Moisture diffusion in plasma-enhanced chemical vapor deposition dielectrics characterized with three techniques under clean room conditions

•Mass, stress and infrared spectroscopy monitoring yield similar diffusion coefficient.•Moisture uptake can be significant even at clean room conditions for dielectrics.•A dual stage model seems to be more adapted to model moisture diffusion. Absorption of moisture by thin dielectric materials alter...

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Veröffentlicht in:Thin solid films 2020-03, Vol.698, p.137874, Article 137874
Hauptverfasser: Cartailler, Vivien, Imbert, Grégory, Rochat, Névine, Chaton, Catherine, Vo-Thanh, Du, Benoit, Daniel, Duchamp, Geneviève, Frémont, Hélène
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container_start_page 137874
container_title Thin solid films
container_volume 698
creator Cartailler, Vivien
Imbert, Grégory
Rochat, Névine
Chaton, Catherine
Vo-Thanh, Du
Benoit, Daniel
Duchamp, Geneviève
Frémont, Hélène
description •Mass, stress and infrared spectroscopy monitoring yield similar diffusion coefficient.•Moisture uptake can be significant even at clean room conditions for dielectrics.•A dual stage model seems to be more adapted to model moisture diffusion. Absorption of moisture by thin dielectric materials alters their properties and can cause several reliability issues. Even at standard room temperature and low humidity level, some dielectric materials are sensitive to moisture. In this study, moisture diffusion in two plasma-enhanced chemical vapor deposition (PECVD) films is investigated with three measurement methods to determine diffusion coefficients and saturated moisture concentrations: mass measurements, bending radius of curvature measurements and infrared spectroscopy. The two PECVD silicon dioxides are deposited at 200 °C and 400 °C. They were exposed to moisture in clean room environment (21 °C and 40% relative humidity) for about 800 h. The present results confirm that mass measurements, bending radius of curvature measurements and infrared spectroscopy can be used to monitor thin dielectric films in these environmental conditions. They lead to similar values for the diffusion coefficient. These values are in the range of [1.5–4.2] × 10−15 cm² s−1 for the 200 °C film and [2.3–3.6] × 10−15 cm² s−1 for the 400 °C one. Saturated moisture concentrations confirm that the two dielectrics are sensitive to moisture even at 21 °C, 40% relative humidity. Besides, the results show that standard fickean behavior does not provide the best fit to model water diffusion for some dielectric films. A dual stage model that appears to be more adapted is finally introduced.
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Absorption of moisture by thin dielectric materials alters their properties and can cause several reliability issues. Even at standard room temperature and low humidity level, some dielectric materials are sensitive to moisture. In this study, moisture diffusion in two plasma-enhanced chemical vapor deposition (PECVD) films is investigated with three measurement methods to determine diffusion coefficients and saturated moisture concentrations: mass measurements, bending radius of curvature measurements and infrared spectroscopy. The two PECVD silicon dioxides are deposited at 200 °C and 400 °C. They were exposed to moisture in clean room environment (21 °C and 40% relative humidity) for about 800 h. The present results confirm that mass measurements, bending radius of curvature measurements and infrared spectroscopy can be used to monitor thin dielectric films in these environmental conditions. They lead to similar values for the diffusion coefficient. 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subjects Engineering Sciences
Materials Science
Materials Science, Coatings & Films
Materials Science, Multidisciplinary
Micro and nanotechnologies
Microelectronics
Moisture diffusion
Physical Sciences
Physics
Physics, Applied
Physics, Condensed Matter
Plasma-enhanced chemical vapor deposition
Science & Technology
Silicon oxide
Technology
Thin dielectric film
title Moisture diffusion in plasma-enhanced chemical vapor deposition dielectrics characterized with three techniques under clean room conditions
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