J.Z. Sun
Journal of Applied Physics
We report the microfabrication of a 32×32 (1024) 2D cantilever array chip and its electrical testing. It has been designed for ultrahigh-density, high-speed data storage applications using thermomechanical writing and readout in thin polymer film storage media. The fabricated chip is the first very large scale integration (VLSI)-NEMS (NanoEMS) for nanotechnological applications. For electrical and thermal stability, the levers are made of silicon, and the heater/sensor element is defined as a lower, doped platform with the tip on top. Freestanding cantilevers are obtained with surface-micromachining techniques, which yield better mechanical stability and heatsinking of the chip than bulk-micromachining releasing techniques do. Two-wiring levels interconnect the cantilevers for a time-multiplexed row/column addressing scheme. By integrating a Schottky diode in series with each cantilever, a considerable reduction of crosstalk between cantilevers has been achieved.
J.Z. Sun
Journal of Applied Physics
J.R. Thompson, Yang Ren Sun, et al.
Physica A: Statistical Mechanics and its Applications
A.B. McLean, R.H. Williams
Journal of Physics C: Solid State Physics
Douglass S. Kalika, David W. Giles, et al.
Journal of Rheology