Performance measurement and data base design
Alfonso P. Cardenas, Larry F. Bowman, et al.
ACM Annual Conference 1975
Advanced molecular nanotechnology devices are predicted to have exceedingly high transient fault rates and large numbers of inherent device defects compared to conventional CMOS devices. We describe and evaluate the Recursive NanoBox Processor Grid as an application specific, fault-tolerant, parallel computing system designed for fabrication with unreliable nanotechnology devices. In this study we construct hardware description language models of a NanoBox Processor cell and evaluate the effectiveness of our recursive fault masking approach in the presence of random errors. Our analysis shows that complex circuits constructed with encoded lookup tables can operate correctly despite 2% of the nodes being in error. The circuits operate partially correct with up to 4% of the nodes being in error. © 2006 IEEE.
Alfonso P. Cardenas, Larry F. Bowman, et al.
ACM Annual Conference 1975
Corneliu Constantinescu
SPIE Optical Engineering + Applications 2009
György E. Révész
Theoretical Computer Science
J.P. Locquet, J. Perret, et al.
SPIE Optical Science, Engineering, and Instrumentation 1998