Experimental Study of Control of Human Body Electrostatic Discharge (ESD) Using Passive and Active Guard Electrodes
William D. Greason
Abstract
William D. Greason
Abstract
The electrostatic discharge (ESD) characteristics of a three-body problem comprised of a charged human body approaching an electronic system with an interposed guard electrode are investigated. Capacitance coefficients were measured for various three conductor arrangements; for an assumed charge on the human body, body potentials were calculated and the relative effectiveness of different guard electrode geometries to control the ESD event compared. The results provide a better understanding of the fundamental principles involved in the ESD event involving three bodies and have application in the design of interfaces between the charged human body and electronic systems.
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The electrostatic discharge (ESD) characteristics of a three-body problem comprised of a charged human body approaching an electronic system with an interposed guard electrode are investigated. Capacitance coefficients were measured for various three conductor arrangements; for an assumed charge on the human body, body potentials were calculated and the relative effectiveness of different guard electrode geometries to control the ESD event compared. The results provide a better understanding of the fundamental principles involved in the ESD event involving three bodies and have application in the design of interfaces between the charged human body and electronic systems.
Key concepts: Electrostatic discharge, Electrode, Guard (computer science), Conductor, Capacitance, Human-body model, Electrical engineering, Electrostatics