Nanoindentation technique for characterizing cantilever beam style RF microelectromechanical systems (MEMS) switches
Hyukjae Lee, Ronald A CoutuJr, S. Mall, P.E. Kladitis
Abstract
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Hyukjae Lee, Ronald A CoutuJr, S. Mall, P.E. Kladitis
Abstract
Open-access reader
A nanoindentation technique was used to mechanically actuate a radio frequency micro-switch along with the measurement of contact resistance to investigate its applicability to characterize deflection and contact resistance behaviors of micro-sized cantilever beam switches. The resulting load–displacement relationship showed a discontinuity in slope when the micro-switch closed. The measured spring constants reasonably agreed with theoretical values obtained from the simple beam models. The change in contact resistance during test clearly indicated micro-switch closure but it did not coincide exactly with the physical contact between two electric contacts due to a resistive contaminated film.
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A nanoindentation technique was used to mechanically actuate a radio frequency micro-switch along with the measurement of contact resistance to investigate its applicability to characterize deflection and contact resistance behaviors of micro-sized cantilever beam switches. The resulting load–displacement relationship showed a discontinuity in slope when the micro-switch closed. The measured spring constants reasonably agreed with theoretical values obtained from the simple beam models. The change in contact resistance during test clearly indicated micro-switch closure but it did not coincide exactly with the physical contact between two electric contacts due to a resistive contaminated film.
Key concepts: Cantilever, Nanoindentation, Microelectromechanical systems, Materials science, Resistive touchscreen, Deflection (physics), Discontinuity (linguistics), Contact resistance