An End-to-End Integrated Computation and Communication Architecture for Goal-oriented Networking: A Perspective on Live Surveillance Video
Suvadip Batabyal, Ozgur Ercetin

TL;DR
This paper introduces a source-based, situation-aware streaming architecture for live surveillance video that reduces power consumption while maintaining high classification accuracy for important events.
Contribution
It presents a novel integrated computation and communication framework that performs initial event detection at the source with a lightweight neural network, optimizing resource use.
Findings
Reduces transmitter power consumption by 38.5% for UHD video
Achieves 97.5% classification accuracy for important situations
Efficiently balances source processing and deep analysis for real-time surveillance
Abstract
Real-time video surveillance has become a crucial technology for smart cities, made possible through the large-scale deployment of mobile and fixed video cameras. In this paper, we propose situation-aware streaming, for real-time identification of important events from live-feeds at the source rather than a cloud based analysis. For this, we first identify the frames containing a specific situation and assign them a high scale-of-importance (SI). The identification is made at the source using a tiny neural network (having a small number of hidden layers), which incurs a small computational resource, albeit at the cost of accuracy. The frames with a high SI value are then streamed with a certain required Signal-to-Noise-Ratio (SNR) to retain the frame quality, while the remaining ones are transmitted with a small SNR. The received frames are then analyzed using a deep neural network…
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Taxonomy
TopicsImage and Video Quality Assessment · Video Surveillance and Tracking Methods · Sparse and Compressive Sensing Techniques
