PhenoSpan Imaging converts complex, multi-site MRI data into harmonized, population-referenced intelligence for clinical research and therapeutic development.
Current neuroimaging approaches detect disease too late, suffer from scanner variability, and require massive sample sizes to show meaningful effects.
Standard MRI endpoints only capture changes at advanced stages of disease progression — too late for effective intervention or meaningful measurement of treatment response.
Patient selection in neurological clinical trials is costly and inefficient. Without precise imaging-based tools, a large proportion of recruited patients do not meet trial criteria.
MRI data collected across multiple sites and scanner types introduces measurement noise that obscures true biological signals and inflates the sample sizes needed to detect real effects.
Without a robust normative baseline, it is difficult to distinguish true disease-related change from normal variation — limiting the sensitivity and reliability of imaging endpoints.
Our core capabilities are built on years of foundational research in neuroimaging and clinical neuroscience, now engineered for commercial scale.
Software-only harmonization using rotationally invariant features and dMRI-specific algorithms — deployable across any site without physical calibration hardware.
Pediatric and lifespan normative atlases derived from thousands of rigorously curated, regulatory-grade scans. Enables virtual reference standards and deviation scoring for patient selection.
Advanced diffusion MRI tractography and tract-level analytics that reveal white matter microstructure beyond what structural MRI alone can detect.
Models that capture the rate and trajectory of brain change over time — not just cross-sectional volume — providing far more sensitive imaging endpoints.
Cortical volume, thickness, and shape analysis standardized across sites and calibrated against population norms to isolate true biological deviation.
End-to-end biomarker pipeline from raw imaging data through validated, trial-ready endpoints suitable for regulatory research contexts.
Expert consultation on the design and development of optimized MRI sequences for neuroimaging research — tailored to your study protocol and scanner environment.
Hands-on support for deploying and validating MRI sequences across clinical sites, ensuring consistent acquisition parameters from day one of your study.
Systematic QC protocols applied at the point of data collection to catch acquisition issues early — before they affect downstream analysis or trial timelines.
PhenoSpan bridges the gap between raw neuroimaging data and the reliable, population-referenced insights that clinical research demands.
Our normative modeling framework generates individual-level deviation scores from population baselines, enabling researchers to identify the right patients earlier and more precisely.
Our software-based harmonization removes scanner-induced variability without the need for physical calibration hardware — delivering consistent, trustworthy data regardless of acquisition site.
Built from thousands of rigorously curated scans, our normative atlas provides a robust reference standard for detecting meaningful deviation — supporting both research endpoints and trial design.
Our founders bring rare expertise at the intersection of clinical neuroscience, advanced MRI methodology, and AI-driven data analytics.
Specialist in medical imaging, AI, and harmonization of multi-site MRI. Leading the company's scientific strategy and commercialization efforts.
Pioneer in diffusion MRI, tractography, harmonization, and large-scale population analysis.
Expert in MRI reconstruction algorithms, brain connectivity, and information-theoretic frameworks.
Software-only harmonization — deployable instantly across any site without logistical overhead or physical calibration equipment.
Traditional approaches to multi-site calibration are slow, expensive, and difficult to scale. Our method removes those barriers entirely.
Longitudinal trajectory norms that capture the rate and direction of brain change over time — not just a single snapshot.
Cross-sectional snapshots miss the dynamic nature of neurological change. Trajectory-based norms are far more sensitive to early and subtle progression.
Normative atlas built from rigorously curated, raw imaging data with the provenance and quality required for regulated clinical research.
Many approaches rely on secondary or administrative data sources that lack the imaging fidelity needed for reliable endpoint measurement.
Our scientific advisory board brings decades of expertise in psychiatric neuroimaging, MRI methodology, and translational neuroscience.
Professor of Psychiatry and Radiology at Harvard Medical School. Founding Director, Psychiatry Neuroimaging Laboratory, Brigham and Women's Hospital. Research Associate, Department of Psychiatry, Massachusetts General Hospital.
Professor of Psychiatry and Associate Professor of Radiology at Harvard Medical School. Associate Director, Psychiatry Neuroimaging Laboratory, Brigham and Women's Hospital. Co-Director, Center for Morphometric Analysis, Massachusetts General Hospital.
Associate Professor of Radiology at Harvard Medical School. Department of Radiology, Brigham and Women's Hospital.
Associate Professor of Psychiatry and Radiology at Harvard Medical School. Associate Director, Psychiatry Neuroimaging Laboratory, Brigham and Women's Hospital. Core Director, Center for Morphometric Analysis, Massachusetts General Hospital.
Assistant Professor of Psychiatry at Harvard Medical School. Investigator, Psychiatry Neuroimaging Laboratory, Brigham and Women's Hospital.
Whether you're a research sponsor, imaging partner, or academic collaborator, we'd love to discuss how PhenoSpan's platform can support your work.
Or reach us directly at info [at] phenospanimaging [dot] com