Low-quality multimedia data (including low-resolution, low-illumination, defects, blurriness, etc.) often pose a challenge to content understanding, as algorithms are mainly developed under ideal conditions (high resolution and good visibility). To alleviate this problem, data enhancement techniques (super-resolution, low-light enhancement, derain, and inpainting) have been proposed to restore low-quality multimedia data. Efforts are also being made to develop robust content understanding algorithms in adverse weather and poor lighting conditions. Some quality assessment techniques aimed at evaluating the analytical quality of data have also emerged. Even though these topics are mostly studied independently, they are tightly related in terms of ensuring a robust understanding of multimedia content. For example, enhancement should maintain the semantic consistency in analysis, while quality assessment should take into account the comprehensibility of multimedia data.
This workshop aims to bring together individuals in three topics of enhancement, analysis, and evaluation of low-quality multimedia data for sharing ideas and discussion on current developments and future directions.
The main goal of this workshop is to bring together leading experts from academia and industry in the three fields of multimedia data enhancement, multimedia content analysis, and quality evaluation for sharing ideas and discussions on current trends, developments, issues, and future directions, with the vision of bridging the three fields for a robust understanding of the low-quality data in the broader context of multimedia applications. The topics may include but are not limited to:
OpenReview website: https://openreview.net/group?id=acmmm.org/ACMMM/2022/Workshop/UoLMM
After signing in the ACM MM 2022 submission site as the author, please choose our workshop name to submit the paper. Submissions can be of varying length from 4 to 8 pages, plus additional pages for the reference pages; i.e., the reference page(s) are not counted to the page limit of 4 to 8 pages. There is no distinction between long and short papers, but the authors may themselves decide on the appropriate length of the paper.. All papers will be peer-reviewed by experts in the field, they will receive at least three reviews. Acceptance will be based on relevance to the workshop, scientific novelty, and technical quality. The workshop papers will be published in the ACM Digital Library.
Please refer to the main conference site for submission policies on blinding, originality, author lists and ArXiv publications.
IEEE Fellow EIT Institute for Advanced Study |
Title: Unlocking the Potential of Disentangled Representation for Robust Media Understanding
Abstract: It has been argued that for AI to fundamentally understand the world around us, it must learn to identify and disentangle the underlying explanatory factors hidden in the observed environment of low-level sensory data. In this talk, I will first provide an overview of the recent developments in disentangled representation learning and identify some major trends. I will then present some applications of this powerful concept for robust media processing and understanding in tasks such as image restoration, super-resolution, classification, person re-ID, depth estimation, etc. I will also discuss some future directions.
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IEEE Fellow Nanyang Technological University |
Title: Visual Signal Assessment, Analysis and Enhancement for Low-resolution or Varying-illumination Environment
Abstract: More often than not, practical application scenarios call for systems to be capable of dealing with input visual signals with low resolution/quality or environmental illumination. This talk will introduce related recent research in super-resolution reconstruction, signal quality assessment, content enhancement, and person re-identification for low-resolution or varying illumination. We will also discuss possible new research attempts to advance the relevant techniques.
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Executive R&D Director SenseBrain |
Title: Computational Imaging on Mobile Phones
Abstract: Computational imaging refers to sensing the real world with optimally designed, task-specific, multi-modality image sensors and optics which actively probes key visual information. Together with advances in AI algorithms and powerful hardware, computational imaging has significantly improved the image and video quality of mobile phones in many aspects, which not only benefits computer vision tasks but also results in novel hardware, such as AI image sensors, AI ISP (Image Signal Processing) chips, and AI camera systems. In this talk, I will present several latest research results including high quality image restoration and accurate depth estimation from time-of-flight sensors or monocular videos, as well as some latest computational photography products in smart phones including under-display cameras, AI image sensors and AI ISP chips. I will also layout several open challenges and future research directions in this area.
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