Daniel Goldman, Ph.D.

Bernard W. Agranoff Collegiate Professor, Neuroscience
Professor, Biological Chemistry
Research Professor, Molecular & Behavioral Neuroscience Institute

Ofc: 5045 BSRB

109 Zina Pitcher Place

Ann Arbor, MI 48109-2200


(734) 936-2057


Biological Chemistry, Medical School
Molecular & Behavioral Neuroscience Institute

Areas of Interest

Sight is our most precious sense. Diseases of the retina, like macular degeneration and glaucoma cause blindness and are among the top 10 disabilities affecting people.  Macular degeneration results in death of photoreceptors, while glaucoma results in optic nerve degeneration and death of retinal ganglion cells. Although there are a number of approaches to restoring sight to people suffering from these diseases, we think a regenerative approach would be best. Unfortunately, mammals do not normally regenerate retinal neurons or optic axons. However, hope comes from the observation that teleost fish, like zebrafish, have remarkable regenerative abilities and can regenerate a damaged retina and optic nerve. Because the zebrafish and mammalian retina share structure and function, we suspect that mechanisms driving retina and optic nerve regeneration in zebrafish will suggest regenerative strategies that can be applied to mammals.

In the retina of fish and mammals there is only one major glial cell type referred to as a Muller glia. Muller glial cells are traditionally thought to participate in retina structure and homeostasis. We found that in zebrafish, Muller glia respond to retinal injury by undergoing a reprogramming event that endows them with properties of a retinal stem cell. These reprogrammed Muller glia divide to produce a progenitor that amplifies and is capable of regenerating all major retinal neuron types. Using a variety of molecular, genetic, biochemical and cell biological approaches, we have identified and characterized many of the signaling pathways and gene expression programs that underlie Muller glial cell reprogramming and retina regeneration. Similar approaches have been used to study optic nerve regeneration. This information is being used to suggest strategies for stimulating retina and optic nerve regeneration in mammals.

Honors & Awards

2014    Bernard W. Agranoff Collegiate Professor of Neuroscience, University of Michigan
2014    AAAS Fellow, American Association for the Advancement of Science
2013    Research to Prevent Blindness Innovative Ophthalmic Research Award
2010    Undergrad Research Opp Program Recognition Award for Outstanding Research Mentorship
2003    University of Michigan Research Scientist Achievement Award
2001    Wilson Scholar, Wilson Medical Research Foundation
1995    Mental Health Research Institute Discovery Award
1994    University of Michigan Scientist Award

Published Articles or Reviews

Recent Publications

Notch Suppression Collaborates with Ascl1 and Lin28 to Unleash a Regenerative Response in Fish Retina, But Not in Mice.
Elsaeidi F, Macpherson P, Mills EA, Jui J, Flannery JG, Goldman D.
J Neurosci. 2018; 38: 2246-2261.

The Regulation of Notch Signaling in Retinal Development and Regeneration.
Mills EA, Goldman D.
Curr Pathobiol Rep. 2017; 5: 323-331.
Wan J, Goldman D.
Curr Opin Genet Dev. 2016; 40: 41-47.
Zhang S, Mu Z, He C, Zhou M, Liu D, Zhao XF, Goldman D, Xu H.
Invest Ophthalmol Vis Sci. 2016; 57: 1991-2000.
Powell C, Cornblath E, Elsaeidi F, Wan J, Goldman D.
Sci Rep. 2016; 6: 24851. 
Dach2-Hdac9 signaling regulates reinnervation of muscle endplates.
Macpherson PC, Farshi P, Goldman D.
Development 2015; 142: 4038-48.

For a list of publications from PubMed, click HERE

Web Sites