Visual Pigments of Compound Eyes — Structure, Photochemistry, and Regeneration

  • Joachim Schwemer

Abstract

Visual pigments comprise a family of chromoproteins which are incorporated in highly specialized membrane areas of photoreceptor cells. The function of these molecules is to absorb light quanta, which are often directed onto these membrane areas by special optical means. Absorbed light quanta cause the 11-cis chrornophore of the visual pigment to isomerize to the all-trans form, the only reaction of the visual process that requires light. This in turn leads to conformational changes of the protein. These changes initiate a complex sequence of biochemical and biophysical events that eventually lead to the excitation of the photoreceptor cell. Following transmission of these electrical signals to higher-order neurons and their processing, the information gathered through the absorption of a few light quanta may finally lead to a comprehensive behavioral response. Thus, the knowledge of how visual pigments are constructed, transformed by light, and regenerated is fundamental to the understanding of photoreceptor function. Although this brief survey will concentrate on the visual pigments of compound eyes, data from other pigment systems will be quoted for comparison whenever appropriate.

Keywords

Aldehyde Retina Lysine Carotenoid Stein 

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Copyright information

© Springer-Verlag Berlin Heidelberg 1989

Authors and Affiliations

  • Joachim Schwemer
    • 1
  1. 1.BochumGermany

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