Si anodic dissolution in acidic fluoride medium has been investigated in different regimes (porous silicon formation, electropolishing under stationary and oscillating current) by probe beam deflection (PBD) or the “mirage” technique. Evolution of deflection signal allows monitoring of dissolution processes both under polarization and at open circuit, providing for example an estimate of the oxide etch-back times during open circuit corrosion. The time evolution of deflection signal during current oscillations reveals components resulting from electrochemical film formation and chemical dissolution. The PBD technique shows larger etching rates for the less passivating film (low potential) and smaller etching rates for the better passivating...
Chemical dissolution processes coupled to anodic oxide growth taking place by a "high-field" conduct...
Anodic dissolution of p-Si is studied in diluted fluoride solution (HF 0.05M+NH4F 0.05 M, pH 3), wit...
The anodic saturation current density of an n-type Si or Ge electrode is considerably larger in chem...
The ‘mirage’ or probe beam deflection (PBD) technique has been used to investigate Si dissolution in...
In this work the mechanical effects and the mirage associated with the formation and dissolution of ...
Electrochemical probe beam deflection (EPBD) was used to investigate the behaviour of a silver elect...
The changes of the surface topography of float zone FZ n Si 111 upon conditioning of the electro...
We report on the in-situ determination of stress in anodic oxide films produced during electrodissol...
The present experience of the electrochemical dissolution of silicon and previous assumptions upon t...
We report on the in-situ determination of stress in anodic oxide films produced during electrodissol...
This study investigates the mechanism responsible for the electrochemical oscillations during silico...
Periodic current oscillations during anodic dissolution of monocrystalline p-Si(100) in buffered amm...
The dissolution processes involved in the formation of porous films in sulfuric acid have been studi...
10.1557/opl.2013.601Materials Research Society Symposium Proceedings154281-86MRSP
Copyright © 2013 Adriana Gutiérrez et al. This is an open access article distributed under the Creat...
Chemical dissolution processes coupled to anodic oxide growth taking place by a "high-field" conduct...
Anodic dissolution of p-Si is studied in diluted fluoride solution (HF 0.05M+NH4F 0.05 M, pH 3), wit...
The anodic saturation current density of an n-type Si or Ge electrode is considerably larger in chem...
The ‘mirage’ or probe beam deflection (PBD) technique has been used to investigate Si dissolution in...
In this work the mechanical effects and the mirage associated with the formation and dissolution of ...
Electrochemical probe beam deflection (EPBD) was used to investigate the behaviour of a silver elect...
The changes of the surface topography of float zone FZ n Si 111 upon conditioning of the electro...
We report on the in-situ determination of stress in anodic oxide films produced during electrodissol...
The present experience of the electrochemical dissolution of silicon and previous assumptions upon t...
We report on the in-situ determination of stress in anodic oxide films produced during electrodissol...
This study investigates the mechanism responsible for the electrochemical oscillations during silico...
Periodic current oscillations during anodic dissolution of monocrystalline p-Si(100) in buffered amm...
The dissolution processes involved in the formation of porous films in sulfuric acid have been studi...
10.1557/opl.2013.601Materials Research Society Symposium Proceedings154281-86MRSP
Copyright © 2013 Adriana Gutiérrez et al. This is an open access article distributed under the Creat...
Chemical dissolution processes coupled to anodic oxide growth taking place by a "high-field" conduct...
Anodic dissolution of p-Si is studied in diluted fluoride solution (HF 0.05M+NH4F 0.05 M, pH 3), wit...
The anodic saturation current density of an n-type Si or Ge electrode is considerably larger in chem...