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1Joint Institute for Biological Sciences,Oak Ridge National Laboratory, 2Department of Mechanical, Aerospace and Biomedical Engineering,University of Tennessee, 3Bredesen Center for Interdisciplinary Research,University of Tennessee, 4Department of Biosystems and Agriculture Engineering,University of Kentucky, 5Department of Electrical Engineering and Computer Science,University of Tennessee, 6Computer Science and Mathematics Division,Oak Ridge National Laboratory, 7Center for Nanophase Materials Sciences,Oak Ridge National Laboratory
Chapters
- 00:04Title
- 01:06Reconstitution of Alamethicin Peptides
- 02:20Setting Up the Experiment
- 03:30Formation of the Lipid Bilayer
- 04:15Electrical Characterization of the Biomolecular Memristor
- 05:54Results: Current-voltage Relationship, Pinched Hysteresis, and Response to Voltage Pulses
- 07:25Conclusion
Suave, de baja potencia, biomolecular memristores aprovechan similar composición, estructura y cambio de mecanismos de bio-sinapsis. Presentamos un protocolo de arme y caracterizar biomoléculas memristores procede de bicapas de lípidos entre las gotas de agua en el aceite de aislamiento. La incorporación de resultados de péptidos activados por voltaje alamethicin en memristive de conductancia iónica a través de la membrana.
Tags
Biomolecular MemristorsIon Channel-doped Lipid MembranesBiomembrane AssemblyElectrical CharacterizationPeptide-doped BiomembranesActivity-dependent Memory ResistanceShort-term PlasticityVoltage-activated Ion ChannelsDroplet Interface BilayerLiposome SolutionAlamethicin PeptidesLipid Membrane Characterization
