Adrian TEO

Stem Cells and Diabetes
PhD -  Stem Cell Biology, University of Cambridge, UK

SUMMARY
Adrian Teo is a Senior Principal Investigator and Deputy Director of the Cell and Molecular Therapy Division at the Institute of Molecular and Cell Biology (IMCB), Agency for Science, Technology and Research (A*STAR). He has concurrent joint appointments as Director of Graduate Affairs (Biomedical Research Council), A*STAR Graduate Academy and Assistant Professor at the Department of Biochemistry and Department of Medicine, Yong Loo Lin School of Medicine, National University of Singapore (NUS). 

Adrian obtained his PhD in Stem Cells at the University of Cambridge under the mentorship of Prof Ludovic Vallier and Dr. Norris Ray Dunn. Following his PhD, he joined Dr. Ray Dunn lab at the Institute of Medical Biology, A*STAR. Subsequently, he joined Prof Rohit Kulkarni lab at Joslin Diabetes Center, Harvard Medical School. During his fellowship at Joslin, he obtained two Harvard Stem Cell Institute seed grants and a Juvenile Diabetes Research Foundation (JDRF) fellowship to pursue his research interests in using human pluripotent stem cells (hPSCs) for in vitro disease modelling of diabetes.

Adrian’s lab seeks to leverage on human cell models such as human pluripotent stem cell (hPSC)-derived cells, human islets and human β cells to study diabetes disease mechanisms, develop therapeutics for diabetes and use them as a cell source for cell therapy in diabetes. The three main thrusts of his lab are: 1) Modelling and studying human diabetes disease mechanisms; 2) Developing new therapeutics to improve pancreatic β cell function; and 3) Developing stem cell-based therapies for the treatment of diabetes. 

Over his career, Adrian has received numerous prestigious awards and grants. He is also a member of the Oxford and Cambridge Society of Singapore, the International Society for Stem Cell Research (ISSCR) and Stem Cell Society Singapore.


AWARDS & GRANTS

KEY AWARDS
  • 2024: A*STAR Graduate Academy (A*GA) Star Mentor Award
  • 2023: A*STAR Graduate Academy (A*GA) Star Mentor Award
  • 2023: COVID-19 Resilience Medal (CRM)
  • 2022: Graduate Mentor of the Year (GRAMAY) Award
  • 2022: Outstanding Team Presentation – The Interstellar Initiative Alumni Program (Japan Agency for Medical Research & Development (AMED) and New York Academy of Sciences)
  • 2021: Public Sector Transformation (PST) Awards
  • 2021: One Public Service Award for contribution as Procurement Lead/OIC, Stronghold Diagnostics Laboratory (SDL), A*STAR
  • 2021: Firefly Awards - Borderless Award (Gold) for contribution as Procurement Lead/OIC, Stronghold Diagnostics Laboratory (SDL), A*STAR
  • 2019: A*STAR Dedicated Service Award
  • 2019: Junior Chamber International (JCI) Ten Outstanding Young Persons (TOYP) of Singapore Honoree Award  – Medical Innovation
  • 2018: Stem Cell Society Singapore (SCSS) Dr. Susan Lim Award for Outstanding Young Investigator
  • 2017: Outstanding Team Presentation (August) – The Interstellar Initiative (Japan AMED and New York Academy of Sciences)
  • 2017: Outstanding Team Presentation (March) – The Interstellar Initiative (Japan AMED and New York Academy of Sciences)
  • 2013: Juvenile Diabetes Research Foundation (JDRF) Postdoctoral Fellowship
  • 2011: International Society for Stem Cell Research (ISSCR) Travel Award
  • 2008: Honorary Cambridge Commonwealth Trust Scholar
  • 2008: A*STAR Graduate Scholarship – A*STAR-Cambridge Partnership (ACP) PhD Programme
KEY GRANTS
  • 2024: Singapore Therapeutics Development Review (STDR) Pre-Pilot Stream 1 grant call
  • 2024: ARES Enterprise A*VC Funding
  • 2023: Healthy Longevity Catalyst Award (HLCA)  
  • 2023: National Medical Research Council Open Fund-Large Collaborative Grant (NMRC OF-LCG)
  • 2023: GAP Project Award
  • 2022: FY2022 Interstellar Initiative Beyond (Co-I: Adrian Teo, Ph.D.)
  • 2022: National Medical Research Council Open Fund-Young Individual Research Grant (NMRC OF-YIRG) (Co-I: Adrian Teo, Ph.D.)
  • 2022: SingHealth Duke-NUS Genomic Medicine Centre Seed Grant
  • 2022: National Medical Research Council Open Fund-Individual Research Grant (NMRC OF-IRG)
  • 2021: Paris-NUS Research Proposal Grant
  • 2020: 2nd A*STAR-AMED Joint Grant Call
  • 2018: NMRC OF-LCG Seed Funding
  • 2018: Skin Innovation Grant
  • 2018: A*STAR Exploit Technologies Private Limited (ETPL) Gap Funding
  • 2016: NMRC OF-YIRG


