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This article reviews the significance of the membrane structures in microbial photohydrogen evolution and in the energy metabolism of anaerobic sulfate-reducing bacteria. Recent studies on artificial photohydrogen evolution systems composed of chloroplast photosystems and bacterial hydrogenase are also presented.In constructing the artificial photohydrogen evolution system, it is necessary to separate the hydrogenase-catalyzed H2 evolution system from the photosynthetic electron-donating system so that the former may not be inhibited by the O2 produced from the latter. The use of an electric cell to separate them electrochemically is one proposal. The author also designed an artificially functionalized lyposome capable of photoevolving hydrogen in which the H2-producing system is separated from the photosynthetic O2-producing system.

Biophotolysis of water to produce hydrogen by means of biomembrane system.