ACORN+: Adaptive Compression-Reconstruction for Device-Cloud Collaboration Video Services

With the improvement of edge-based autonomous systems such as mobile Industrial IoT (IIoT) networks, edge devices can capture and upload videos with increasing bitrates. Massive edge-computing end nodes are eager for adequate multimedia data to satisfy the requirements of real-time video services. However, existing encoding standards for video services in Web 2.0 are specifically designed for something other than IoT video streaming. We have improved our Adaptive Compression-Reconstruction (ACORN) framework to obtain ACORN+, based on compressed sensing and recent advances in deep learning. At end nodes, we compress multiple sequential video frames into a single frame to reduce video volume. Given that multiple kinds of intelligent tasks are expected to be finished on the device side, we also designed a device-cloud collaboration scheme where deep learning-based algorithms can be executed on both the device and server sides. Experiments reveal that video analytics can be conducted on compressed frames. Taking action recognition as a device-cloud collaboration use case, we find ACORN \(+\) obtains more than 3 \(\times\) speedup on compressed frames. The reconstruction algorithm in ACORN \(+\) is with 1– 4 dB improvements. Moreover, the encoding time cost and the encoded video volume are reduced by more than 4 \(\times\) under the ACORN \(+\) framework. 1

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Publication Details

Journal
ACM Transactions on Autonomous and Adaptive Systems
Published
2024-11-05
DOI
https://doi.org/10.1145/3703000
Primary Topic
Image and Video Quality Assessment
Type
article
Field-Weighted Citation Impact
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article

ACORN+: Adaptive Compression-Reconstruction for Device-Cloud Collaboration Video Services

Erxun Zhao, Yehan Ma, Peihao Yang, Jiale Lei et al.
ACM Transactions on Autonomous and Adaptive Systems
Image and Video Quality Assessment
article

ACORN+: Adaptive Compression-Reconstruction for Device-Cloud Collaboration Video Services

Erxun Zhao, Yehan Ma, Peihao Yang, Jiale Lei, Linghe Kong, Deyu Lin, Guihai Chen
article en

Abstract

With the improvement of edge-based autonomous systems such as mobile Industrial IoT (IIoT) networks, edge devices can capture and upload videos with increasing bitrates. Massive edge-computing end nodes are eager for adequate multimedia data to satisfy the requirements of real-time video services. However, existing encoding standards for video services in Web 2.0 are specifically designed for something other than IoT video streaming. We have improved our Adaptive Compression-Reconstruction (ACORN) framework to obtain ACORN+, based on compressed sensing and recent advances in deep learning. At end nodes, we compress multiple sequential video frames into a single frame to reduce video volume. Given that multiple kinds of intelligent tasks are expected to be finished on the device side, we also designed a device-cloud collaboration scheme where deep learning-based algorithms can be executed on both the device and server sides. Experiments reveal that video analytics can be conducted on compressed frames. Taking action recognition as a device-cloud collaboration use case, we find ACORN \(+\) obtains more than 3 \(\times\) speedup on compressed frames. The reconstruction algorithm in ACORN \(+\) is with 1– 4 dB improvements. Moreover, the encoding time cost and the encoded video volume are reduced by more than 4 \(\times\) under the ACORN \(+\) framework. 1

ACM Transactions on Autonomous and Adaptive SystemsVol. 20(4)
Shanghai Jiao Tong University (CN), Technology Holding (United States) (US)
Industry, innovation and infrastructure
Openalex Percentile: Top 81%
Image and Video Quality Assessment
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