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Implementing Adaptive Voltage Over-Scaling: Algorithmic Noise Tolerance vs. Approximate Error Detection
by
Rizzo, Roberto Giorgio
, Calimera, Andrea
in
Adaptive algorithms
/ algorithm noise tolerance
/ approximate circuit
/ approximate error detection correction
/ Approximation
/ Architecture
/ CMOS
/ Digital electronics
/ Electric potential
/ Energy consumption
/ Energy efficiency
/ Error correction & detection
/ Error detection
/ error resilient applications
/ Mathematical analysis
/ Noise
/ Noise tolerance
/ Qualitative analysis
/ Quantitative analysis
/ reduced precision redundancy
/ Voltage
/ voltage scaling
2019
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Implementing Adaptive Voltage Over-Scaling: Algorithmic Noise Tolerance vs. Approximate Error Detection
by
Rizzo, Roberto Giorgio
, Calimera, Andrea
in
Adaptive algorithms
/ algorithm noise tolerance
/ approximate circuit
/ approximate error detection correction
/ Approximation
/ Architecture
/ CMOS
/ Digital electronics
/ Electric potential
/ Energy consumption
/ Energy efficiency
/ Error correction & detection
/ Error detection
/ error resilient applications
/ Mathematical analysis
/ Noise
/ Noise tolerance
/ Qualitative analysis
/ Quantitative analysis
/ reduced precision redundancy
/ Voltage
/ voltage scaling
2019
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Do you wish to request the book?
Implementing Adaptive Voltage Over-Scaling: Algorithmic Noise Tolerance vs. Approximate Error Detection
by
Rizzo, Roberto Giorgio
, Calimera, Andrea
in
Adaptive algorithms
/ algorithm noise tolerance
/ approximate circuit
/ approximate error detection correction
/ Approximation
/ Architecture
/ CMOS
/ Digital electronics
/ Electric potential
/ Energy consumption
/ Energy efficiency
/ Error correction & detection
/ Error detection
/ error resilient applications
/ Mathematical analysis
/ Noise
/ Noise tolerance
/ Qualitative analysis
/ Quantitative analysis
/ reduced precision redundancy
/ Voltage
/ voltage scaling
2019
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Implementing Adaptive Voltage Over-Scaling: Algorithmic Noise Tolerance vs. Approximate Error Detection
Journal Article
Implementing Adaptive Voltage Over-Scaling: Algorithmic Noise Tolerance vs. Approximate Error Detection
2019
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Overview
Adaptive Voltage Over-Scaling can be applied at run-time to reach the best tradeoff between quality of results and energy consumption. This strategy encompasses the concept of timing speculation through some level of approximation. How and on which part of the circuit to implement such approximation is an open issue. This work introduces a quantitative comparison between two complementary strategies: Algorithmic Noise Tolerance and Approximate Error Detection. The first implements a timing speculation by means approximate computing, while the latter exploits a more sophisticated approach that is based on the approximation of the error detection mechanism. The aim of this study was to provide both a qualitative and quantitative analysis on two real-life digital circuits mapped onto a state-of-the-art 28-nm CMOS technology.
Publisher
MDPI AG
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