Neural Genesis
Start from one stem cell and watch it divide, migrate and wire itself into a firing network.
Watch a single virtual neural stem cell divide, migrate and wire itself into a firing network. Then introduce a condition and see what an intervention costs the healthy neurons around it.
Browse disease modelsEight simulated doses. One score: affected-neuron rescue minus twice the harm to healthy neurons.
Describe a network or an intervention in plain words. The AI notebook turns it into a blueprint you can grow here, or a research note on the trade-offs.
Open AI notebookOne shared question, four conditions: how can a simulated intervention reach the neurons that need it without disturbing the network around them?
Selectivity values are model settings, not measured treatment outcomes.
Qualitative exploration, not a prediction. Real therapies need experimental evidence and clinical trials.
Your hypothesis AI-powered
Invent a neurological condition and an intervention. The AI explains likely effects on affected and healthy neurons, and what the scenario leaves uncertain.
A marker unique to affected neurons makes them easier to reach. Biology they share with healthy neurons makes the rest of the network vulnerable. The uncertainty is part of the question.
What sets them apart?
What might be disturbed?
Design a network AI brain engineering
Describe the architecture you want. The AI turns it into growth parameters for Neural Genesis.
Describe an architecture to get neuron count, inhibitory share, wiring reach and excitability. Then grow it in the lab.
$NEUROID is the proposed utility token for the Neuroid lab: spent on advanced simulations, research agents and experimental challenges, with a proposed share of platform fees cycling back to the ecosystem.
Users cultivate virtual brain organoids from a single stem cell.
Unlock advanced simulations, disease models and AI research agents.
Platform usage produces fees and a growing archive of simulation results.
Proposed buybacks and research incentives go back to the ecosystem.
Step 04 feeds back into step 01. Fee shares and buybacks are proposals, not commitments.
Grow organoids from one stem cell and watch neurons form, migrate and connect.
Design neural structures and developmental parameters with natural-language prompts.
See impulses travel along synapses and activity patterns emerge as the network matures.
Simulated Alzheimer’s, Parkinson’s, epilepsy and neurodevelopmental miswiring.
Compare simulated interventions on neuron survival, activity and tissue development.
Agents sweep doses and configurations to find the best simulated balance.
Create, share and trade organoid models, architectures and experiment setups.
Compete on sophisticated networks, resilient organoids and effective interventions.