ASSESSMENT OF SURFACE DOWNWELLING SHORTWAVE RADIATION IN 2021-2050 IN LAAYOUNE − SAKIA EL HAMRA REGION, MOROCCO

  • Youssef El Hadri Odessa State Environmental University
  • Valeriy Khokhlov Odessa State Environmental University
  • Mariia Slizhe Odessa State Environmental University
  • Kateryna Sernytska Odessa State Environmental University
  • Kateryna Stepanova International Humanitarian University
Keywords: CORDEX-Africa, Surface downwelling shortwave radiation, RCM, solar energy, Morocco

Abstract

Morocco's energy system is highly dependent on external energy markets. According to the Ministry Energy, Mines and Sustainable Development today more than 93 % of energy resources are imported to Morocco. In 2008 the Moroccan Government has developed a National Energy Strategy, and one of its priority areas is to increase the share of renewable technologies in the country's energy sector. Morocco is rich in solar energy resources. Studies on the assessment of the Morocco’s solar energy potential indicate, among other benefits, low additional costs when using solar installations compared to losses associated with the solution of future climate problems and lack of resources. The plan envisages the commissioning of solar power plants in Ouarzazate, Ain Ben Mathar, Boujdour, Tarfaya and Laayoune by 2020.

The aim of this research is determination of the characteristics of the distribution of Surface Downwelling Shortwave Radiation in the area of the solar power Boujdour, Tarfaya and Laayoune, located in the Laayoune − Sakia El Hamra region in 2021−2050. The data from regional climate modeling with high spatial resolution of the CORDEX-Africa project are used in this research. The RCM modeling is carried out for the region of Africa, in a rectangular coordinate system with a spatial resolution of ~ 44 km. Then, from the modeling data, values are highlighted for the territory of Laayoune − Sakia El Hamra region. Model calculation is performed taking into account the greenhouse gas concentration trajectory of RCP 4.5 calculated using 11 regional climate models. As a result of the simulation for the period 2021−2050, average monthly values of the Surface Downwelling Shortwave Radiation "RSDS" (W/m2) are derived, on the basis of which the mean values for the period of time are calculated. For more detailed information, average monthly total cloud cover values "TC" (%) for the period under study are calculated.

Analysis of the change in RSDS in 2021–2050 relative to the recent climatic period is shown that in the Laayoune − Sakia El Hamra region we can expect an increase or retention of its values. The annual run of the RSDS has one maximum in June and one minimum in December.

In the future, the distribution of RSDS in the Laayoune − Sakia El Hamra region will have a significant impact on proximity to the Atlantic Ocean, where an increased amount of total cloud cover significantly reduces the amount of incoming radiation.

In the location of solar power plants in the near future, the current RSDS values are expected to be maintained, which creates favorable conditions for the further development of the renewable energy industry in this area and increasing its productivity.

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Author Biographies

Youssef El Hadri, Odessa State Environmental University

Department of Agrometeorology and Agroecology

Valeriy Khokhlov, Odessa State Environmental University

Department of Meteorology and Climatology

Mariia Slizhe, Odessa State Environmental University

Department of Meteorology and Climatology

Kateryna Sernytska, Odessa State Environmental University

Department of Environmental Economics

Kateryna Stepanova, International Humanitarian University

Department of Economics and International Economic Relations

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Published
2019-03-31
How to Cite
El Hadri, Y., Khokhlov, V., Slizhe, M., Sernytska, K., & Stepanova, K. (2019). ASSESSMENT OF SURFACE DOWNWELLING SHORTWAVE RADIATION IN 2021-2050 IN LAAYOUNE − SAKIA EL HAMRA REGION, MOROCCO. EUREKA: Physics and Engineering, (2), 23-29. https://doi.org/10.21303/2461-4262.2019.00863
Section
Earth and Planetary Sciences