水下
计算机科学
人工智能
光学(聚焦)
适应性
系统回顾
深度学习
数据科学
鉴定(生物学)
机器学习
梅德林
光学
法学
地质学
物理
政治学
海洋学
生物
植物
生态学
作者
Lai Yong,Tan Fong Ang,Uzair Aslam Bhatti,Chin Soon Ku,Han Qi,Lip Yee Por
出处
期刊:PLOS ONE
[Public Library of Science]
日期:2025-03-10
卷期号:20 (3): e0317306-e0317306
标识
DOI:10.1371/journal.pone.0317306
摘要
Underwater vision is essential in numerous applications, such as marine resource surveying, autonomous navigation, objective detection, and target monitoring. However, raw underwater images often suffer from significant color deviations due to light attenuation, presenting challenges for practical use. This systematic literature review examines the latest advancements in color correction methods for underwater image enhancement. The core objectives of the review are to identify and critically analyze existing approaches, highlighting their strengths, limitations, and areas for future research. A comprehensive search across eight scholarly databases resulted in the identification of 67 relevant studies published between 2010 and 2024. These studies introduce 13 distinct methods for enhancing underwater images, which can be categorized into three groups: physical models, non-physical models, and deep learning-based methods. Physical model-based methods aim to reverse the effects of underwater image degradation by simulating the physical processes of light attenuation and scattering. In contrast, non-physical model-based methods focus on manipulating pixel values without modeling these underlying degradation processes. Deep learning-based methods, by leveraging data-driven approaches, aim to learn mappings between degraded and enhanced images through large datasets. However, challenges persist across all categories, including algorithmic limitations, data dependency, computational complexity, and performance variability across diverse underwater environments. This review consolidates the current knowledge, providing a taxonomy of methods while identifying critical research gaps. It emphasizes the need to improve adaptability across diverse underwater conditions and reduce computational complexity for real-time applications. The review findings serve as a guide for future research to overcome these challenges and advance the field of underwater image enhancement.
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