Slit2-ROBO signaling in pericytes and myeloid cells controls vascular development and ocular neovascular disease
- Institution
- Yale University, CT
- Principal investigator
- Anne Christine Eichmann
- Funding
- $609K
- Duration
- 2015–2026
Moonbase score
Still being scored
Abstract
PROJECT SUMMARY Pericytes and myeloid cells cooperate with endothelium to orchestrate formation of a properly branched, functional vessel network that sustains retinal function and thereby enables vision. Disrupted communication between endothelium, pericytes and myeloid cells leads to excessive and pathological angiogenesis in ocular neovascular diseases (ONDs) such as advanced age-related macular degeneration and diabetic retinopathy that cause vision loss in millions of Americans. Excessive angiogenesis is currently treated by inhibition of a single factor VEGF that targets endothelial cells only. In this proposal we identify a novel SLIT2-ROBO1&2 ligand- receptor pathway that promotes retinal neovascularization through direct receptor signaling effects in pericytes and myeloid cells. By targeting pericytes and myeloid cells, ROBO inhibition in ONDs may confer additional benefit over VEGF inhibition of ECs alone. We will define the molecular basis of SLIT2-ROBO1&2 signaling and its biological role in pericytes and myeloid cells to uncover novel biology controlling retinal development and homeostasis that could be applied to OND prevention.
LOADING MOONBASE SCORE
Questions for Yale University
Answered by the team behind this research.
No questions yet. Sign in to ask the first one
Related grants
Same researchers, same institution, same topic, scored first.
- NIH · Gordon Research ConferencesNot yet scored
2025 Angiogenesis Gordon Research Conference and Gordon Research Seminar
Anne Christine Eichmann · $20K · 2025–2026
- NIH · Yale UniversityNot yet scored
Flow regulation of the Alk1/Eng pathway in vascular homeostasis and disease
Anne Christine Eichmann · $759K · 2023–2027
- NIH · Yale University72
Multimodal imaging of prodromal synaptic, circuit, and network-level dysfunction in a murine model of Alzheimer's disease
Zhengxin Cai · $834K · 2022–2027