Research Pillars

STELLAR advances stem cell science through four integrated research pillars that bridge fundamental discovery, translational research, and advanced biomedical engineering.

Each pillar represents a strategic research domain with dedicated expertise, infrastructure, and long-term roadmaps, while remaining interconnected within the STELLAR ecosystem.

iPSCs Clinical Translational Research

This pillar focuses on the generation, characterization, and clinical translation of induced pluripotent stem cells (iPSCs) for biomedical applications. Research activities span iPSC derivation, differentiation, and development of organoid-based disease models aligned with clinical needs and regulatory considerations.

Key areas include:

iPSC derivation and quality control
Organoid development for disease modeling
GMP-compatible cell lines and protocols
Preclinical validation and translational pathways

Indonesian Immortalized Cell Lines

This pillar aims to establish a national repository of Indonesian-origin immortalized cell lines to support biomedical research, drug discovery, and toxicity testing. Population-specific cell resources are essential for improving translational relevance and strengthening national research independence.

Key areas include:

Cryopreserved primary cell databases
Cell line immortalization and characterization
Drug screening and toxicity assays
Standardization and quality assurance of cell resources

Organ-on-a-Chip

This pillar integrates stem cell biology with microengineering technologies to develop organ-on-a-chip platforms that recapitulate human organ physiology in vitro. These microphysiological systems provide advanced tools for disease modeling, drug testing, and mechanistic studies under controlled conditions.

Key areas include:

Liver-on-a-chip and multi-organ chip systems
Integration of stem cell–derived cells and organoids
Advanced histology and multi-omics analysis
Prototype validation and functional assessment

AI-Inspired Stem Cell Technology & Nanoengineering

This pillar combines artificial intelligence, biomaterials, and nanoengineering to enhance precision and scalability in stem cell research. AI-driven modeling and advanced scaffold design support optimized differentiation, organoid formation, and tissue engineering.

Key areas include:

AI modeling of stem cell differentiation and organoid formation
Biomaterial and hybrid scaffold development
Nanoengineered systems for tissue maturation
Data-driven optimization of stem cell technologies

How the Pillars are Connected

While each pillar has a distinct focus, they are designed to function as an integrated research framework:

iPSCs Clinical Translational Research provides cellular models
Indonesian Immortalized Cell Lines supply standardized biological resources
Organ-on-a-Chip enables functional and physiological testing
AI-Inspired Technology accelerates optimization and innovation

Together, these pillars support a seamless research pipeline from discovery to translation.