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FEBS Letters|July 13, 1992
Properties of Pseudomonas aeruginosa exotoxin A ionic channel incorporated in planar lipid bilayersF Gambale, G Rauch, G Belmonte, et al.FEBS Letters|July 21, 1997
Ion channels in the vacuoles of the seagrass Posidonia oceanicaA Carpaneto, A M Cantu', H Busch, et al.The Journal of Membrane Biology|November 1, 1996
Ionic channels of the sugar beet tonoplast are regulated by a multi-ion single-file permeation mechanismF Gambale, M Bregante, F Stragapede, et al.Biophysical Journal|November 1, 1993
Fast and slow activation of voltage-dependent ion channels in radish vacuolesF Gambale, A M Cantu, A Carpaneto, et al.Journal of Neuroscience Research|January 1, 1984
GM1 micelles modify the transport properties of the ionophore gramicidin D in artificial planar bilayersF Gambale, C Marchetti, C Usai, et al.FEBS Letters|March 21, 1983
Capacitance--voltage relationship in phospholipid bilayers containing gangliosidesC Usai, C Marchetti, F Gambale, et al.Bioscience Reports|December 1, 1995
Bacterial hemolysins and leukotoxins affect target cells by forming large exogenous pores into their plasma membrane: Escherichia coli hemolysin A as a case exampleG Menestrina, M Dalla Serra, C Pederzolli, et al.The Journal of Membrane Biology|January 1, 1996
Permeability increase induced by Escherichia coli hemolysin A in human macrophages is due to the formation of ionic pores: a patch clamp characterizationG Menestrina, C Pederzolli, M Dalla Serra, et al.The Journal of Membrane Biology|August 16, 2002
The phytotoxic lipodepsipeptide syringopeptin 25A from Pseudomonas syringae pv syringae forms ion channels in sugar beet vacuolesA Carpaneto, M Dalla Serra, G Menestrina, et al.Biochimica Et Biophysica Acta|May 16, 1977
Incorporation into lipid bilayer membranes of a photo--sensitive pigment from the honeybee compound eyeF Gambale, A Gliozzi, I M Pepe, et al.Pageof 4