Multiscale System Modeling of Single-Event-Induced Faults in Advanced Node Processors

Autor: Dolores A. Black, Matthew J. Marinella, Jeffrey D. Black, Micahel Skoufis, Luis Bustamante, Heather Quinn, Hugh J. Barnaby, Matthew Breeding, Sapan Agarwal, Ben Feinberg, Michael Lee McLain, Lawrence T. Clark, John Brunhaver, Arun Rodrigues, Matthew Cannon
Rok vydání: 2021
Předmět:
Zdroj: IEEE Transactions on Nuclear Science. 68:980-990
ISSN: 1558-1578
0018-9499
DOI: 10.1109/tns.2021.3071653
Popis: Integration-technology feature shrink increases computing-system susceptibility to single-event effects (SEE). While modeling SEE faults will be critical, an integrated processor’s scope makes physically correct modeling computationally intractable. Without useful models, presilicon evaluation of fault-tolerance approaches becomes impossible. To incorporate accurate transistor-level effects at a system scope, we present a multiscale simulation framework. Charge collection at the 1) device level determines 2) circuit-level transient duration and state-upset likelihood. Circuit effects, in turn, impact 3) register-transfer-level architecture-state corruption visible at 4) the system level. Thus, the physically accurate effects of SEEs in large-scale systems, executed on a high-performance computing (HPC) simulator, could be used to drive cross-layer radiation hardening by design. We demonstrate the capabilities of this model with two case studies. First, we determine a D flip-flop’s sensitivity at the transistor level on 14-nm FinFet technology, validating the model against published cross sections. Second, we track and estimate faults in a microprocessor without interlocked pipelined stages (MIPS) processor for Adams 90% worst case environment in an isotropic space environment.
Databáze: OpenAIRE