Strategic direction
Guide priorities, partnerships, and ecosystem decisions that support scientific value and translational impact.
Open-source ecosystem for in vitro and microphysiological systemsAbout PhysioVerse
PhysioVerse is an open ecosystem built to strengthen advanced in vitro and microphysiological model systems through collaboration, shared infrastructure, and translational partnerships.
How We Evolved
Microphysiological systems (MPS), including organoids and body-on-chip platforms, are emerging technologies that model human biology with unprecedented physiological relevance, enabling new approaches to studying safety, toxicity, and performance across multiple industries. These systems have the potential to improve predictive accuracy, reduce reliance on animal testing, and accelerate innovation in areas ranging from biotechnology to chemicals and materials. However, the lack of standardized data structures, validation frameworks, and interoperable datasets across organizations and regulatory agencies limits their broader adoption and impact. This fragmentation results in duplicated effort, high costs, and inconsistent evaluation pathways across sectors.
Leaders from across industry, government, academia, and other nonprofit organizations and foundations have been converging annually for over 10 years with the goal of advancing biomanufacturing standards for cells, biomaterials, organoids, tissues, and body-on-chip (BOC) platforms.
The most recent gathering in December 2025 in Charlotte, NC, with representation from multiple government agencies, including ARPA-H, BARDA, DHA, DOW, FDA, GAO, ISSNL, NASA, NSF, and others, resulted in the generation of four roadmaps that provide a path forward and highlight critical gaps in the field of microphysiological systems. PhysioVerse addresses these gaps by establishing an open-source cyberinfrastructure that enables reproducible, regulator-aligned validation and interoperability of MPS-generated data, supporting pre-competitive collaboration and advancing data harmonization and validation science across multiple ecosystems.
View roadmap partnersLeadership and Governance
PhysioVerse is guided by a collaborative leadership and governance model that aligns scientific, technical, translational, and community priorities. This structure helps the ecosystem remain open, practical, and mission-driven while supporting interoperability, discoverability, and responsible use.
Guide priorities, partnerships, and ecosystem decisions that support scientific value and translational impact.
Support contributors, users, curators, developers, institutions, and industry through an open and collaborative model.
Promote metadata quality, curation, interoperability, and responsible access so shared resources remain useful and reusable.
Standards and manufacturing partners
Connect with the organizations advancing consensus standards, validation, and regenerative manufacturing across the PhysioVerse ecosystem.
The Microphysiological and Organoid Systems Standards Development Organization (MOSSDO) is a federally funded multi-stakeholder initiative focused specifically on establishing consensus-based standards for organoids, microphysiological systems (MPS), and body-on-a-chip technologies. MOSSDO develops frameworks for reproducibility, validation, and interoperability, enabling these platforms to be more reliably adopted across research, regulatory, and translational settings. In coordination with enabling ecosystem efforts such as PhysioVerse, MOSSDO provides the standards foundation that supports data integration, comparability, and broader field-wide adoption.
The Regenerative Manufacturing Innovation Consortium (RegMIC), founded in 2014, is a national initiative that brings together stakeholders from industry, academia, and government to advance the manufacturing, scale-up, and commercialization of regenerative technologies. Through cross-sector collaboration, RegMIC addresses key challenges in translation, including process development, regulatory alignment, and the establishment of best practices across cell, tissue, and advanced in vitro systems.