Assessing vulnerability and enhancing resilience of port systems in southeast Texas facing sea-level rise

Reda Amer
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Abstract

Climate change and the associated sea level rise (SLR) are presenting newfound challenges to the port systems and coastal transportation infrastructure of southeast Texas. This paper introduces a Geographic Information Systems (GIS) based model designed to simulate inundation scenarios under various sea-level projections, aiming to assess the vulnerabilities of both port facilities and road networks. The study area encompasses a specific region within Jefferson County, southeast Texas, encompassing three major ports: Port Arthur, Beaumont, and Orange. Utilizing a high-resolution (1-m) Digital Elevation Model (DEM) derived from the 2017 LiDAR dataset, this model is integrated with NASA’s sea-level rise projections to compute the extent and volume of inundation across low, medium, and high SLR scenarios. Drawing from monthly mean sea level data spanning from 1958 to 2020, the lowest SLR projections, derived from the relative sea-level trend measured at the Sabine Pass, TX gauge station, indicate a yearly increase of 6.16 mm, with a 95% confidence interval of +/- 0.74 mm. Projections for 2050 and 2,100 show the lowest SLR at 0.17 m and 0.48 m, respectively. In contrast, the medium to high RSLR projections under the IPCC SSP3-7.0 scenario for 2050 and 2,100 stand at 0.54 m and 1.34 m, respectively. The findings reveal that, under medium to high SLR scenarios, the extent of inundated areas in the study region is expected to expand by 12.4% in 2050 and 19.9% in 2,100, compared to the lowest SLR projection. Additionally, the length of submerged roadways is predicted to increase by 6.9% in 2050 and 13.3% in 2,100, in comparison to the lowest SLR projection. It is worth noting that some margin of error may be introduced due to factors such as the width of the port area and access roads, the high-resolution DEM, and the alignment of computed inundated areas with the existing topography. Overall, the manuscript highlights the urgency of proactive planning and underscores the importance of safeguarding critical infrastructure in the context of climate change and SLR.
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评估德克萨斯州东南部港口系统面对海平面上升的脆弱性并提高其复原力
气候变化和与之相关的海平面上升(SLR)给得克萨斯州东南部的港口系统和沿海交通基础设施带来了新的挑战。本文介绍了一个基于地理信息系统 (GIS) 的模型,该模型旨在模拟各种海平面预测下的淹没情景,目的是评估港口设施和道路网络的脆弱性。研究区域包括得克萨斯州东南部杰斐逊县内的一个特定区域,包括三个主要港口:亚瑟港、博蒙特和奥兰治。利用从 2017 年激光雷达数据集提取的高分辨率(1 米)数字高程模型 (DEM),该模型与 NASA 的海平面上升预测相结合,计算出低、中、高 SLR 情景下的淹没范围和淹没量。从 1958 年到 2020 年的月平均海平面数据中,根据德克萨斯州萨宾隘口海平面测量站测量的相对海平面趋势得出的最低可持续土地退化预测表明,海平面每年上升 6.16 毫米,95% 的置信区间为 +/- 0.74 毫米。对 2050 年和 2100 年的预测显示,SLR 最低,分别为 0.17 米和 0.48 米。相比之下,在 IPCC SSP3-7.0 情景下,2050 年和 2100 年的中高 RSLR 预测值分别为 0.54 米和 1.34 米。研究结果显示,与最低的可持续土地退化预测相比,在中高可持续土地退化预测情景下,研究区域的淹没区范围预计将在 2050 年扩大 12.4%,在 2100 年扩大 19.9%。此外,与最低 SLR 预测相比,淹没道路的长度预计在 2050 年增加 6.9%,在 2100 年增加 13.3%。值得注意的是,由于港口区和通道的宽度、高分辨率 DEM 以及计算出的淹没区与现有地形的吻合程度等因素,可能会产生一些误差。总之,手稿强调了积极规划的紧迫性,并强调了在气候变化和可持续土地退化的背景下保护关键基础设施的重要性。
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