Influence of low energy argon plasma treatment on the moisture barrier performance of hot wire-CVD grown SiN x multilayers Influence of low energy argon plasma treatment on the moisture barrier performance of hot wire-CVD grown SiN x multilayers - Archive ouverte HAL Accéder directement au contenu
Article Dans Une Revue Jpn. J. Appl. Phys Année : 2014

Influence of low energy argon plasma treatment on the moisture barrier performance of hot wire-CVD grown SiN x multilayers Influence of low energy argon plasma treatment on the moisture barrier performance of hot wire-CVD grown SiN x multilayers

Résumé

The reliability and stability are key issues for the commercial utilization of organic photovoltaic devices based on flexible polymer substrates. To increase the shelf-lifetime of these devices, transparent moisture barriers of silicon nitride (SiN x) films are deposited at low temperature by hot wire CVD (HW-CVD) process. Instead of the conventional route based on organic/inorganic hybrid structures, this work defines a new route consisting in depositing multilayer stacks of SiN x thin films, each single layer being treated by argon plasma. The plasma treatment allows creating smoother surface and surface atom rearrangement. We define a critical thickness of the single layer film and focus our attention on the effect of increasing the number of SiN x single-layers on the barrier properties. A water vapor transmission rate (WVTR) of 2 ' 10 %4 g/(m 2 &day) is reported for SiN x multilayer stack and a physical interpretation of the plasma treatment effect is given.

Domaines

Matériaux

Dates et versions

hal-01228629 , version 1 (13-11-2015)

Identifiants

Citer

Subimal Majee, Maria Fátima Cerqueira, Denis Tondelier, Bernard Geffroy, Yvan Bonnassieux, et al.. Influence of low energy argon plasma treatment on the moisture barrier performance of hot wire-CVD grown SiN x multilayers Influence of low energy argon plasma treatment on the moisture barrier performance of hot wire-CVD grown SiN x multilayers. Jpn. J. Appl. Phys, 2014, 53, pp.05FM05. ⟨10.7567/JJAP.53.05FM05⟩. ⟨hal-01228629⟩
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