Requirement of a novel gene, drish, in the zebrafish retinal ganglion cell and primary motor axon development

Author:

Gurung Suman12,Restrepo Nicole K.1,Anand Surendra Kumar1,Sittaramane Vinoth34,Sumanas Saulius125ORCID

Affiliation:

1. Department of Pathology and Cell Biology USF Health Heart Institute, University of South Florida Tampa Florida USA

2. Division of Developmental Biology Cincinnati Children's Hospital Medical Center Cincinnati Ohio USA

3. Department of Biology Georgia Southern University Statesboro Georgia USA

4. Department of Molecular and Cellular Biology Sam Houston State University College of Osteopathic Medicine Conroe Texas USA

5. University of Cincinnati College of Medicine Department of Pediatrics Cincinnati Ohio USA

Abstract

AbstractBackgroundDuring neurogenesis, growing axons must navigate through the complex extracellular environment and make correct synaptic connections for the proper functioning of neural circuits. The mechanisms underlying the formation of functional neural networks are still only partially understood.ResultsHere we analyzed the role of a novel gene si:ch73‐364h19.1/drish in the neural and vascular development of zebrafish embryos. We show that drish mRNA is expressed broadly and dynamically in multiple cell types including neural, glial, retinal progenitor and vascular endothelial cells throughout the early stages of embryonic development. To study Drish function during embryogenesis, we generated drish genetic mutant using CRISPR/Cas9 genome editing. drish loss‐of‐function mutant larvae displayed defects in early retinal ganglion cell, optic nerve and the retinal inner nuclear layer formation, as well as ectopic motor axon branching. In addition, drish mutant adults exhibited deficient retinal outer nuclear layer and showed defective light response and locomotory behavior. However, vascular patterning and blood circulation were not significantly affected.ConclusionsTogether, these data demonstrate important roles of zebrafish drish in the retinal ganglion cell, optic nerve and interneuron development and in spinal motor axon branching.

Publisher

Wiley

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