A 3D Framework for Improving Low-Latency Multi-Channel Live Streaming

The advent of 5G has driven the demand for high-quality, low-latency live streaming. However, challenges such as managing the increased data volume, ensuring synchronization across multiple streams, and maintaining consistent quality under varying network conditions persist, particularly in real-time video streaming. To address these issues, we propose a novel framework that leverages 3D virtual environments within game engines (e.g., Unity 3D) to optimize multi-channel live streaming. Our approach consolidates multi-camera video data into a single stream using multiple virtual 3D canvases, significantly increasing channel amounts while reducing latency and enhancing user flexibility. For demonstration of our approach, we utilize the Unity 3D engine to integrate multiple video inputs into a single-channel stream, supporting one-to-many broadcasting, one-to-one video calling, and real-time control of video channels. By mapping video data onto a world-space canvas and capturing it via an in-world camera, we minimize redundant data transmission, achieving efficient, low-latency streaming. Our results demonstrate that this method outperforms some existing multichannel live streaming solutions in both latency reduction and user interaction responsiveness improvement.

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Publication Details

Published
2025-06-30
DOI
https://doi.org/10.1109/icmew68306.2025.11152268
Primary Topic
Image and Video Quality Assessment
Type
article
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article

A 3D Framework for Improving Low-Latency Multi-Channel Live Streaming

Zhiqiang Wang, Aizierjiang Aiersilan
Image and Video Quality Assessment
article

A 3D Framework for Improving Low-Latency Multi-Channel Live Streaming

Zhiqiang Wang, Aizierjiang Aiersilan
article en

Abstract

The advent of 5G has driven the demand for high-quality, low-latency live streaming. However, challenges such as managing the increased data volume, ensuring synchronization across multiple streams, and maintaining consistent quality under varying network conditions persist, particularly in real-time video streaming. To address these issues, we propose a novel framework that leverages 3D virtual environments within game engines (e.g., Unity 3D) to optimize multi-channel live streaming. Our approach consolidates multi-camera video data into a single stream using multiple virtual 3D canvases, significantly increasing channel amounts while reducing latency and enhancing user flexibility. For demonstration of our approach, we utilize the Unity 3D engine to integrate multiple video inputs into a single-channel stream, supporting one-to-many broadcasting, one-to-one video calling, and real-time control of video channels. By mapping video data onto a world-space canvas and capturing it via an in-world camera, we minimize redundant data transmission, achieving efficient, low-latency streaming. Our results demonstrate that this method outperforms some existing multichannel live streaming solutions in both latency reduction and user interaction responsiveness improvement.

University of Macau (MO), Beijing University of Technology (CN), City University of Macau (MO)
Openalex Percentile: Top 77%
Image and Video Quality Assessment
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