The AI research environment
for materials science.

Domain-specialized agents that compress the digital R&D loop from months toward days — literature, characterization analysis, cross-technique validation, reporting.

AVAILABLE TODAY · RUNS ON REAL DATAVERIFIED · 2026.05.23
01Sk
33
Domain skills
characterization · literature · review
02Li
16M
Materials papers
open-access · via OpenAlex
03Db
6
Crystal databases
MP · AFLOW · OQMD · JARVIS · COD · C2DB
04Fm
40+
Instrument formats
.rasx · .mpr · .vms · BELMaster
05Py
Py
Sandboxed analysis
pymatgen · ase · scipy · lmfit
01·THE PROBLEM

Most of the slowness isn't the science.
It's the loop around it.

BOTTLENECKS

Monthsper hypothesis-to-result pass
6+characterization techniques to reconcile by hand
Siloedtools · databases · file formats · no shared context

A materials R&D team spends enormous time searching fragmented literature and databases, designing experiments, optimizing synthesis and process parameters, and turning raw instrument output into defensible decisions. Each full pass — hypothesis to validated result — takes months. That bottleneck compounds across a lab, a company, a decade of needed breakthroughs.

02·WHY GENERAL AI DOESN'T FIX IT

A researcher can't hand ChatGPT their actual work.

[01]

General tools don't speak the instrument file formats — .rasx, .mpr, .vms, BELMaster CSV.

[02]

They don't know the characterization conventions, and can't run the analysis on real data.

[03]

They can't reach the right scientific databases — crystal structures, diffraction references, the literature.

[04]

They never hold the project — context is lost the moment the session ends.

Materials science needs domain-specialized agents with the right tools, data access, and project memory — not a general chatbot.

03·WHAT WE'RE BUILDING

An integrated materials environment.

Create a project, bring your data, and work alongside an AI agent specialized for materials science. It reads and writes the project's files, runs real analysis in a sandbox, searches the literature, consults 33 materials skills, and keeps the whole project in context across sessions. It is not a chatbot with a science skin — it is the place the research lives.

stoich — Pt-MoS₂ OER catalystILLUSTRATIVE
FILES
▾ characterization/
xrd / Pt-MoS₂.rasx
xps / Pt-MoS₂.vms
raman / spectrum.txt
ec / HER_LSV.mpr
▸ literature/
▸ figures/
▸ notes/
SESSION · ANALYZE XRD PATTERN
Analyze the XRD pattern and cross-check it against the XPS.
Reading Pt-MoS₂.rasx — identified 2H-MoS₂ (002) at 14.4°. Pt (111) present, weak — consistent with low loading. Cross-checking S 2p in the XPS now.
generating peak-fit figure…
RESULTS
FiguresTraceFiles
(002)(111)
xrd_peakfit.png · 2θ vs intensity
Generated 2 files this session

Illustrative — workspace shown is a design preview.

04·THE RESEARCH LOOP

Ten nodes. We earn each one
by shipping the last.

The end state is the full autonomous research loop. We've mapped it as ten nodes — four work today, on real data. The platform fills in the rest, node by node.

000°090°180°270°RESEARCHLOOP4 of 10 LIVE01N0102N0203N0304N0405N0506N0607N0708N0809N0910N10
Working now — runs today, on real data
The horizon — the autonomous lab
  • N01Literature & prior artLIVE
  • N02Hypothesis generationNEXT
  • N03Experiment & control designNEXT
  • N04Synthesis recipe & protocolNEXT
  • N05Sample fabricationHORIZON
  • N06Characterization captureHORIZON
  • N07Data analysis & interpretationLIVE
  • N08Cross-technique validationLIVE
  • N09Manuscript & figuresLIVE
  • N10Research-direction updateHORIZON
Digital/physical boundary: we run the digital loop today. Nodes 05 & 06 — sample fabrication and characterization capture — live in the wet lab. Bridging them is the roadmap.
05·THE HONEST THREE TIERS

We claim a real tool today —
and a credible path to the lab.

WORKING NOW

Runs today, on real data

  • Characterization analysis (XRD, XPS, Raman, BET, TEM, EC)
  • Literature triage and synthesis
  • Cross-technique sanity-checking
  • Technical reporting and review
BUILDING NEXT

On the near roadmap

  • Hypothesis generation
  • Experiment and control design
  • Synthesis recipe and protocol tooling
THE HORIZON

The autonomous lab

  • Reads literature, forms hypotheses
  • Plans and coordinates experiments
  • Interprets results, updates its own direction

We're claiming the path, not the destination.

06·WHAT MAKES STOICH DIFFERENT

Four things a general tool can't do.

01

MLIP-first computation

Machine-learned interatomic potentials now hit near-DFT accuracy without HPC. Property prediction in minutes, DFT as the verification layer — materials' “AlphaFold moment.”
02

Instrument-format fluency

The agent natively reads .rasx, .mpr, .vms, BELMaster CSV and more. Generic AI tools simply cannot open these files.
03

The create-skill flywheel

Power users package their lab's workflow as a reusable skill. Instrument communities are small and tight — one lab's Rigaku skill is useful to twenty groups on the same instrument.
04

Cross-paper benchmarking

The agent re-derives a paper's overpotential from raw data and benchmarks it against twenty others. A verifiable demo beats an impressive one.
07·WHO IT'S FOR

Built for teams that move materials
from idea to product.

Stoich targets the slow, expensive parts of the materials R&D loop — characterization analysis, literature triage, cross-technique validation today; experiment design and protocol tooling next. The same agents serve a corporate R&D group, a national lab, or a hard-tech startup.

Energy storage & batteries

Electrode and electrolyte formulation, cycle-life screening, faster cell iteration.

Catalysis & clean energy

Catalyst discovery, activity benchmarking, and synthesis tuning straight from raw data.

Semiconductors & electronics

Thin films, 2D materials, and device-grade characterization at scale.

Structural & advanced materials

Alloys, composites, and process-property optimization across large parameter spaces.

Every project compounds into a provenance-rich record of how a material was actually made — the dataset that trains the autonomous lab.

08·LANDSCAPE & TEAM

Where Stoich sits.

Phylo / Biomni Lab

Same thesis for biology — A16Z and Menlo backed. Validates the shape. We are the materials counterpart.

Autonomous synthesis labs

A-Lab, Periodic, Lila — robotic, capital-heavy. A different end of the bench. We start software-first.

Materials Project

Computational databases and tooling we build on — not compete with.
09·ROADMAP

What we're shipping next.

Six things we're committed to — and a few we're still poking at. Roadmap commits move into the loop only when they run on real data.

Hypothesis GeneratorPLANNED
Question → ranked hypotheses + control-matrix design
Recipe / Protocol StudioPLANNED
Synthesis recipe → scaled batch protocol + sanity check
Sub-agent DispatchPLANNED
Spawn agents to work tasks in parallel inside a project
MCP Server PackPLANNED
Electronic lab notebook, procurement, instrument booking
Resources BrowserPLANNED
Crystal-structure, diffraction & literature databases
Skill HubPLANNED
Browse, enable and share community materials skills
EXPLORING
Cloud-HPC DFTRobotic Instrument BridgeMemory Across Projects
10·OPEN THE LOOP

Watch the loop run
on real data.

Open the demo project — real multi-technique characterization data for a Pt-MoS₂ catalyst. Then bring your own.

BUILDING TOWARD THE AUTONOMOUS AI LAB FOR MATERIALS DISCOVERY