Artificial Intelligence hardware accelerators are pervading the chip market. Most of the time, they are third-party IPs integrated by silicon manufacturers. As a consequence, their design may be obfuscated, which can introduce issues from a manufacturing testing perspective. This paper illustrates how to effectively and efficiently select the most appropriate functional stress stimuli for Artificial Intelligence (AI) Hardware (HW) Accelerators embedded in System-on-Chip (SoC). The proposed methodology is netlist independent; and it is based on both current measurements from the real chip and architectural evaluations. These ingredients are heuristically used to rank and sift the optimal functional patterns to apply along the Burn-In (BI) phase. Experimental results on two different Automotive SoCs manufactured by STMicroelectronics, demonstrate the effectiveness and efficiency of the proposed method.

Netlist-Independent Functional Stress Pattern generation strategy for AI HW Accelerators embedded into SoCs / Filipponi, Gabriele; Schwachhofer, Denis; Angione, Francesco; Bertani, Claudia; Corbellini, Simone; Di Gruttola Giardino, Nicola; Garozzo, Giuseppe; Insinga, Giorgio; Tancorre, Vincenzo; Bernardi, Paolo. - In: IEEE TRANSACTIONS ON COMPUTERS. - ISSN 1557-9956. - (In corso di stampa).

Netlist-Independent Functional Stress Pattern generation strategy for AI HW Accelerators embedded into SoCs

Gabriele Filipponi;Francesco Angione;Simone Corbellini;Nicola di Gruttola Giardino;Giorgio Insinga;Paolo Bernardi
In corso di stampa

Abstract

Artificial Intelligence hardware accelerators are pervading the chip market. Most of the time, they are third-party IPs integrated by silicon manufacturers. As a consequence, their design may be obfuscated, which can introduce issues from a manufacturing testing perspective. This paper illustrates how to effectively and efficiently select the most appropriate functional stress stimuli for Artificial Intelligence (AI) Hardware (HW) Accelerators embedded in System-on-Chip (SoC). The proposed methodology is netlist independent; and it is based on both current measurements from the real chip and architectural evaluations. These ingredients are heuristically used to rank and sift the optimal functional patterns to apply along the Burn-In (BI) phase. Experimental results on two different Automotive SoCs manufactured by STMicroelectronics, demonstrate the effectiveness and efficiency of the proposed method.
In corso di stampa
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Utilizza questo identificativo per citare o creare un link a questo documento: https://hdl.handle.net/11583/3004589