Sep 2026· Everest Advances in Science and Technology· 0 citations
Abstract
Climate change has interrupted the global hydrological cycle affecting water resource management and hydropower production. This study conducts a quantitative risk analysis of the Modi Khola Hydroelectric Power Plant. The study analyzes risks on existing hydropower potential for the duration of 2026 to 2100 due to climate change. From eight selected coupled model inter comparison project phase 6 global climate models representing four extreme climate corners, under moderate Shared Socioeconomic Pathways (SSP) 2-4.5 and high emission SSP 5 8.5 scenarios by using advanced envelope method, future streamflow projections at the dam site were adapted. The baseline energy potential of 92.50 GWh and 81 GWh were utilized to identify the energy production risk. Energy generation, compared with 92.50 GWh, shows declines by 0.41% to 16.16%, except NESM3 increases from 5.57% to 7.73% and with 81 GWh baselines, improves from-4.26% to 23.03%. The risk rises with higher energy production, particularly under SSP 5-8.5 however, SSP 2-4.5 consistently reveals lower risk for the tenure. The greatest significant risks are seen during the near future then slightly declines by the mid and far future. The quantitative risk analysis shows that at 81 GWh production target, failure risk ranges from 6% to 38% across scenarios. At 92.50 GWh target, risk increased drastically to 53% to 86%. The 81 GWh level generally represents moderate to significant risk, whereas 92.50 GWh target represents the significant risk category across all future periods and models.
Climate change and socioeconomic development jointly amplify global flood threats, yet integrated projections remain limited. Here we developed a stacking ensemble framework combining the Coupled Model Intercomparison Project Phase 6 (CMIP6) multi-model precipitation data with population, economic, and land-use trend...
Climate change is a significant environmental issue, characterized by increasing global temperature, variations in rainfall patterns, changes in precipitation timing and intensity, and a decline in snowfall. Run-of-river hydropower Plants are particularly sensitive to such changes, as electricity generation depends dir...
Abdul Raqib Qaderi, S. Chitrakar, H. P. Neopane et al.· IOP Conference Series: Earth...· 0 citations
As climate impacts increase and power systems transition to renewables, planners and operators need insights into climate risks to power generation and infrastructure to ensure reliable decision-making in the short and long-term. We present a standardized, consistent mechanism for utilities and system operators to eval...
N. Rao, J. Lala, A. Miara et al.· Environmental Science and Te...· 0 citations
In this study, the impact of climate change on the main water balance factors of agricultural reservoirs was examined using Shared Socioeconomic Pathways (SSPs). Trends in reservoir inflow, net irrigation water requirement, and required storage were analyzed for the past period (1981–2020) and projected for the future...
Soo-Jin Kim, Seung-Jong Bae· Theoretical and Applied Clim...· 0 citations
Extreme weather can disrupt urban electric transport and create environmental burdens beyond the initial infrastructure failure. This study traces the sequence from climate hazard to operational disruption, additional electricity use, and associated CO
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emissions. The assessment combines a cascade model, a risk re...
Vitaliy Tsopa, Serhii Cheberiachko, O. Borysovska et al.· E3S Web of Conferences· 0 citations