Modeling diabetes with pluripotent stemcells
Title | Modeling diabetes with pluripotent stemcells |
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Acronym | MODIA |
Website | NA |
Start date | 2018-09-01 |
End date | 2021-08-01 |
Sponsor | Gustave Roussy |
Institution | University Medical Center Groningen |
Associated cell lines
- HVRDe009-A (HuES9)
- UMCGi001-A (PPCM RC1 c1)
- UMCGi001-B (PPCM RC1 c2)
- UMCGi004-A (PPCM RC2 c1)
- UMCGi004-B (PPCM RC2 c2)
- UMCGi009-A (PLN2-C2)
Project Description
Diabetes mellitus type II (DM) not only is an important risk factor for developing heart failure (HF) but also increases the risks of HF mortality and hospitalization in patients with established HF. The pathophysiological role of DM in HF with reduced ejection fraction (HFrEF) and with preserved ejection fraction (HFpEF) are potentially different. In patients with HFrEF, DM is associated with more eccentric cardiac hypertrophy, while in patients with HFpEF, DM is associated with a concentric cardiac hypertrophy1. On a cellular level, early evidence suggests that in the diabetic HFpEF phenotype, collagen and advanced glycation end-products (AGEs) deposition are increased. In contrast, cardiomyocytes in patients with the diabetic HFrEF phenotype show an overall loss of sarcomeres2. A greater understanding of the underlying pathophysiologic mechanisms that lead to the development of both HF phenotypes when DM occurs is an important unmet need. This is mainly due to the complex network of factors involved. Bioinformatics and network analyses can help us identify relevant multifactorial pathological mechanisms by recognizing key regulatory disease pathways associated with DM in HF and allowing comparisons between HFrEF and HFpEF phenotypes. A deeper understanding of the pathophysiology of HF when it co-occurs with DM will lead to the recognition of new molecular targets and establishment of novel personalized treatments. The overall aim of this proposal is to elucidate the differences between heart failure patients with and without diabetes. We will then investigate mechanistic implications of patient specific treatment targets in in-vitro.