Publication [J.18]
Gaeta, M.G., Samaras, A.G. and Archetti, R. (2020). Numerical investigation of thermal discharge to coastal areas: a case study in South Italy. Environmental Modelling & Software, 124, 104596, DOI.
thermal pollution •• wave dynamics •• hydrodynamics •• wave-current interactions •• coastal scale
Abstract
Coupled wave – 3D-hydrodynamics model runs are performed to investigate thermal discharge release to coastal areas by means of including nearshore effects of wave-current dynamics. The study area comprises the vicinity of a power plant at Cerano, in South Italy, where cooling industrial waters are released to the sea. The implemented model is calibrated by using temperature measurements and sensitivity analyses are carried out for various relevant drivers and input parameters. Afterwards, the effect of thermal discharge is investigated through distinct hypothetical scenarios for a combination of metocean conditions and operational features of the power plant (modifying water discharge and temperature at its outlet). The model results of this representative array of conditions are intercompared and evaluated on the basis of heat dispersion rate and areas of influence, providing with useful insights on the numerical simulation of the process and the potential effects for the specific coastal area.
Coupled wave – 3D-hydrodynamics model runs are performed to investigate thermal discharge release to coastal areas by means of including nearshore effects of wave-current dynamics. The study area comprises the vicinity of a power plant at Cerano, in South Italy, where cooling industrial waters are released to the sea. The implemented model is calibrated by using temperature measurements and sensitivity analyses are carried out for various relevant drivers and input parameters. Afterwards, the effect of thermal discharge is investigated through distinct hypothetical scenarios for a combination of metocean conditions and operational features of the power plant (modifying water discharge and temperature at its outlet). The model results of this representative array of conditions are intercompared and evaluated on the basis of heat dispersion rate and areas of influence, providing with useful insights on the numerical simulation of the process and the potential effects for the specific coastal area.
Works that reference this work
[11] Tsubono, T., Okada, T., Niida, Y., Kino, Y. and Nakashiki, N. (2023). Application of a generalized Green’s function approach to optimize modeled tidal and tidal residual currents for assessment of the dispersion area of thermal effluent discharges. Coastal Engineering Journal, pp.1-11, DOI.
[10] Huang, W., Jiao, J., Zhao, L., Hu, Z., Peng, X., Yang, L., Li, X. and Chen, F. (2023). Thermal Discharge Temperature Retrieval and Monitoring of NPPs Based on SDGSAT-1 Images. Remote Sensing, 15 (9), pp.2298, DOI.
[09] Ibrahim, M.M., Ashmawy, A., Dalia, M. and Refaey, M.A. (2023). Numerical investigation of the effect of hot-water outlet inclination angle on the temperature dilution in open channel flow. Ain Shams Engineering Journal, 102234, DOI.
[08] Buccino, M., Daliri, M., Buttarazzi, M.S.N., Del Giudice, G., Calabrese, M. and Somma, R. (2022). Arsenic contamination at the Bagnoli Bay seabed (South Italy) via particle tracking numerical modeling: Pollution patterns from stationary climatic forcings. Chemosphere, 303, 134955, DOI.
[07] Issakhov, A. and Mustafayeva, A. (2022). Numerical simulation of the thermal pollution zones formation from the power plant for different weather conditions. International Journal of Environmental Science and Technology, DOI.
[06] Xia, W. (2020). Optimization for calibration of water resources systems including new parallel global algorithms and applications to hydrodynamics and water quality lake PDE models. PhD Thesis, National University of Singapore, Singapore, p.145. (Link)
[05] Laguna-Zarate, L., Barrios-Piña, H., Ramírez-León, H., García-Díaz, R. and Becerril-Piña, R. (2021). Analysis of Thermal Plume Dispersion into the Sea by Remote Sensing and Numerical Modeling. Journal of Marine Science and Engineering, 9 (12), 1437, DOI.
[04] Adlane, H., Seghiri, R., Aouane, M., Berrid, N. and Chaouch, A. (2021). The Project Management Triangle Assessment in Aeronautical Industries, Morocco: Focus on Eco-Logistics. Management Systems in Production Engineering, 29 (2), pp.132-138, DOI.
