D

Daniel S. Wagner

Rice University

ORCID: 0000-0002-0595-2436

Publishes on Zebrafish Biomedical Research Applications, Developmental Biology and Gene Regulation, Greenhouse Technology and Climate Control. 67 papers and 5.5k citations.

67Publications
5.5kTotal Citations

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Top publicationsby citations

POU domain factor Brn-3b is required for the development of a large set of retinal ganglion cells.
Lin Gan, Mengqing Xiang, Lijuan Zhou et al.|Proceedings of the National Academy of Sciences|1996
Cited by 339Open Access

The three members of the Brn-3 family of POU domain transcription factors are found in highly restricted sets of central nervous system neurons. Within the retina, these factors are present only within subsets of ganglion cells. We show here that in the developing mouse retina, Brn-3b protein is first observed in presumptive ganglion cell precursors as they begin to migrate from the zone of dividing neuroblasts to the future ganglion cell layer, and that targeted disruption of the Brn-3b gene leads in the homozygous state to a selective loss of 70% of retinal ganglion cells. In Brn-3b (-/-) mice other neurons within the retina and brain are minimally or not at all affected. These experiments indicate that Brn-3b plays an essential role in the development of specific ganglion cell types.

Genetic Analysis of Digestive Physiology Using Fluorescent Phospholipid Reporters
Cited by 308

Zebrafish are a valuable model for mammalian lipid metabolism; larvae process lipids similarly through the intestine and hepatobiliary system and respond to drugs that block cholesterol synthesis in humans. After ingestion of fluorescently quenched phospholipids, endogenous lipase activity and rapid transport of cleavage products results in intense gall bladder fluorescence. Genetic screening identifies zebrafish mutants, such as fat free, that show normal digestive organ morphology but severely reduced phospholipid and cholesterol processing. Thus, fluorescent lipids provide a sensitive readout of lipid metabolism and are a powerful tool for identifying genes that mediate vertebrate digestive physiology.