PUBLICATION

An arbitrary-spectrum spatial visual stimulator for vision research

Authors
Franke, K., Maia Chagas, A., Zhao, Z., Zimmermann, M.J., Bartel, P., Qiu, Y., Szatko, K.P., Baden, T., Euler, T.
ID
ZDB-PUB-190924-6
Date
2019
Source
eLIFE   8: (Journal)
Registered Authors
Keywords
mouse, neuroscience, zebrafish
MeSH Terms
  • Animals
  • Mice
  • Photic Stimulation/instrumentation*
  • Photic Stimulation/methods*
  • Retina/physiology*
  • Retina/radiation effects*
  • Vision, Ocular*
  • Zebrafish
PubMed
31545172 Full text @ Elife
Abstract
Visual neuroscientists require accurate control of visual stimulation. However, few stimulator solutions simultaneously offer high spatio-temporal resolution and free control over the spectra of the light sources, because they rely on off-the-shelf technology developed for human trichromatic vision. Importantly, consumer displays fail to drive UV-shifted short wavelength-sensitive photoreceptors, which strongly contribute to visual behaviour in many animals, including mice, zebrafish and fruit flies. Moreover, many non-mammalian species feature more than three spectral photoreceptor types. Here, we present a flexible, spatial visual stimulator with up to 6 arbitrary spectrum chromatic channels. It combines a standard digital light processing engine with open source hard- and software that can be easily adapted to the experimentalist's needs. We demonstrate the capability of this general visual stimulator experimentally in the in vitro mouse retinal whole-mount and the in vivo zebrafish. With this work, we intend to start a community effort of sharing and developing a common stimulator design for vision research.
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