Multi-channel wavelength strategy
Selected channels target SpO₂ baseline, tissue oxygenation, perfusion context, water/contact effects, and signal artifacts.
RESEARCH-STAGE NEONATAL OPTICAL MONITORING
NeoPerfuse is a research-stage neonatal optical monitoring platform designed to help clinicians understand whether an oxygenation or perfusion signal can be trusted and why it may be unreliable.The platform combines wavelength-engineered multi-channel optical sensing with an explainable AI-based Signal Quality Index to identify signal problems caused by low perfusion, wet skin, vernix, poor contact, motion, displacement, or insufficient pulsatility.
Partner ecosystem
NeoPerfuse is positioned for collaboration across university medicine, engineering, health innovation, and science-translation networks.


Focused on the first critical minutes after birth.
Raw optical channels for difficult preterm conditions.
Confidence logic for signal interpretability.
In preterm and very preterm newborns, optical monitoring signals may be delayed or unstable because of low perfusion, movement, wet skin, fragile skin, very small extremities, and difficult sensor placement. NeoPerfuse focuses on this narrow but clinically important gap: making optical oxygenation and perfusion information more trustworthy during early neonatal transition.
Selected channels target SpO₂ baseline, tissue oxygenation, perfusion context, water/contact effects, and signal artifacts.
The AI-SQI evaluates each channel and time segment, rejects unreliable signals, and explains likely failure modes.
The project will test time to first trustworthy signal, usable signal fraction, artifact reduction, and failure-mode classification.
NeoPerfuse combines wavelength-engineered multi-channel optical sensing with an explainable AI-based Signal Quality Index to make neonatal oxygenation and perfusion signals more trustworthy.
Step 1
A neonatal-compatible patch designed for fragile skin, small extremities, and difficult placement.
Step 2
Selected channels target SpO₂ baseline, tissue oxygenation, perfusion context, and water/contact effects.
Step 3
AI evaluates each channel and time segment to reject artifacts and classify likely failure modes.
Step 4
The output shows whether the optical signal is trustworthy and why it may be unreliable.
NeoPerfuse has different relevance for clinical, technical, and translational partners. These paths keep the first decision simple.
Start with the signal-trust problem during early preterm transition and fragile monitoring windows.
Review clinical needStart with multi-channel optical sensing, AI-SQI logic, and confidence-aware output.
Explore technologyStart with collaboration paths, validation priorities, IP context, and research-to-clinic planning.
Discuss partnershipNeoPerfuse is designed as an adjunct to established clinical monitoring, not as a replacement for ECG or standard pulse oximetry. The objective is to help clinicians understand whether an optical oxygenation/perfusion signal can be trusted.
ECG, preductal pulse oximetry, standard patient monitors
Signal confidence, failure-mode transparency, multispectral signal-quality assessment
The project is structured around clinical requirements, optical feasibility, explainable AI, usability, regulatory planning, and evidence generation.
Focused on confidence around optical signals, not replacement monitoring.
Built around delivery-room and NICU constraints.
Roadmap links technical validation, usability, and feasibility planning.
Structured for clinical, AI, optics, OEM, regulatory, and funding dialogue.
Collaboration
We are open to clinical, technical, translational, and industry collaboration.