YOLOv9: Learning What You Want to Learn Using Programmable Gradient
  Information
Today's deep learning methods focus on how to design the most appropriate
objective functions so that the prediction results of the model can be closest
to the ground truth. Meanwhile, an appropriate architecture that can facilitate
acquisition of enough information for prediction has to be designed. Existing
methods ignore a fact that when input data undergoes layer-by-layer feature
extraction and spatial transformation, large amount of information will be
lost. This paper will delve into the important issues of data loss when data is
transmitted through deep networks, namely information bottleneck and reversible
functions. We proposed the concept of programmable gradient information (PGI)
to cope with the various changes required by deep networks to achieve multiple
objectives. PGI can provide complete input information for the target task to
calculate objective function, so that reliable gradient information can be
obtained to update network weights. In addition, a new lightweight network
architecture -- Generalized Efficient Layer Aggregation Network (GELAN), based
on gradient path planning is designed. GELAN's architecture confirms that PGI
has gained superior results on lightweight models. We verified the proposed
GELAN and PGI on MS COCO dataset based object detection. The results show that
GELAN only uses conventional convolution operators to achieve better parameter
utilization than the state-of-the-art methods developed based on depth-wise
convolution. PGI can be used for variety of models from lightweight to large.
It can be used to obtain complete information, so that train-from-scratch
models can achieve better results than state-of-the-art models pre-trained
using large datasets, the comparison results are shown in Figure 1. The source
codes are at: https://github.com/WongKinYiu/yolov9.
65d755fda92913cc5393a311
Chien-Yao Wang
65d755fda92913cc5393a312
I-Hau Yeh
65d755fda92913cc5393a313
Hong-Yuan Mark Liao
YOLOv9: Learning What You Want to Learn Using Programmable Gradient
  Information
Today's deep learning methods focus on how to design the most appropriate
objective functions so that the prediction results of the model can be closest
to the ground truth. Meanwhile, an appropriate architecture that can facilitate
acquisition of enough information for prediction has to be designed. Existing
methods ignore a fact that when input data undergoes layer-by-layer feature
extraction and spatial transformation, large amount of information will be
lost. This paper will delve into the important issues of data loss when data is
transmitted through deep networks, namely information bottleneck and reversible
functions. We proposed the concept of programmable gradient information (PGI)
to cope with the various changes required by deep networks to achieve multiple
objectives. PGI can provide complete input information for the target task to
calculate objective function, so that reliable gradient information can be
obtained to update network weights. In addition, a new lightweight network
architecture -- Generalized Efficient Layer Aggregation Network (GELAN), based
on gradient path planning is designed. GELAN's architecture confirms that PGI
has gained superior results on lightweight models. We verified the proposed
GELAN and PGI on MS COCO dataset based object detection. The results show that
GELAN only uses conventional convolution operators to achieve better parameter
utilization than the state-of-the-art methods developed based on depth-wise
convolution. PGI can be used for variety of models from lightweight to large.
It can be used to obtain complete information, so that train-from-scratch
models can achieve better results than state-of-the-art models pre-trained
using large datasets, the comparison results are shown in Figure 1. The source
codes are at: https://github.com/WongKinYiu/yolov9.
The paper addresses data loss in deep networks through programmable gradient information (PGI) and introduces the Generalized Efficient Layer Aggregation Network (GELAN) to improve parameter utilization and achieve competitive results in object detection.
information bottleneck reversible functions programmable gradient information (PGI) Generalized Efficient Layer Aggregation Network (GELAN) gradient path planning MS COCO train-from-scratch depth-wise convolution