Erika D. Eggers, PhD
The broad goal of research in our laboratory is to understand how synaptic inputs influence neuronal signaling and sensory signal processing in the healthy and diabetic retina. Currently we focus on how increased ambient light, dopamine and neuronal calcium handling modulate signaling in the retina and how this modulation changes in early diabetes. We use a combination of single cell and whole retinal electrophysiology and immunohistochemistry to identify targets for modulation that could lead to early treatments of diabetic eye disease.
Degree(s)
- 1997 BA Physics with minors in Biology and Music - Washington University
- 2003 PhD Physiology and Biophysics - University of Washington
- 2009 Post-doctoral Ophthalmology & Visual Sciences - Washington University
MacIsaac AR, Wellington AJ, Filicetti K, and Eggers ED. Dopamine receptor effects on in vitro ERGs are compromised in early diabetes, Experimental Eye Research, (2024) 247.
Eggers ED. Visual Dysfunction in Diabetes. Annual Reviews in Vision Science, (2023) 9: 91-109.
Flood MD, Wellington AJ, and Eggers ED. Impaired light adaptation of ON-sustained ganglion cells inearly diabetes is attributable to diminished dopamine D4 receptor sensitivity. InvestigativeOphthalmology and Visual Science, (2022) 63(33).
Flood MD and Eggers ED. Dopamine D1 and D4 receptors contribute to light adaptation in ON-sustained retinal ganglion cells. Journal of Neurophysiology, (2021) 126(6): 2039-2052.
Moore-Dotson, JM and Eggers ED. Reductions in calcium signaling limit inhibition to diabetic retinal rodbipolar cells. Investigative Ophthalmology and Visual Science, (2019) 60(12): 4063-4073.