Assessing the contribution of Tidal Flats to climate change and carbon neutrality through modeling approaches

IF 3.2 3区 环境科学与生态学 Q2 ENVIRONMENTAL SCIENCES Marine environmental research Pub Date : 2025-03-05 DOI:10.1016/j.marenvres.2025.107067
Sukyeong Yang , Heung-Sik Park , Bong-Oh Kwon , Jong Seong Khim , Jongmin Lee , Gopika Sharesh , Nhi Yen Thi Dang , Seungdo Kim
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Abstract

Tidal coastal ecosystems show promising potential as natural carbon sinks in mitigating climate change. Under the combined effect of carbon deposition, capturing, converting, and storing atmospheric CO2 into coastal sediments over a long period, tidal flats are of great significance to the ecology. In addition to preventing coastal erosion, the organic carbon buried in tidal flats should play an important role in mitigating climate change and achieving the carbon neutrality target. However, although the growing interest in tidal flat carbon has prompted studies to estimate carbon stocks at the global level in general and Korea in particular, comprehensive assessments of the role of carbon stocks in climate change have yet to be made. Therefore, the present study aims to quantify and simulate organic carbon stocks in tidal flats habitats of the Korean coast through a carbon balance model, thereby assessing their role in climate change and carbon neutrality. Biomass vegetation, meteorological, and sedimentary data up to 70 cm depth were sampled from 37 sites representing tidal flats along the Korean coast and then applied to the model to simulate the carbon sequestration rate as well as to provide predictions of sediment carbon stocks until 2050. The study revealed that the average total organic carbon (TOC) storage in vegetated and non-vegetated tidal flats reach 53.41 Mg C ha−1 and 45.48 Mg C ha−1 up to a depth of 70 cm in 2050, respectively, of which vegetation on the ground accounts for 3.06 ± 3.01 MgC.ha−1. Carbon mass is found to increase linearly over time in nearly all areas studied, with carbon sequestration rates ranging from 0.037 to 0.71 (MgC ha− 1 yr− 1). The Korean tidal flats contain 11,200,000 MgC (∼4.13 × 107 tCO2 eq) of organic carbon (70 cm depth). This clearly reflects their potential for inclusion in the Nationally Determined Contribution (NDC) under the Paris Agreement. Model simulation result indicated that the topsoil carbon mass of Tidal Flats in the year 2050 could contribute 7.64 × 106 tons CO2eq towards the “2050 carbon neutral strategy of the Republic of Korea”. The findings of this study shall strengthen the knowledge base regarding Korea's Tidal flat carbon stocks as well as their potential role in mitigating climate change and contributing to future carbon neutrality goals.
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通过模拟方法评估潮滩对气候变化和碳中和的贡献
潮汐海岸生态系统在减缓气候变化方面显示出良好的天然碳汇潜力。潮滩在长期的碳沉积、捕获、转化和储存大气CO2到海岸沉积物的综合作用下,具有重要的生态意义。除了防止海岸侵蚀外,潮滩中埋藏的有机碳在减缓气候变化和实现碳中和目标方面也应发挥重要作用。然而,尽管对潮滩碳的兴趣日益浓厚,促使研究在全球范围内估计碳储量,特别是韩国的碳储量,但尚未对碳储量在气候变化中的作用进行全面评估。因此,本研究旨在通过碳平衡模型量化和模拟韩国海岸潮滩生境的有机碳储量,从而评估其在气候变化和碳中和中的作用。从代表韩国海岸潮滩的37个地点采集了70厘米深度的生物量植被、气象和沉积数据,然后将其应用于该模型,以模拟碳固存率,并提供到2050年的沉积物碳储量预测。研究表明,2050年,在70 cm深度,植被和非植被潮滩的平均总有机碳储量分别达到53.41 MgC ha−1和45.48 MgC ha−1,其中地面植被占3.06±3.01 Mg .ha−1。几乎所有研究区域的碳质量都随时间线性增加,碳固存率为0.037 - 0.71 (MgC ha - 1 yr - 1)。韩国潮滩(70厘米深度)含有11,200,000 MgC (~ 4.13 × 107 tCO2当量)的有机碳。这清楚地反映了它们被纳入《巴黎协定》国家自主贡献(NDC)的潜力。模型模拟结果表明,2050年潮滩表层土壤碳量可为“2050年韩国碳中和战略”贡献7.64 × 106吨co2当量。本研究的结果将加强有关韩国潮滩碳储量的知识基础,以及它们在缓解气候变化和促进未来碳中和目标方面的潜在作用。
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来源期刊
Marine environmental research
Marine environmental research 环境科学-毒理学
CiteScore
5.90
自引率
3.00%
发文量
217
审稿时长
46 days
期刊介绍: Marine Environmental Research publishes original research papers on chemical, physical, and biological interactions in the oceans and coastal waters. The journal serves as a forum for new information on biology, chemistry, and toxicology and syntheses that advance understanding of marine environmental processes. Submission of multidisciplinary studies is encouraged. Studies that utilize experimental approaches to clarify the roles of anthropogenic and natural causes of changes in marine ecosystems are especially welcome, as are those studies that represent new developments of a theoretical or conceptual aspect of marine science. All papers published in this journal are reviewed by qualified peers prior to acceptance and publication. Examples of topics considered to be appropriate for the journal include, but are not limited to, the following: – The extent, persistence, and consequences of change and the recovery from such change in natural marine systems – The biochemical, physiological, and ecological consequences of contaminants to marine organisms and ecosystems – The biogeochemistry of naturally occurring and anthropogenic substances – Models that describe and predict the above processes – Monitoring studies, to the extent that their results provide new information on functional processes – Methodological papers describing improved quantitative techniques for the marine sciences.
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