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DeviceAlchemy.ai
AI-Driven Electronic Materials & Device Innovation

Discover better material stacks for next-generation electronics

Science-aware AI predicts optimal hetero-integrated material stacks and explains why they work.

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26+Beta researchers from top
research institutions
<5sAverage prediction
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Why DeviceAlchemy.ai?

Materials discovery, guided by physics — not trial and error

Traditional stack optimization means months of literature review and lab iteration. We compress that into physically-grounded recommendations that narrow your search space and get you to a validated stack faster. Four AI agents work together as a unified AI operating system (OS), from prediction to fabrication.

ALCHEMYLive
Advanced Layered Composition & Heterostructure Engine for Materials DiscoverY

Predicts new stacks

Predicts new candidate materials for your target device stack.

MIRALive
Materials Intelligence & Reasoning Agent

Explains the physics

Science-aware LLM that explains every prediction with references.

PRISMIn development
Property Reasoning & Interoperability for Stack Matching

Validates compatibility

Materials property-aware agent for stack compatibility assessment.

FORGEIn development
Fabrication Orchestration & Recipe Generation Engine

Guides fabrication

Guides synthesis of the new material stack within conventional fab techniques.

Validated by research

Not a black box — published, peer-reviewed predictions

ALCHEMY's prediction model has been applied to real memory device research, resulting in two journal publications.

Case study 1 · SOT MRAM materials

npj Computational Materials 11 (1), 167 (2025)

  • Predicted 97 new materials for SOT MRAM application
  • 16 predicted to exceed the state-of-the-art
  • 2 predictions confirmed with experiments to date
  • Retroactively validated: some known materials could have been predicted 5+ years before their discovery
Journal Impact Factor = 13.1
Case study 2 · MTJ device stacks

Advanced Materials e18241 (2025)

  • Predicted 14 new magnetic tunnel junction (MTJ) stacks
  • 5 predicted to exceed the state-of-the-art
  • Ab-initio simulations confirm these predictions
Journal Impact Factor = 29.1

Disclaimer: The research models used a separate dataset from the live tool at DeviceAlchemy.ai. But all models only use abstract text, not the full article. The live tool uses abstract text from Gold Open Access journals and other open sources with CC BY or similar permissive licenses.

Meet the agent

MIRA — Materials Intelligence & Reasoning Agent

MIRA is a domain-tuned LLM agent that provides physical insight into every ALCHEMY prediction and answers your deepest scientific questions in materials science, condensed matter physics, and electronic devices.

Ask in plain language. Describe your device goals and constraints — no special query syntax required.
Get ranked candidates. MIRA surfaces the most promising material combinations for your stack.
Understand the "why." Every answer includes the underlying physical reasoning, not just a result.
MIRA · SESSION
What's a good barrier layer for a CoFeB/MgO/CoFeB magnetic tunnel junction to reduce boron diffusion?
MIRAA good barrier layer for a CoFeB/MgO/CoFeB magnetic tunnel junction to reduce boron diffusion is Ta. Ta is also a suitable candidate as a capping layer for such structures.
Why does that texture matter for TMR?
How it works

From question to validated stack in three steps

01

Describe your target device

Tell ALCHEMY your device stack, pin known materials, and specify the phenomenon or device operation you care about.

02

ALCHEMY predicts candidate materials

In under 5 seconds, the model ranks new candidates alongside known results for your target stack.

03

MIRA explains the physical reasoning

Ask MIRA why a candidate was ranked highly and get a physics-grounded answer — ready to validate in your own process.

The AI hardware revolution needs advances in materials science

We make that science move faster. Create a free account and start a conversation with MIRA in minutes.