Audacious Goals Initiative (AGI) - Retina
The Audacious Goals Initiative (AGI) for Regenerative Medicine is an effort by the National Eye Institute (NEI) to push the boundaries of vision science and restore vision through regeneration of the retina. By facilitating cross-disciplinary research, we are tackling the most devastating and difficult-to-treat eye diseases.
Loading Visualizations
Objective: to identify genes that are differentially expressed in retinal ganglion cells undergoing axon regeneration after optic nerve injury. RGCs were treated with pro-regenenerative treatment after optic nerve injury. The treated RGCs were selected by FACS...
Goldberg Lab
Neuronal subtypes show diverse injury responses, but the molecular underpinnings remain elusive. Using transgenic mice that allow reliable visualization of axonal fate, we demonstrate that intrinsically photosensitive retinal ganglion cells (ipRGCs) are both r...
Park Lab
Precise temporal control of gene expression in neuronal progenitors is necessary for correct regulation of neurogenesis and cell fate specification. However, the cellular heterogeneity of the developing CNS has posed a major obstacle to identifying the gene re...
Hyde Lab
Injury induces retinal Müller glia of certain cold-blooded vertebrates, but not those of mammals, to regenerate neurons. To identify gene regulatory networks that reprogram Müller glia into progenitor cells, we profiled changes in gene expression and chromatin...
Hyde Lab
Injury induces retinal Müller glia of certain cold-blooded vertebrates, but not those of mammals, to regenerate neurons. To identify gene regulatory networks that reprogram Müller glia into progenitor cells, we profiled changes in gene expression and chromatin...
Hyde Lab
Injury induces retinal Müller glia of certain cold-blooded vertebrates, but not those of mammals, to regenerate neurons. To identify gene regulatory networks that reprogram Müller glia into progenitor cells, we profiled changes in gene expression and chromatin...
Hyde Lab
Injury induces retinal Müller glia of certain cold-blooded vertebrates, but not those of mammals, to regenerate neurons. To identify gene regulatory networks that reprogram Müller glia into progenitor cells, we profiled changes in gene expression and chromatin...
Hyde Lab
Paper published in Science as supplemental data.
Hyde Lab
Injury induces retinal Müller glia of certain cold-blooded vertebrates, but not those of mammals, to regenerate neurons. To identify gene regulatory networks that reprogram Müller glia into progenitor cells, we profiled changes in gene expression and chromatin...
Hyde Lab