[03] Xia, W., Shoemaker, C., Akhtar, T. and Nguyen, M.-T. (2021). Efficient Parallel Surrogate Optimization Algorithm and Framework with Application to Parameter Calibration of Computationally Expensive Three-dimensional Hydrodynamic Lake PDE Models. Environmental Modelling & Software, 135, 104910, DOI.
[02] Bevilacqua, S., Clara, S. and Terlizzi, A. (2020). The impact assessment of thermal pollution on subtidal sessile assemblages: a case study from Mediterranean rocky reefs. Ecological Questions, 31 (4), DOI.
[01] Hao, R., Qiao, L., Han, L. and Tian, C. (2020). Experimental study on the effect of heat-retaining and diversion facilities on thermal discharge from a power plant. Water, 12 (8), 2267, DOI.
[11] Tsubono, T., Okada, T., Niida, Y., Kino, Y. and Nakashiki, N. (2023). Application of a generalized Green’s function approach to optimize modeled tidal and tidal residual currents for assessment of the dispersion area of thermal effluent discharges. Coastal Engineering Journal, pp.1-11, DOI.
[10] Huang, W., Jiao, J., Zhao, L., Hu, Z., Peng, X., Yang, L., Li, X. and Chen, F. (2023). Thermal Discharge Temperature Retrieval and Monitoring of NPPs Based on SDGSAT-1 Images. Remote Sensing, 15 (9), pp.2298, DOI.
[09] Ibrahim, M.M., Ashmawy, A., Dalia, M. and Refaey, M.A. (2023). Numerical investigation of the effect of hot-water outlet inclination angle on the temperature dilution in open channel flow. Ain Shams Engineering Journal, 102234, DOI.
[08] Buccino, M., Daliri, M., Buttarazzi, M.S.N., Del Giudice, G., Calabrese, M. and Somma, R. (2022). Arsenic contamination at the Bagnoli Bay seabed (South Italy) via particle tracking numerical modeling: Pollution patterns from stationary climatic forcings. Chemosphere, 303, 134955, DOI.
[07] Issakhov, A. and Mustafayeva, A. (2022). Numerical simulation of the thermal pollution zones formation from the power plant for different weather conditions. International Journal of Environmental Science and Technology, DOI.
[06] Xia, W. (2020). Optimization for calibration of water resources systems including new parallel global algorithms and applications to hydrodynamics and water quality lake PDE models. PhD Thesis, National University of Singapore, Singapore, p.145. (Link)
[05] Laguna-Zarate, L., Barrios-Piña, H., Ramírez-León, H., García-Díaz, R. and Becerril-Piña, R. (2021). Analysis of Thermal Plume Dispersion into the Sea by Remote Sensing and Numerical Modeling. Journal of Marine Science and Engineering, 9 (12), 1437, DOI.
[04] Adlane, H., Seghiri, R., Aouane, M., Berrid, N. and Chaouch, A. (2021). The Project Management Triangle Assessment in Aeronautical Industries, Morocco: Focus on Eco-Logistics. Management Systems in Production Engineering, 29 (2), pp.132-138, DOI.
[03] Xia, W., Shoemaker, C., Akhtar, T. and Nguyen, M.-T. (2021). Efficient Parallel Surrogate Optimization Algorithm and Framework with Application to Parameter Calibration of Computationally Expensive Three-dimensional Hydrodynamic Lake PDE Models. Environmental Modelling & Software, 135, 104910, DOI.
[02] Bevilacqua, S., Clara, S. and Terlizzi, A. (2020). The impact assessment of thermal pollution on subtidal sessile assemblages: a case study from Mediterranean rocky reefs. Ecological Questions, 31 (4), DOI.
[01] Hao, R., Qiao, L., Han, L. and Tian, C. (2020). Experimental study on the effect of heat-retaining and diversion facilities on thermal discharge from a power plant. Water, 12 (8), 2267, DOI.
Author's works that reference this work
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