b-Type Cytochromes, Light- and NADH-Dependent Oxido-Reductase Activities in Plant Plasma Membranes

  • Roland Caubergs
  • Han Asard
  • Jan A. De Greef
Part of the NATO ASI Series book series (NSSA, volume 7)


Blue light induces many important biological phenomena in plants and microorganisms (Senger, 1980, 1984a; Senger and Briggs, 1981; Senger and Schmidt, 1986). The characterization of the sequence of events from the photoperception to the final respons is the ultimate aim in the area of photobiological research. These responses are often extensively described at the macrophysiological level but the molecular perception mechanism(s) remain obscure. In higher plant phototropism it seems justified to propose an alteration in membrane properties (Firn, 1986). The basic discussion centers obviously around the primary reactions as a consequence of the photochemical reaction of the receptor. Changes in transmembrane ion gradients are considered as an early step in the reaction chain and occur by alterations in the existing electrochemical potential differences (Evans, 1985). According to chemiosmotic principles, changes in plasma membrane ATPase activity are directly or indirectly responsible for ion exchange (Serrano, 1985). Another system also working as a proton pump is provided by an electron transfer chain. The latter system is well described for mitochondria and chloroplasts but now increasing evidence supports the presence of a proton translocating redox mechanism in the plasma membrane (Crane et al., 1985; Møller and Lin, 1986). It is precisely the aim of this symposium to discuss the possible involvement of these systems in membrane transport and growth phenomena. Several contributions will describe the various oxidoreductases located on the plasma membrane.


Blue Light Midpoint Potential Plant Plasma Membrane NADH Oxidase Activity Purify Plasma Membrane 


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Copyright information

© Springer Science+Business Media New York 1988

Authors and Affiliations

  • Roland Caubergs
    • 1
  • Han Asard
    • 1
  • Jan A. De Greef
    • 1
  1. 1.Department of BiologyUniversity of Antwerpen, R.U.C.A.AntwerpenBelgium

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