TY - JOUR
T1 - GIS-driven evaluation of energy infrastructure vulnerability to coastal inundation in Qatar
AU - Hzami, Abderraouf
AU - Shannak, Sa’d
AU - Zaidan, Esmat
AU - Abu-Rayash, Azzam
N1 - Publisher Copyright:
© The Author(s) 2025.
PY - 2025/12
Y1 - 2025/12
N2 - Rising average sea levels and increasingly extreme conditions pose serious threats to low-lying coastal areas due to various coastal hazards. These include the permanent marine submersion of land due to higher average sea levels, more frequent or intense coastal flooding, and increased coastal erosion. Climate drivers such as future Sea Level Rise (SLR) and marine storm events will significantly increase the damage on coastal energy infrastructure. This research assesses coastal energy infrastructure and consumption of the population at risk under the different SLR scenarios. These scenarios are modeled using Coupled GIS and Machine Learning models, utilizing elevation data points and monthly energy data of 2019. Preliminary result shows that in 2030, The coastal inundation maps will cover 6.6 km2, and the total affected population will be 78,000, which means that 5% of the residential power units in Qatar will be under high climatic risk in Doha. By 2050, SLR could increase the exposure of residential electric meters to marine submersion by 20%, affecting an additional 8.5% of the population. By the year 2100, modeled results show that approximately 60% of Doha’s land surface may be at risk of submersion due to rising sea levels, potentially impacting an estimated 1,876,200 individuals as a result of accelerated SLR and increasingly frequent storm events. However, the number of residential power units exposed to extreme coastal marine events will increase by 40%. This research offers crucial insights into population and infrastructure at risk from future SLR, emphasizing the need for targeted mitigation strategies. We advocate for integrating Nature-Based Solutions (NBS) into coastal management policies to provide sustainable, cost-effective protection for vulnerable areas, while safeguarding infrastructure and supporting local communities.
AB - Rising average sea levels and increasingly extreme conditions pose serious threats to low-lying coastal areas due to various coastal hazards. These include the permanent marine submersion of land due to higher average sea levels, more frequent or intense coastal flooding, and increased coastal erosion. Climate drivers such as future Sea Level Rise (SLR) and marine storm events will significantly increase the damage on coastal energy infrastructure. This research assesses coastal energy infrastructure and consumption of the population at risk under the different SLR scenarios. These scenarios are modeled using Coupled GIS and Machine Learning models, utilizing elevation data points and monthly energy data of 2019. Preliminary result shows that in 2030, The coastal inundation maps will cover 6.6 km2, and the total affected population will be 78,000, which means that 5% of the residential power units in Qatar will be under high climatic risk in Doha. By 2050, SLR could increase the exposure of residential electric meters to marine submersion by 20%, affecting an additional 8.5% of the population. By the year 2100, modeled results show that approximately 60% of Doha’s land surface may be at risk of submersion due to rising sea levels, potentially impacting an estimated 1,876,200 individuals as a result of accelerated SLR and increasingly frequent storm events. However, the number of residential power units exposed to extreme coastal marine events will increase by 40%. This research offers crucial insights into population and infrastructure at risk from future SLR, emphasizing the need for targeted mitigation strategies. We advocate for integrating Nature-Based Solutions (NBS) into coastal management policies to provide sustainable, cost-effective protection for vulnerable areas, while safeguarding infrastructure and supporting local communities.
KW - Climate adaptation strategies
KW - Coastal inundation risk
KW - Energy infrastructure resilience
KW - GIS
KW - Sea level rise impact
KW - Sustainable energy security
UR - https://www.scopus.com/pages/publications/105009847924
U2 - 10.1038/s41598-025-05968-0
DO - 10.1038/s41598-025-05968-0
M3 - Article
C2 - 40594304
AN - SCOPUS:105009847924
SN - 2045-2322
VL - 15
JO - Scientific Reports
JF - Scientific Reports
IS - 1
M1 - 20669
ER -