RESEARCH

Modelling and studying human diabetes disease mechanisms
hPSCs that comprise of human embryonic stem cells (hESCs) and human induced pluripotent stem cells (hiPSCs) derived from patients with monogenic, gestational, type 1 or type 2 diabetes patients will be differentiated into human pancreatic cells or cell types affected in diabetic complications to dissect the pathology of diabetes and its complications. This effort will also contribute directly to the understanding of human potential and development. The process of differentiating hPSCs into pancreatic β-like cells will be used to study human β cell development, maturation and function. This will identify critical steps, key pathways and mechanisms which guide human β cell development and maturation. Differentiating hiPSCs that harbour diabetes risk alleles will pinpoint mechanisms of β cell demise at the earliest stage(s) and functionalise the gene variants associated with diabetes. This is otherwise not possible given that clinical manifestation of overt diabetes in humans takes decades to occur and patient material is inaccessible. Differentiating hiPSCs from diabetic patients with and without complications, such as diabetic nephropathy, will elucidate genetic and epigenetic perturbations which occur in cells/tissues/organs constantly exposed to hyperglycaemia.

Developing new therapeutics to improve pancreatic β cell function

Patient-specific hiPSCs with clinical deficiencies in insulin secretion, such as that of MODY1 and MODY3, will be used to identify new targets and pathways relating to insulin secretion mechanisms. Novel biological and natural products will also be tested on human islets and human β cells with the goal of identifying new molecules or signalling pathways that can regulate β cell insulin secretion capacity.

Developing stem cell-based therapies for the treatment of diabetes
Human stem cells are highly renewable and non-xenogenic. Therefore, they can be appropriately positioned for cell therapy in diabetes patients. Current Good Manufacturing Practice (cGMP) hPSC-derived β cells can potentially be used for islet cell replacement therapy in diabetes patients. Multipotent mesenchymal stromal cells (MSCs) can also be used to confer beneficial immunomodulatory properties upon transplanted human islets or β cells to improve the long-term success of cell replacement therapy. Last but not least, bioengineering efforts including the development of encapsulation devices, or the use of scaffolds will complement these stem cell-based development efforts. Together, it is envisioned that the production of sufficient mature and functional human β cells from hPSCs for cell replacement therapy will achieve physiological control of blood glucose levels, to provide a better life for diabetes patients.


PUBLICATIONS

TECHNOLOGY DISCLOSURES
  • Human skin fibroblasts from healthy and type 2 diabetes (T2D) donors
    Availability of both healthy and diabetic human skin fibroblasts

  • Generation of human induced pluripotent stem cells (hiPSCs)
    Expertise in generating, culturing and characterizing hiPSCs
  • Healthy and diabetic-human induced pluripotent stem cells (hiPSCs) for differentiation into relevant cell types for diabetes drug discovery
    Availability of both healthy and diabetic-hiPSCs

  • Differentiation of hiPSCs into pancreatic islet-like cells
    Expertise in differentiating hiPSCs into pancreatic islet-like cells
  • Differentiation of hiPSCs into mesenchymal stromal cells (MSCs) and then adipocytes
    Expertise in differentiating hiPSCs into MSCs and adipocytes
  • Generation of diabetes mouse models and in vivo transplantation of cells
    Expertise in generating diabetes mouse models and transplantation of cells in vivo
  • Evaluation of glucose metabolism in hepatocytes
    Expertise in evaluating glucose metabolism in hepatocytes

*Please contact A*STAR if you wish to collaborate or license these technologies.