Time-resolved plasma parameter measurements in a low-frequency rf glow discharge

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Abstract

A new approach to the use of Langmuir probes in a rf driven plasma is presented. The periodic nature of the rf is utilized to overcome the distortion of the probe characteristics caused by averaging over many rf cycles. Time-resolved measurements of the electron density, electron temperature, plasma potential, and floating potential in the negative portion of the rf cycle are obtained. The technique is used to characterize a low-pressure 100-kHz capacitively coupled rf argon discharge. The measured electron temperature is found to be approximately 0.5 eV.

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APA

Anderson, C. A., Graham, W. G., & Hopkins, M. B. (1988). Time-resolved plasma parameter measurements in a low-frequency rf glow discharge. Applied Physics Letters, 52(10), 783–785. https://doi.org/10.1063/1.99283

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