2006•Unpublished venueRequires access

Doping Dependent Conductivity in Organic Semiconductors

Ling Li, Gregor Meller, Hans Kosina

Open publisher page 3 citations

Abstract

Charge transport in doped organic semiconductors is investigated, and an analytical conductivity model is formulated. This model can explain the temperature dependence of conductivity and the change in conductivity of an organic semiconductor upon doping. The results agree well with recent experimental data

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What this paper is about

Charge transport in doped organic semiconductors is investigated, and an analytical conductivity model is formulated. This model can explain the temperature dependence of conductivity and the change in conductivity of an organic semiconductor upon doping. The results agree well with recent experimental data

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Available abstract

Charge transport in doped organic semiconductors is investigated, and an analytical conductivity model is formulated. This model can explain the temperature dependence of conductivity and the change in conductivity of an organic semiconductor upon doping. The results agree well with recent experimental data

Key concepts: Conductivity, Organic semiconductor, Doping, Semiconductor, Materials science, Electrical resistivity and conductivity, Charge (physics), Condensed matter physics

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