Xinrun Wang

AI for Science · DIGA@SMU

Agents that discover materials.
Proofs that make the results trustworthy.

We believe the next phase of AI will be decided not in the service sector but in industry and manufacturing — and that AI for science is the pilot. We build agents and models that read the literature, design alloys, and run simulations on their own, and we are now making every number they produce carry a machine-checked proof.

From Literature to Verified Result

Our projects cover one loop of scientific work: gather what is known, predict and design, simulate, validate in the lab — and, finally, prove that each step of the computation is right.

  1. 01 · Knowledge Read the literature MatVerse · MatSeek
  2. 02 · Design Predict & inverse-design MATAI
  3. 03 · Simulation Run first-principles calculations AutoDFT
  4. 04 · Discovery Close the loop to the lab AutoMAT
  5. 05 · Verification New Prove every link Formal in Silico

NewOur latest progress · Sep 2026

Formal in Silico

Rewriting DFT, molecular dynamics and finite elements with formal methods.

Materials design, drug screening and structural safety assessment rely more and more on numbers produced by simulation. Today every step from equation to floating-point number is vouched for mainly by testing and experience. We want every step to carry a proof anyone can check — Lean 4 and Mathlib for the mathematics, TLA+ and model checking for the parallel software, and a refinement relation between the two.

“A result is only as trustworthy as the weakest link.”

118
claims in the trust ledger
109
machine-proved (T3–T4)
26
end-to-end at tier T4
4
reference codes cross-checked

Tracks DFT FEM MD CALPHAD

Six layers, one proof obligation between each pair
  1. L1Physical modelKohn–Sham, Newton, linear elasticity
  2. Maths · well-posedness
  3. L2Continuous problemvariational form in a function space
  4. Maths · discretisation error
  5. L3Discrete problemmatrices, plane waves, particle coordinates
  6. Maths · algorithmic convergence
  7. L4Abstract algorithmSCF, velocity Verlet, conjugate gradients
  8. TLA+ · refinement
  9. L5Parallel programMPI ranks, threads, GPU streams
  10. Floating point · rounding-error bound
  11. L6Floating-point executionthe number IEEE 754 hardware returns

Autonomous Materials Discovery

Agents and machine learning frameworks that turn design targets into new alloys — with simulations in the loop and experiments as the final judge.

Hierarchical agent framework · 2025

AutoMAT

From ideation to experimental validation without hand-curated datasets: large language models, automated CALPHAD simulations, residual-learning correction, and AI-guided optimization.

+13.0%strength at 8.1% lower density than Ti-185; a high-entropy alloy with 28.2% higher yield strength — alloy discovery from years to weeks
Generalist ML framework · 2025

MATAI

A curated alloy database, multi-task property predictors with physics-informed inductive biases, and constraint-aware inverse design, joined by an iterative AI–experiment feedback loop.

7 iterationsto Ti alloys below 4.45 g/cm³, above 1000 MPa and with over 5% ductility, validated against the commercial TC4
Closed-loop multi-agent · 2026

AutoDFT

LLM reasoning in every stage of a DFT calculation: a strategic planner, a just-in-time step planner, and a monitor–recover–reflect cycle that repairs failures and revises the plan.

94.1%task-level success on VASPBench, 34 tasks across 9 DFT calculation types
Knowledge-driven framework · 2026

MatSeek

An automated knowledge-driven framework for materials research.

ICLR 2026AI4Mat Workshop

Platforms & Resources

Timeline

  1. Sep 2026 Launch of Formal in Silico, a programme to rebuild DFT, MD, and FEM on formal verification.
  2. 2026 AutoDFT released, and MatSeek presented at the AI4Mat Workshop, ICLR 2026.
  3. Nov 2025 MATAI released, a generalist framework for property prediction and inverse design of advanced alloys.
  4. Sep 2025 MatVerse paper collection launched.
  5. Jul 2025 AutoMAT released — our first paper on AI for science.

Papers

Work with us

We are always open to collaborations with materials scientists, physicists, and formal methods researchers, and to students who want to work on AI for science.