ResISC: Residue Number System-Based Integrated Sensing and Computing for Efficient Edge AI

This paper presents ResISC, an RNS-based integrated sensing and computing architecture enabling efficient edge AI. ResISC platform features (i) an in-sensor residue encoder converting images directly to RNS in the analog domain, (ii) an energy-efficient RNS-based processing-near-sensor CNN accelerator utilizing SOT-MRAM, and (iii) an innovative mixed-radix unit for efficient activation operations. By employing selective channel deactivation, ResISC reduces computation overhead by up to $89 \%$, while achieving a $3.4 \times$ improvement in power efficiency and up to a $71 \times$ reduction in execution time compared to processing-in-MRAM platforms. Experiments on various datasets demonstrate that ResISC achieves competitive accuracy levels (up to $94.63 \%$ on CIFAR-10) with minimal degradation, making it an ideal solution for power-constrained, real-time edge applications.

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Publication Details

Published
2025-06-22
DOI
https://doi.org/10.1109/dac63849.2025.11132797
Primary Topic
Chaos-based Image/Signal Encryption
Type
article
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article

ResISC: Residue Number System-Based Integrated Sensing and Computing for Efficient Edge AI

Sepehr Tabrizchi, Sima Sohrabi, Mohammad Sajid Mohammadi, Shaahin Angizi et al.
Chaos-based Image/Signal Encryption
article

ResISC: Residue Number System-Based Integrated Sensing and Computing for Efficient Edge AI

Sepehr Tabrizchi, Sima Sohrabi, Mohammad Sajid Mohammadi, Shaahin Angizi, Arman Roohi, Ramtin Zand
article en

Abstract

This paper presents ResISC, an RNS-based integrated sensing and computing architecture enabling efficient edge AI. ResISC platform features (i) an in-sensor residue encoder converting images directly to RNS in the analog domain, (ii) an energy-efficient RNS-based processing-near-sensor CNN accelerator utilizing SOT-MRAM, and (iii) an innovative mixed-radix unit for efficient activation operations. By employing selective channel deactivation, ResISC reduces computation overhead by up to $89 \%$, while achieving a $3.4 \times$ improvement in power efficiency and up to a $71 \times$ reduction in execution time compared to processing-in-MRAM platforms. Experiments on various datasets demonstrate that ResISC achieves competitive accuracy levels (up to $94.63 \%$ on CIFAR-10) with minimal degradation, making it an ideal solution for power-constrained, real-time edge applications.

New Jersey Institute of Technology (US), University of South Carolina (US), University of Illinois Chicago (US)
Openalex Percentile: Top 76%
Chaos-based Image/Signal Encryption
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