FAVER: Blind quality prediction of variable frame rate videos

IF 3.4 3区 工程技术 Q2 ENGINEERING, ELECTRICAL & ELECTRONIC Signal Processing-Image Communication Pub Date : 2024-01-08 DOI:10.1016/j.image.2024.117101
Qi Zheng , Zhengzhong Tu , Pavan C. Madhusudana , Xiaoyang Zeng , Alan C. Bovik , Yibo Fan
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Abstract

Video quality assessment (VQA) remains an important and challenging problem that affects many applications at the widest scales. Recent advances in mobile devices and cloud computing techniques have made it possible to capture, process, and share high resolution, high frame rate (HFR) videos across the Internet nearly instantaneously. Being able to monitor and control the quality of these streamed videos can enable the delivery of more enjoyable content and perceptually optimized rate control. Accordingly, there is a pressing need to develop VQA models that can be deployed at enormous scales. While some recent effects have been applied to full-reference (FR) analysis of variable frame rate and HFR video quality, the development of no-reference (NR) VQA algorithms targeting frame rate variations has been little studied. Here, we propose a first-of-a-kind blind VQA model for evaluating HFR videos, which we dub the Framerate-Aware Video Evaluator w/o Reference (FAVER). FAVER uses extended models of spatial natural scene statistics that encompass space–time wavelet-decomposed video signals, and leverages the advantages of the deep neural network to provide motion perception, to conduct efficient frame rate sensitive quality prediction. Our extensive experiments on several HFR video quality datasets show that FAVER outperforms other blind VQA algorithms at a reasonable computational cost. To facilitate reproducible research and public evaluation, an implementation of FAVER is being made freely available online: https://github.com/uniqzheng/HFR-BVQA.

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FAVER:可变帧频视频的盲质量预测
视频质量评估(VQA)仍然是一个重要而具有挑战性的问题,它影响着最广泛的许多应用。移动设备和云计算技术的最新进展使得在互联网上捕捉、处理和共享高分辨率、高帧率(HFR)视频几乎成为可能。如果能够监控这些流媒体视频的质量,就能提供更多令人愉悦的内容,并优化感知速率控制。因此,迫切需要开发可大规模部署的 VQA 模型。虽然最近的一些效果已被应用于对可变帧频和高帧频视频质量的全参考(FR)分析,但针对帧频变化的无参考(NR)VQA 算法的开发却鲜有研究。在此,我们首次提出了一种用于评估 HFR 视频的盲 VQA 模型,并将其命名为 "无参考帧率感知视频评估器"(FAVER)。FAVER 使用包含时空小波分解视频信号的空间自然场景统计扩展模型,并利用深度神经网络提供运动感知的优势,进行高效的帧速率敏感质量预测。我们在多个 HFR 视频质量数据集上进行的大量实验表明,FAVER 以合理的计算成本优于其他盲 VQA 算法。为了促进可复制的研究和公共评估,FAVER 的实现可在网上免费获取:https://github.com/uniqzheng/HFR-BVQA。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Signal Processing-Image Communication
Signal Processing-Image Communication 工程技术-工程:电子与电气
CiteScore
8.40
自引率
2.90%
发文量
138
审稿时长
5.2 months
期刊介绍: Signal Processing: Image Communication is an international journal for the development of the theory and practice of image communication. Its primary objectives are the following: To present a forum for the advancement of theory and practice of image communication. To stimulate cross-fertilization between areas similar in nature which have traditionally been separated, for example, various aspects of visual communications and information systems. To contribute to a rapid information exchange between the industrial and academic environments. The editorial policy and the technical content of the journal are the responsibility of the Editor-in-Chief, the Area Editors and the Advisory Editors. The Journal is self-supporting from subscription income and contains a minimum amount of advertisements. Advertisements are subject to the prior approval of the Editor-in-Chief. The journal welcomes contributions from every country in the world. Signal Processing: Image Communication publishes articles relating to aspects of the design, implementation and use of image communication systems. The journal features original research work, tutorial and review articles, and accounts of practical developments. Subjects of interest include image/video coding, 3D video representations and compression, 3D graphics and animation compression, HDTV and 3DTV systems, video adaptation, video over IP, peer-to-peer video networking, interactive visual communication, multi-user video conferencing, wireless video broadcasting and communication, visual surveillance, 2D and 3D image/video quality measures, pre/post processing, video restoration and super-resolution, multi-camera video analysis, motion analysis, content-based image/video indexing and retrieval, face and gesture processing, video synthesis, 2D and 3D image/video acquisition and display technologies, architectures for image/video processing and communication.
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