aiqbench analysis
This research introduces W16A16, a novel quantization technique enabling 16-bit precision inference on resource-constrained Armv7E-M microcontrollers without sacrificing speed or energy efficiency. By achieving significantly lower quantization errors than standard 8-bit schemes, the method addresses critical bottlenecks in deploying high-accuracy deep neural networks for edge AI applications.
16-bit Precision of Convolutional Neural Networks on Microcontroller Units for 8-bit Costs
arXiv:2610.03402v1 Announce Type: new Abstract: To deploy deep neural networks on edge hardware, highly efficient inference schemes are necessary that retain high accuracy. This work presents W16A16, a high precision (16-bit), fast speed, low energy quantization method. On a widely applied microcontroller architecture Armv7E-M, our proposed approach achieves faster speed and lower energy consumption on layer- and model-level compared to alternative quantization schemes. We analyze the architecture of Armv7E-M, explain the underlying principles behind the performance advantages of 16-bit approaches, and evaluate the empiric quantization errors for regression and classification tasks, as well as empiric time- and energy consumption in MCU deployment. We observe ca.\ 10 times lower quantization errors compared to 8-bit quantization schemes while achieving similar or better inference times and energy consumption.
Abstract:To deploy deep neural networks on edge hardware, highly efficient inference schemes are necessary that retain high accuracy. This work presents W16A16, a high precision (16-bit), fast speed, low energy quantization method. On a widely applied microcontroller architecture Armv7E-M, our proposed approach achieves faster speed and lower energy consumption on layer- and model-level compared to alternative quantization schemes. We analyze the architecture of Armv7E-M, explain the underlying principles behind the performance advantages of 16-bit approaches, and evaluate the empiric quantization errors for regression and classification tasks, as well as empiric time- and energy consumption in MCU deployment. We observe ca.\ 10 times lower quantization errors compared to 8-bit quantization schemes while achieving similar or better inference times and energy consumption.
Machine Learning (cs.LG)
arXiv:2610.03402 [cs.LG]
(or arXiv:2610.03402v1 [cs.LG] for this version)
https://doi.org/10.48550/arXiv.2610.03402 Focus to learn more arXiv-issued DOI via DataCite (pending registration)
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