CEREBROOnline

Neuroscience technology

A clearer measure
of neurological
function.

We develop advanced systems to deconstruct and analyze how multimodal neurocognitive signals behave in unison.

Explore our approach
Five domains. Shared analysis.Tap a domain to explore its role.
0105
Cerebro integrated analysis
Ocular

How the eyes move, find a target, and sustain visual attention. Example: Following a moving target.

Illustrative examples · not a test or patient data
Measurement first. Evidence always.Meet Neocognitron

01 / Approach

One signal is a fragment.
Study the relationships.

The neurological signal may live in the relationship between measurements. That is the hypothesis we’re exploring.

Beyond a single score.

Dynamic Response Behavior (DRB) explores how responses change over time and how patterns across multiple domains relate to one another.

What Dynamic Response Behavior (DRB) describes

Dynamic Response Behavior (DRB) describes how neurocognitive responses unfold over time—how they adapt to task demands, vary across repeated attempts, and relate across ocular, vestibular, reaction-time, cognitive, and motor domains.

01

Challenge the system.

Engage neurological function through structured tasks.

02

Measure the responses.

Capture functional signals and establish measurement confidence.

03

Analyze them together.

Study timing, coordination, and patterns across signals.

02 / Platform

Meet the Cerebro
Neocognitron model.

A multimodal neurocognitive signal capture and analysis platform.

Neocognitron is being developed to investigate Dynamic Response Behavior (DRB) across the five functional domains.

Structured assessment, signal-quality controls, and computational research in one workflow.

Explore the research
NeocognitronResearch architecture
  1. 01

    Structured tasks

    Consistent stimulus. Reproducible workflow.

  2. 02

    Signal capture

    Functional responses across domains.

  3. 03

    Measurement confidence

    Qualify the signal before interpreting it.

  4. 04

    Computational analysis

    Investigate relationships with machine learning.

Investigational platform

03 / Research

Traumatic Brain Injury (mTBI) is the first layer application.
Neuroscience is the scope.

The question we’re testing

What can the relationships reveal?

We investigate whether patterns of Dynamic Response Behavior (DRB) can help characterize neurological function beyond individual measurements.

Our foundation

Grounded in clinical research.

Early IRB-governed work with pediatric Traumatic Brain Injury (mTBI) participants and healthy controls helped shape our multimodal approach.

Explore the literature review
Our next step

Establish the evidence.

Qualify measurements, study reproducibility, and test the hypothesis prospectively. Each application must earn its own evidence.

Questions about the science? Start here.

04 / Questions

The questions
behind the science.

Explore what we measure, why it matters, and what the evidence still needs to show.

What might a single neurological score miss?

A summary score can compress differences in timing, consistency, and how a response changes across repeated attempts. Cerebro is investigating whether studying those relationships adds useful information beyond individual measurements. That added value must be demonstrated, not assumed.

What can eye movements reveal beyond vision?

Eye-movement tasks let researchers examine how someone finds a target, follows movement, or responds to a changing instruction. Cerebro studies these responses alongside other functional domains. An eye-movement measurement alone does not establish a diagnosis.

What is Dynamic Response Behavior (DRB)—and why study responses over time?

Dynamic Response Behavior (DRB) describes how neurocognitive responses unfold over time—how they adapt to task demands, vary across repeated attempts, and relate across ocular, vestibular, reaction-time, cognitive, and motor domains. It guides our research; it is not a validated clinical score or diagnostic finding.

Why study five domains together?

Ocular, vestibular, reaction-time, cognitive, and motor tasks offer different ways to observe neurological function. Our hypothesis is that relationships between their responses may reveal information that separate measurements miss. More measurements do not automatically mean better assessment; their added value needs evidence.

Explore the five-domain diagram
What evidence would show that Neocognitron works?

First, measurements must be reliable and reproducible. Then prospective studies must test performance in the intended population, against appropriate reference standards, and establish whether the combined signals add value over existing assessment. Our literature review explains the research rationale and its limits; it does not establish clinical validation of Neocognitron.

Explore the literature review
Can Neocognitron be used in clinical care today?

Neocognitron is investigational. It is not cleared for diagnosis or independent treatment, disposition, or return-to-activity decisions. We welcome conversations about research collaboration; clinical use requires evidence for a defined intended use and the appropriate regulatory pathway.

Discuss research collaboration

05 / Contact

The next discovery
may lie between the signals.

Research. Engineering. Scientific collaboration.

Exploring research collaboration, technology partnerships, or Cerebro’s work? We’d like to hear from you.

Email the Cerebro team Opens your email application. No form required.