SAFFIRA A Framework for Assessing the Reliability of Systolic-Array DNN Accelerators

Systolic array has emerged as a prominent architecture for Deep Neural Network (DNN) hardware accelerators, providing high-throughput and low-latency performance essential for deploying DNNs across diverse applications. However, when used in safety-critical applications, reliability assessment is mandatory to guarantee the correct behavior of DNN accelerators. While fault injection stands out as a well-established practical and robust method for reliability assessment, it is still a very time-consuming process. This paper addresses the time efficiency issue by introducing a novel hierarchical software-based hardware-aware fault injection strategy tailored for systolic array-based DNN accelerators. A Uniform Recurrent Equations system is used for software modeling of the systolic-array core of the DNN accelerators. The approach demonstrates a reduction of the fault injection time up to [Formula: see text] compared to the state-of-the-art hybrid (software/hardware) hardware-aware fault injection frameworks and more than [Formula: see text] compared to RT-level fault injection frameworks without compromising the accuracy from the application level. Additionally, we introduce novel reliability metrics to better evaluate the robustness of a deep neural network system. The performance of the framework is studied on state-of-the-art DNN benchmarks.

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Publication Details

Journal
Journal of Circuits Systems and Computers
Published
2025-07-16
DOI
https://doi.org/10.1142/s0218126625430017
Primary Topic
Particle Detector Development and Performance
Type
article
Field-Weighted Citation Impact
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article

SAFFIRA A Framework for Assessing the Reliability of Systolic-Array DNN Accelerators

Jaan Raik, Salvatore Pappalardo, Nicolò Bellarmino, Maksim Jenihhin et al.
1 links
Journal of Circuits Systems and Computers
Particle Detector Development and Performance
article

SAFFIRA A Framework for Assessing the Reliability of Systolic-Array DNN Accelerators

Jaan Raik, Salvatore Pappalardo, Nicolò Bellarmino, Maksim Jenihhin, Masoud Daneshtalab, Alberto Bosio, Bastien Deveautour
article en

Abstract

Systolic array has emerged as a prominent architecture for Deep Neural Network (DNN) hardware accelerators, providing high-throughput and low-latency performance essential for deploying DNNs across diverse applications. However, when used in safety-critical applications, reliability assessment is mandatory to guarantee the correct behavior of DNN accelerators. While fault injection stands out as a well-established practical and robust method for reliability assessment, it is still a very time-consuming process. This paper addresses the time efficiency issue by introducing a novel hierarchical software-based hardware-aware fault injection strategy tailored for systolic array-based DNN accelerators. A Uniform Recurrent Equations system is used for software modeling of the systolic-array core of the DNN accelerators. The approach demonstrates a reduction of the fault injection time up to [Formula: see text] compared to the state-of-the-art hybrid (software/hardware) hardware-aware fault injection frameworks and more than [Formula: see text] compared to RT-level fault injection frameworks without compromising the accuracy from the application level. Additionally, we introduce novel reliability metrics to better evaluate the robustness of a deep neural network system. The performance of the framework is studied on state-of-the-art DNN benchmarks.

Journal of Circuits Systems and ComputersVol. 34(18)
Université Claude Bernard Lyon 1 (FR), Tallinn University of Technology (EE), École Centrale de Lyon (FR), Centre National de la Recherche Scientifique (FR), Politecnico di Torino (IT), Institut des Nanotechnologies de Lyon (FR), Institut d'Électronique et des Technologies du numéRique (FR), Mälardalen University (SE), Institut National des Sciences Appliquées de Lyon (FR), Brandenburg University of Technology Cottbus-Senftenberg (DE), Nantes Université (FR)
Openalex Percentile: Top 92%
Particle Detector Development and Performance
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