Altahan Mahmoud Fatehy, Nower Mohamed
Central Laboratory for Environmental Quality Monitoring (CLEQM), National Water Research Center (NWRC), El-Qanater El-Khairia, 13621, Egypt.
Water Management Research Institute (WMRI), National Water Research Center (NWRC), El-Qanater El-Khairia, 13621, Egypt.
Sci Rep. 2023 Oct 9;13(1):17009. doi: 10.1038/s41598-023-44047-0.
The increasing demand for renewable and environmentally friendly energy sources is a top priority for many countries around the world. It is obvious that renewable solar energy will help to meet most of the energy demand in the coming years. A solar pond is a huge Salt artificial Lake that serves as a solar energy collection system. However, site selection is a critical factor that affects the effectiveness and lifetime of a solar pond. Here, we present an innovative methodology for site selection based on three environmental factors, including direct solar irradiance (DNI), temperature, and wind speed. Our approach uses Python programming and clustering analysis with several libraries, including Pandas, Geopandas, Rasterio, Osgeo, and Sklearn, to analyse and process data collected over a 30-year period from NASA power. This method was applied to the geographic boundaries of Egypt, but the methods can be applied to any spatial context if the same dataset is available. The results show that Egypt has a potential land area of 500 km suitable for solar ponds construction along the border with Sudan throughout the year, including 2000 km in winter (between January and March), 800 km in spring (between April and June), 900 km in summer (between July and September), and the largest area of 3700 km (between October and December), most of which is located in the south of the Eastern Desert and around the Nile River. Notably, the northwestern region, close to the Mediterranean Sea on the border with Libya, exhibits suitability for solar pond development, with consistent performance throughout the year. Our results provide an efficient way for GIS and data processing and could be useful for implementing new software to find the best location for solar ponds development. This could be beneficial for those interested in investing in renewable energy and using solar ponds as an efficient water treatment plant.
对可再生和环境友好型能源的需求不断增加是世界上许多国家的首要任务。显然,可再生太阳能将有助于满足未来几年的大部分能源需求。太阳能池是一个巨大的人工盐湖,用作太阳能收集系统。然而,选址是影响太阳能池有效性和使用寿命的关键因素。在这里,我们提出了一种基于三个环境因素(包括直接太阳辐照度(DNI)、温度和风速)的创新选址方法。我们的方法使用Python编程和包括Pandas、Geopandas、Rasterio、Osgeo和Sklearn在内的几个库进行聚类分析,以分析和处理从美国国家航空航天局电力系统收集的30年数据。该方法应用于埃及的地理边界,但如果有相同的数据集,该方法可应用于任何空间背景。结果表明,埃及全年沿与苏丹接壤的边境有500平方公里的潜在土地适合建设太阳能池,其中冬季(1月至3月)为2000平方公里,春季(4月至6月)为800平方公里,夏季(7月至9月)为900平方公里,最大面积为3700平方公里(10月至12月),大部分位于东部沙漠南部和尼罗河周围。值得注意的是,靠近与利比亚接壤的地中海的西北地区显示出适合太阳能池开发的条件,全年性能一致。我们的结果为地理信息系统和数据处理提供了一种有效的方法,可能有助于实施新软件以找到太阳能池开发的最佳位置。这对那些有兴趣投资可再生能源并将太阳能池用作高效水处理厂的人可能有益。