Abstract

High conductivity and high transmittance are usually contradictory for transparent conductive films. AZO/Ag/AZO composite film was deposited with magnetron sputtering on K9 glass substrate at room temperature, and O 2 was used as the reactive gas to control the ratio of lattice oxygen and that of oxygen vacancy in the bottom AZO layer, which regulated the composite film's conductivity and transmittance. The results showed that the lattice oxygen ratio of the bottom AZO layer first increased and then decreased as the O 2 flow ratio increased from 0% to 30%, while the oxygen vacancy ratio decreased continuously; both the in-plane stress in the AZO layer and the lattice mismatch between AZO and Ag layers first decreased and then increased. The crystallization quality of the Ag layer increased first and then decreased and got the best at 10% O 2 flow ratio, while the roughness first decreased and then increased, and got the minimum value at 10% O 2 flow ratio. As the O 2 flow ratio increased from 0% to 30%, the transmittance of the AZO/Ag/AZO composite film first increased and then decreased, while the sheet resistance first decreased and then increased; when the O 2 flow ratio was 10%, the average visible transmittance (380–780 nm) of the composite film got the maximum 78.28%, the sheet resistance got the minimum 6.745 Ω/sq. • AZO/Ag/AZO composite film was deposited with magnetron sputtering at room temperature. • The lattice oxygen ratio first increased and then decreased with O 2 flow ratio increase. • The lattice mismatch between AZO/Ag layers got the minimum at 76% lattice oxygen ratio. • Ag layer surface roughness was depended on the lattice mismatch. • The film got an average visible transmittance 78.28% and a sheet resistance 6.745 Ω/sq.

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