• Meloni, Manuela
• Salvage, Jonathan P.
• Tomes, Oliver
• Maser, Wolfgang K.
• Dalton, Alan B.
• Istif, Emin
• Ogilvie, Sean P.
• Domínguez, José Miguel González
• Victor-Román, Sandra
• King, Alice A. K.
• Fratta, Giuseppe
• Arenal, Raul
• Pelaez-Fernandez, Mario
• Benito, Ana
• Ewels, Christopher P.
• Ajayan, Pulickel M.
• Large, Matthew J.

Abstract

Explosive percolation is an experimentally-elusive phenomenon where network connectivity coincides with onset of an additional modification of the system; materials with correlated localisation of percolating particles and emergent conductive paths can realise sharp transitions and high conductivities characteristic of the explosively-grown network. Nanocomposites present a structurally- and chemically-varied playground to realise explosive percolation in practically-applicable systems but this is yet to be exploited by design. Herein, we demonstrate composites of graphene oxide and synthetic polymer latex which form segregated networks, leading to low percolation threshold and localisation of conductive pathways. In situ reduction of the graphene oxide at temperatures of

Topics

• nanocomposite
• impedance spectroscopy
• polymer