The agentic stack of
quantum digital twin
learned from BCI data

Build on the full-stack platform that ingests brain–computer interface data streams, reconstructs an executable quantum-classical state model, and routes that state into agentic workflows that generate hypotheses, triage risks, and recommend next actions — for learning, and for neurological disorder research.

One state model. Three applications.

The Quantum Virtual Mind (QVM) learns the dynamics in a person’s BCI recordings. Everything else is a question about how those dynamics depart from their own baseline — upward into learning, or downward into disorder.

The core · in development

Quantum Virtual Mind (QVM)

The quantum–classical core: an executable state model of the dynamics a brain–computer interface can see. Wrapped in a layer of specialist AI agents, it becomes an end-to-end stack.

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Healthy direction · proposal

Superlearning

A proposed approach to reading where a learner currently sits, and what they might be ready for next. Not yet built or tested.

See the research →
Healthy direction · proposal

Restoration

Guided meditation, sleep audio, and stress regulation selected from measured state rather than a preset track. The recovery half of learning.

See the research →
Clinical direction · proposal

Neurological Perturbation Studies

A proposed approach to measuring how a condition moves a person away from their own healthy baseline. A research direction, not a result.

See the research →

WHERE THE WORK STANDS

Measured, not projected

Every number below is something we can point at today, not a forecast.

1
Core model

The Quantum Virtual Mind, built and benchmarked in house against a classical baseline on public EEG data.

8
Specialist agents

Named roles across the lifecycle, from data access through to designing what to do next.

2
Research directions

Superlearning and clinical research — the same perturbation measured in opposite directions.

3
Manuscripts

In preparation, covering the foundation model, the healthy atlas, and the clinical record.

What the state model is, and is not

What it is

  • A model learned from brain–computer interface recordings
  • A twin of the dynamics those recordings contain
  • Physically consistent by construction
  • Something you can question, not just read

What it is not

  • Not a replica of a biological brain
  • Not a model of neurons or consciousness
  • Not a medical device or diagnostic tool
  • Not a demonstrated quantum speed-up

Early benchmark — in-house

Recovering real physical wiringOurs leads
Physical consistencyBoth, exactly
Short-term signal predictionConventional leads
Fine-grained rhythm detailConventional leads

Public brain-recording data. Full detail in the manuscripts, in preparation.

Early results, and what we are building on them

We put the state model head to head with a conventional method on public brain-recording data. It recovered real physical structure markedly better, and held physical consistency exactly — while conventional methods still lead on short-horizon signal prediction.

Where this sits

This is an early in-house benchmark and the first of a planned series. Three manuscripts are in preparation, and independent replication on larger cohorts is the next milestone.

See where the work stands →

RESEARCH ROADMAP

What exists, and what comes next

Sequenced by what each stage depends on. Restoration comes first because consumer distribution already exists and the bar for a useful signal is lowest; clinical work comes last because it needs years of longitudinal data before anything can be claimed.

2025
Digital Twin
Prototype
Classical–quantum core
built and benchmarked
2026
Agentic Layer
Specialist agents
under construction
2027
Restoration
Meditation, sleep,
stress regulation — target
2028
Superlearning
Readiness and
learning-track design — target
2030
Clinical Research
Longitudinal trajectories
and perturbation studies — target

Dates from 2027 onward are targets for research programmes still at proposal stage, not delivery commitments.

Working on brains, learning, or neurological care?

We are looking for research collaborators, a first education pilot partner, and investors who want to look closely at the science.