Charge transport modeling in insulating polymers: from molecular to macroscopic scale

By G. Teyssédre, C. Laurent. IEEE transactions on dielectrics and electrical insulation, 2005

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Surface charge decay on insulators in air and sulfurhexafluorid - part I: simulation (2008, background): “As a consequence of these effects the potential decay of charged surfaces is typically non-exponential and can be characterized by a power-law time dependence for the decay rate [24, 26].”
High field conduction in biaxially oriented polypropylene at elevated temperature (2012, background): “8 to 3 eV from the valence and conduction band edges), reduce the effective bandgap to the range of 1 eV in common polymeric insulators such as polyethylene [1-4].”
Space charge trapping in electrical potential well caused by permanent and induced dipoles for LDPE/MgO nanocomposite (2008, background): “It was reported by Meunier and coworkers [5,6] and by Teyssedre and Laurent [7] that chemical defects such as conjugated carbon double bonds (C=C) or carbonyl groups (C=O) in polymer film create a trap site that captures an electric charge carrier.”
The energy distribution of trapped charges in polymers based on isothermal surface potential decay model (2015, background): “They will tend to accumulate where the local PE density is lowest, not highest [41-43].”