Ph.D., University of Wisconsin - Madison Research InterestsThe majority of research in our lab focuses around biological
questions in the cognitive and visual areas of the brain. We explore
the underlying basis of synaptic development and network dynamics
using primary neurons cultured in vitro. For this exploration, we
develop and utilize microfluidic and microelectronic
techniques. Microfluidics is the science and technology of fluids in
small (<100 um) diameter channels. There are a number of phenomena
that dominate at the microscale, which change the way fluids interact
when compared to the larger scales we are more familiar with. Our
laboratory primarily uses the rapid exchange of environmental
conditions and the formation of gradients in our studies of
neurobiology. With these techniques, we are able to define and
quickly change the chemical and pharmacological environment a cell or
a region of the culture might be seeing. We use pharmacological
gradients to coax neurons into growing their processing in specific
directions. While this research is capable of generating significant
data on its own, we are also researching ways to combine
microfluidics with the planar multi-electrode arrays used in our
laboratory. An experimental setup capable of observing and
controlling the electrical environment of the neuron culture as well
as spatiotemporally controlling the chemical and pharmacological
environment will yield an extremely powerful platform from which to
study neurobiology.Recent Publications- Zeringue, H.C. and M. Constantine-Paton (2004) Post Transcriptional Gene Silencing in Neurons,Current Opinion in Neurobiology, 14(5): 654-659.
- Walker, G.M., H.C. Zeringue and D.J. Beebe (2004) Microenvironment design considerations for cellular scale studies, Lab on a Chip, 4(2): 91-97 (issue cover image).
- Zeringue, H.C., M.B. Wheeler and D.J. Beebe (2005) A Microfluidic Method for Removal of the Zona Pellucida from Mammalian Embryos, Lab. Chip. 5:1 108-110 (Advance Article). Included in RSC Chemical Biology Virtual Journal.
- Zeringue, H.C., J.J. Rutledge and D.J. Beebe (2004) Early Mammalian Embryo Development Depends on Cumulus Removal Technique, Lab on a Chip 5:1 86-90 (Advance Article).
- Beebe, D.J., M. Wheeler, H.Zeringue, E.Walters and S. Raty, (2002) Microfluidic technology for assisted reproduction, Theriogenology, 57(1): 125-135.
- Zeringue, H.C., D.J. Beebe and M.B. Wheeler (2001) Removal of cumulus from mammalian zygotes using micro fluidic techniques, Biomedical Microdevices, 3(3): 219-224.
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