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Structural Coding: A Low-Cost Scheme to Protect CNNs from Large-Granularity Memory Faults
DescriptionThe advent of High Performance Computing has led to the adoption of Convolutional Neural Networks (CNNs) in safety-critical applications such as autonomous vehicles. However, CNNs are vulnerable to DRAM errors corrupting their parameters, thereby degrading their accuracy. Existing techniques for protecting CNNs from DRAM errors are either expensive or fail to protect from large-granularity, multi-bit errors, which occur commonly in DRAMs.
We propose a software-implemented coding scheme, Structural Coding (SC) for protecting CNNs from large-granularity memory errors. SC achieves three orders of magnitude reduction in Silent Data Corruption (SDC) rates of CNNs compared to no protection. Its average error correction coverage is also higher than other software-techniques to protect CNNs from faults in the memory. Further, its average performance, memory, and energy overheads are respectively 3%, 15.71%, and 4.38%. These overheads are much lower than other software protection techniques.
We propose a software-implemented coding scheme, Structural Coding (SC) for protecting CNNs from large-granularity memory errors. SC achieves three orders of magnitude reduction in Silent Data Corruption (SDC) rates of CNNs compared to no protection. Its average error correction coverage is also higher than other software-techniques to protect CNNs from faults in the memory. Further, its average performance, memory, and energy overheads are respectively 3%, 15.71%, and 4.38%. These overheads are much lower than other software protection techniques.
Event Type
Paper
TimeThursday, 16 November 20231:30pm - 2pm MST
Location401-402
Accelerators
Artificial Intelligence/Machine Learning
Codesign
Fault Handling and Tolerance
Performance Measurement, Modeling, and Tools
Post-Moore Computing
TP
