Study of dc micro-discharge arrays made in silicon using CMOS compatible technology
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Kulsreshath, M. K.
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Univ Orleans, GREMI, UMR 6066, F-45067 Orleans, FranceUniv Orleans, GREMI, UMR 6066, F-45067 Orleans, France
Kulsreshath, M. K.
[1
]
Schwaederle, L.
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Univ Orleans, GREMI, UMR 6066, F-45067 Orleans, FranceUniv Orleans, GREMI, UMR 6066, F-45067 Orleans, France
Schwaederle, L.
[1
]
Overzet, L. J.
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Univ Texas Dallas, PSAL, Richardson, TX 75083 USAUniv Orleans, GREMI, UMR 6066, F-45067 Orleans, France
Overzet, L. J.
[2
]
Lefaucheux, P.
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Univ Orleans, GREMI, UMR 6066, F-45067 Orleans, FranceUniv Orleans, GREMI, UMR 6066, F-45067 Orleans, France
Lefaucheux, P.
[1
]
Ladroue, J.
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Univ Orleans, GREMI, UMR 6066, F-45067 Orleans, France
STMicroelectronics, F-37071 Tours, FranceUniv Orleans, GREMI, UMR 6066, F-45067 Orleans, France
Ladroue, J.
[1
,4
]
Tillocher, T.
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Univ Orleans, GREMI, UMR 6066, F-45067 Orleans, FranceUniv Orleans, GREMI, UMR 6066, F-45067 Orleans, France
Tillocher, T.
[1
]
Aubry, O.
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Univ Orleans, GREMI, UMR 6066, F-45067 Orleans, FranceUniv Orleans, GREMI, UMR 6066, F-45067 Orleans, France
Aubry, O.
[1
]
Woytasik, M.
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Univ Paris 11, Laboratoire IEF, CNRS, UMR 8622, F-91405 Orsay, FranceUniv Orleans, GREMI, UMR 6066, F-45067 Orleans, France
Woytasik, M.
[3
]
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Schelcher, G.
[3
]
Dussart, R.
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Univ Orleans, GREMI, UMR 6066, F-45067 Orleans, FranceUniv Orleans, GREMI, UMR 6066, F-45067 Orleans, France
Dussart, R.
[1
]
机构:
[1] Univ Orleans, GREMI, UMR 6066, F-45067 Orleans, France
[2] Univ Texas Dallas, PSAL, Richardson, TX 75083 USA
[3] Univ Paris 11, Laboratoire IEF, CNRS, UMR 8622, F-91405 Orsay, France
In this paper we present the fabrication technology used to make micro-discharge 'reactors' on a silicon (Si) substrate. For the fabrication of these reactors we have used Si wafers with 4 inch diameter and standard cleanroom facilities. The fabrication technology used is compatible with standard CMOS device fabrication and the fabricated micro-discharge reactors can be used to produce dc discharges. These micro-discharges operate at near atmospheric pressure. They were given ring-shaped anodes separated from the cathode by a SiO2 dielectric with a thickness of approximately 5-6 mu m rather than the much more common similar to 100 mu m. The micro-discharge reactors can consist of either a single hole or multiple holes and we have built devices with holes from 25 to 150 mu m in diameter. The micro-discharge measurements were obtained for helium and argon dc plasmas between 100 and 1000 Torr. We used a single ballast resistor to produce micro-discharges in multi-hole array. This resistor also acted to limit the discharge power. An average current density of 0.8A cm(-2) was calculated for the 1024 holes array with 100 mu m diameter holes. In addition, we will report on stability of micro-discharges depending on the cavity configuration of the micro-reactors and the ignition trends for the micro-discharge arrays. Finally, we discuss the life time of micro-discharge arrays as well as the factors affecting them (cathode sputtering, thermally affected zones, etc).
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[1]
[Anonymous], 2005, PRINCIPLES PLASMA DI, DOI [10.1002/0471724254, DOI 10.1002/0471724254]