Neuroblox is a mechanistic, multi‑scale neural circuit simulation platform that lets researchers build and modify modular brain circuit models from validated computational primitives. By simulating the effects of drugs, devices, or stimuli across molecular to behavioral scales, it enables systematic hypothesis testing and optimization of neurotherapeutic interventions before clinical trials.
Funding
Funding not disclosed
Founders
Product
Problem
Current neurotherapeutic development relies on statistical correlations or limited animal models, which cannot reliably predict how a specific molecular, device, or stimulation intervention will alter neural circuits and translate into cognitive, mood, or behavioral outcomes. This uncertainty leads to a high failure rate of psychiatric and neurological candidates in Phase II‑III trials.
Solution
Neuroblox offers a mechanistic, multi‑scale neural circuit simulation platform that lets researchers build, modify, and validate brain circuit models from validated computational primitives. Users can load pre‑validated circuits or construct new ones from modular “blox” representing neurons, receptor dynamics, neural mass models, and stimulus sources. The platform simulates the effects of drugs, devices, or sensory inputs across biological scales—from molecular targets through spiking activity and biomarkers to observable symptoms—allowing systematic comparison of hypotheses and optimization of intervention parameters before any human testing.
Target Audience
Primary users are biotech and pharmaceutical research teams, academic neuroscience labs, and medical device developers focused on neuropsychiatric disorders, cognitive enhancement, or neuromodulation therapies.
Features
- Library of modular neurobiological components (Hodgkin‑Huxley, LIF, AMPA, NMDA, GABA, dopamine, serotonin, etc.) that snap together to form biomimetic circuits
- Support for neural mass models (Jansen‑Rit, Wilson‑Cowan, Next‑Generation) and composite multi‑scale assemblies
- Graphical UI and domain‑specific programming language for building and editing circuits
- Parameter fitting tools that calibrate models to electrophysiology, fMRI, or behavioral data
- In‑silico simulation of interventions (pharmacological agents, electrical/optical devices, sensory stimuli) with output tracking from molecular effects to cognitive and behavioral metrics
- High‑performance numerical kernels enabling exploration of large parameter spaces and rapid optimization experiments
- Free non‑commercial license for academic use; commercial licensing available through direct contact