QUANTUM WAVE
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OPEN RESEARCH / EARLY STAGENEURAL QUANTUM STATES · EST 2026

QWAVE

FIG 01 — WAVEFUNCTION STUDYψθ(r) / CONCEPTUAL VISUALIZATION
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NQS / VMC
ELECTRONIC STRUCTURE
X — 0
Y — 0
Z — 0

Matter, reimagined

Neural wavefunctions and shared computation — a new foundation for open quantum research

Enter the research ↗
01 — 04
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A different way to study matter

Small systems
Fundamental questions

HHH₂ / DIHYDROGENSTRUCTURAL SCHEMATIC · NOT EXPERIMENTAL DATA
R ↔
EXPERIMENT / 001RESEARCH PILOT

Start with hydrogen

Our first benchmark is deliberately small: a hydrogen molecule — reproduce a finite-basis reference, then investigate neural wavefunctions with traceable evidence

METHOD
Neural quantum states + VMC
SYSTEM
H₂ · fixed geometry
OUTPUT
Model + reproducibility report
THE PREMISE

The result matters — so does the evidence behind it

Model checkpoints, configurations and independent evaluation — made inspectable

Compute
Repeat
Understand

VARIATIONAL PRINCIPLE

E[ψθ] ≥ E0

The variational energy is an upper bound for a normalized trial state; sampled estimates carry uncertainty
01 / DEFINE

Ask a precise question

Publish the system, Hamiltonian, budget and acceptance criteria before computation begins

02 / COMPUTE

Deliver the work

Train neural wavefunctions with VMC and submit model checkpoints, configurations and execution logs

03 / RE-EVALUATE

Make it repeatable

Independent evaluators use fresh samples, report uncertainty, and publish a traceable assessment

Q
$QWAVE

Shared research
Shared direction

A proposed participation token connecting contributors and community research budgets — scientific evidence stays off-chain; funding records and settlement are planned for Robinhood Chain

CONTRIBUTION INCENTIVESCOMMUNITY RESEARCH BUDGETSUTILITIES NOT YET LIVE

The next frontier
is worth investigating

Download project brief ↓