YOGA: Deep Object Detection in the Wild with Lightweight Feature Learning and Multiscale Attention
Abstract
We introduce YOGA, a deep learning based yet lightweight object detection model that can operate on low-end edge devices while still achieving competitive accuracy. The YOGA architecture consists of a two-phase feature learning pipeline with a cheap linear transformation, which learns feature maps using only half of the convolution filters required by conventional convolutional neural networks. In addition, it performs multi-scale feature fusion in its neck using an attention mechanism instead of the naive concatenation used by conventional detectors. YOGA is a flexible model that can be easily scaled up or down by several orders of magnitude to fit a broad range of hardware constraints. We evaluate YOGA on COCO-val and COCO-testdev datasets with other over 10 state-of-the-art object detectors. The results show that YOGA strikes the best trade-off between model size and accuracy (up to 22% increase of AP and 23-34% reduction of parameters and FLOPs), making it an ideal choice for deployment in the wild on low-end edge devices. This is further affirmed by our hardware implementation and evaluation on NVIDIA Jetson Nano.
Cite
@article{arxiv.2307.05945,
title = {YOGA: Deep Object Detection in the Wild with Lightweight Feature Learning and Multiscale Attention},
author = {Raja Sunkara and Tie Luo},
journal= {arXiv preprint arXiv:2307.05945},
year = {2023}
}
Comments
Published in Pattern Recognition (Elsevier), July 2023