atomic Structure
- 5️⃣ Live arXiv Search
- 6️⃣ Web Search
- 7️⃣ Visualize Atomic Structures
- 8️⃣ General Question Answering
- 9️⃣ Structure Manipulation
- 🔟 Voice Chat Interaction
- 🚀 Quickstart
- 🎥 YouTube Demos
- 📚 References
- ❤️ Note
AGAPI supports natural language interaction for a wide range of materials science tasks.
Each section below includes a prompt example and expected output.
Prompt:
List materials with Ga and As in JARVIS-DFT
Response:
Displays all GaAs-containing entries from the JARVIS-DFT database.
Prompt:
Predict properties of this POSCAR using ALIGNN
(Upload a POSCAR, e.g. example POSCAR file)
Response:
Returns AI-predicted material properties (formation energy, bandgap, etc.).
Prompt:
Optimize structure from uploaded POSCAR file using ALIGNN-FF
(Upload a POSCAR, e.g. example file)
Response:
Generates optimized structure and energy data.
Prompt:
Convert XRD pattern to POSCAR
(Upload an XRD file, e.g. example XRD file)
Response:
Predicts atomic structure that best matches the uploaded diffraction pattern.
Prompt:
Find papers on MgB₂ in arXiv. State how many results you found and show top 10 recent papers.
Response:
Summarizes and lists the latest publications from arXiv related to MgB₂.
Prompt:
Search for recent advances in 2D ferroelectric materials.
Response:
Fetches and summarizes up-to-date information from web sources on the requested topic.
Prompt:
Visualize the crystal structure of Silicon in 3D.
Response:
Generates a 3D interactive visualization of the given structure (CIF or POSCAR).
Prompt:
Explain the difference between DFT and DFTB.
Response:
Provides a concise explanation with context and examples.
Prompt:
Replace oxygen atoms with sulfur in this POSCAR.
Response:
Outputs a modified POSCAR file with requested atomic substitutions.
Prompt (spoken):
What is the bandgap of silicon?
Response (spoken):
The bandgap of silicon is approximately 1.1 eV.
Enables voice-based chat for hands-free interaction with materials science tools.
Try AGAPI instantly in Google Colab:
👉 AGAPI Example Notebook
For detailed SDK usage:
👉 agapi/README.md
Watch AGAPI in action on YouTube:
🎬 AGAPI Demo Playlist
- Choudhary, K. et al., IMMI. 2025.
- Choudhary, K. et al., Comput. Mater. Sci. 2025.
- Choudhary, K. et al., J. Phys. Chem. Lett. 2024.
“AGAPI (ἀγάπη)” is a Greek word meaning unconditional love.
AtomGPT.org can make mistakes. Please verify important information.
We hope this API fosters open, collaborative, and accelerated discovery in materials science.





