The error rate in complementary transistor circuits is suppressed exponentially in electron number, arising from an intrinsic physical implementation of fault-tolerant error correction. Contrariwise, explicit assembly of gates into the most efficient known fault-tolerant architecture is characterized by a subexponential suppression of error rate with electron number, and incurs significant overhead in wiring and complexity. We conclude that it is more efficient to prevent logical errors with physical fault tolerance than to correct logical errors with fault-tolerant architecture
Abstract — As silicon circuits quickly approach their physical limitations, researchers are actively...
It is generally expected that nanoelectronic circuits will have to be protected against soft errors ...
Nanoscale processor designs pose new challenges not encountered in the world of conventional CMOS de...
This paper presents a new system architecture for implementing fault-tolerant information processing...
This paper presents the architecture for a nanoelectronic logic system in which a regular array of l...
Nanoelectronics, promising significant boosts in device density, power and performance, has been pro...
In future nanotechnologies failure densities are predicted to be several orders of magnitude higher ...
This paper focuses on the investigation of efficient methods to evaluate circuit fault-tolerance. We...
This paper presents a single-electron tunneling (SET) device implementation of gates needed to build...
The astonishing success story of microelectronics cannot go on indefinitely. In fact, once devices ...
This paper focuses on the investigation of efficient methods to evaluate circuit fault-tolerance. We...
ISBN 978-3-540-73006-4International audienceIn future nanotechnologies failure densities are predict...
Abstract. A reliable circuit-design methodology [6] based on simple feed-forward neural networks (wi...
The progress in CMOS technology has entered the sub-micron realm, and the technology will approach i...
Abstract—Nanoscale processor designs pose new challenges not encountered in the world of conventiona...
Abstract — As silicon circuits quickly approach their physical limitations, researchers are actively...
It is generally expected that nanoelectronic circuits will have to be protected against soft errors ...
Nanoscale processor designs pose new challenges not encountered in the world of conventional CMOS de...
This paper presents a new system architecture for implementing fault-tolerant information processing...
This paper presents the architecture for a nanoelectronic logic system in which a regular array of l...
Nanoelectronics, promising significant boosts in device density, power and performance, has been pro...
In future nanotechnologies failure densities are predicted to be several orders of magnitude higher ...
This paper focuses on the investigation of efficient methods to evaluate circuit fault-tolerance. We...
This paper presents a single-electron tunneling (SET) device implementation of gates needed to build...
The astonishing success story of microelectronics cannot go on indefinitely. In fact, once devices ...
This paper focuses on the investigation of efficient methods to evaluate circuit fault-tolerance. We...
ISBN 978-3-540-73006-4International audienceIn future nanotechnologies failure densities are predict...
Abstract. A reliable circuit-design methodology [6] based on simple feed-forward neural networks (wi...
The progress in CMOS technology has entered the sub-micron realm, and the technology will approach i...
Abstract—Nanoscale processor designs pose new challenges not encountered in the world of conventiona...
Abstract — As silicon circuits quickly approach their physical limitations, researchers are actively...
It is generally expected that nanoelectronic circuits will have to be protected against soft errors ...
Nanoscale processor designs pose new challenges not encountered in the world of conventional CMOS de...