Human-centered system design
We prioritize human iPSC-derived and primary-cell-informed biology to improve relevance over simplified, single-compartment approaches.
Corelia Bio is developing HETS™ — a human engineered tissue system designed to capture bidirectional heart–kidney signaling, disease-relevant stress biology, and translational response patterns that conventional preclinical models often miss.
Human iPSC-derived cardiomyocytes with stromal and vascular components, enabling force, electrophysiology, and fibrosis-relevant phenotyping.
Human renal cell systems built to study stress responses, transport biology, inflammation, and disease-associated remodeling.
Designed for early translational de-risking, hypothesis generation, and partner-ready study packages.
Cardio-renal disease is shaped by multi-organ signaling, fibrosis, inflammation, metabolic stress, and endothelial dysfunction. Corelia Bio is focused on building experimental systems that make these interactions more measurable, more human-relevant, and more decision-useful.
We prioritize human iPSC-derived and primary-cell-informed biology to improve relevance over simplified, single-compartment approaches.
HETS™ links phenotypic outputs with molecular signatures, enabling a stronger bridge between target biology and translational strategy.
Our platform is structured to support target validation, biomarker exploration, compound profiling, and co-development studies.
Corelia Bio is positioning HETS™ as both a strategic R&D platform and a foundation for future therapeutic programs.
Interrogate pathway relevance in a controlled, multi-tissue context before expensive downstream development decisions.
Capture secreted factors, transcriptional states, and response signatures that can inform translational biomarker strategies.
Evaluate efficacy, rescue patterns, and potential liabilities using readouts aligned with disease-relevant functional endpoints.
Corelia Bio’s near-term focus is platform validation and strategic collaboration, while preserving the opportunity to advance internal cardio-renal programs over time.
Early concept directed toward cardio-renal fibrosis biology and translational de-risking in human tissue systems.
Concept-stage program centered on disease signaling networks relevant to diabetic and chronic kidney complications.
Exploratory biologic concept focused on endothelial–fibroblast communication and human disease mechanism mapping.
Senior scientist and project leader with extensive experience across cardiometabolic disease, translational research, target validation, and human-relevant discovery strategies in academia and industry.
Corelia Bio reflects a conviction that next-generation preclinical systems must become more human, more integrative, and more useful for high-stakes therapeutic decisions.
A differentiated cardio-renal innovation layer at the intersection of tissue engineering, translational biology, and decision-enabling data.
With pharma, biotech, translational centers, and innovation hubs that value mechanism, clinical relevance, and platform leverage.
Early-stage company formation, platform articulation, partnership outreach, and pre-seed / translational ecosystem engagement.
Establish strategic collaborations and proof-of-value studies that validate HETS™ as a platform for complex disease R&D.
Use the form to start a conversation about partnerships, pilot studies, platform validation, or early-stage funding discussions.