Jan Balewski, Z. Liu, A. Tsyplikhin, Manuel Lopez Roland, Kristofer E Bouchard
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Time-series ML-regression on Graphcore IPU-M2000 and Nvidia A100
We compare the ML-training performance of a Graphcore IPU-M2000-based system with Nvidia A100 GPU-based system on the Perlmutter HPC machine at NERSC/LBL. The multivariate regression of time series data from a simulated biological neuron was the scientific benchmark problem. The ML-model consisted of several convolutional, batch normalization, and fully connected layers. The training data were distributed in CPUs memory to eliminate the system dependent IO cost. The data-parallel training runs resulted in the same samples throughput on both GC200 IPUs and A100 GPUs for any choice of the number of accelerators between 1 and 256. The achieved best MSE validation loss on IPUs was only 10% to 20% larger. The aggregated energy use per 1 training epoch was between 2.5 to 3 times smaller for the Graphcore system in comparison to the Nvidia system. This paper also discusses aspects of software-hardware co-design to achieve highest efficiency on the IPU using PopTorch.