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Using Coupled Hydrodynamic Biogeochemical Models to Predict the Effects of Tidal Turbine Arrays on Phytoplankton Dynamics

机译:使用耦合的水动力生物地球化学模型预测潮汐涡轮机阵列对浮游植物动力学的影响

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The effects of large scale tidal energy device (TED) arrays on phytoplankton processes owing to the changes in hydrodynamic flows are unknown. Coupled two-dimensional biogeochemical and hydrodynamic models offer the opportunity to predict potential effects of large scale TED arrays on the local and regional phytoplankton dynamics in coastal and inshore environments. Using MIKE 21 Software by DHI (https://www.dhigroup.com), coupled two-dimensional biogeochemical and hydrodynamic models were developed with simulations including no turbines or an array of 55 turbines with four solar radiation scenarios to assess the temporal and spatial changes of phytoplankton dynamics in an idealised domain. Results suggest that the effect of TEDs on phytoplankton dynamics accounted for up to 25% of the variability in phytoplankton concentrations, most likely associated with an increased residence time in an inshore basin. However, natural variation, such as the intensity of photosynthetically active radiation, had a larger effect on phytoplankton dynamics than an array of TEDs.
机译:由于水动力流的变化,大规模的潮汐能设备(TED)阵列对浮游植物过程的影响尚不清楚。耦合的二维生物地球化学和水动力模型提供了机会来预测大型TED阵列对沿海和近海环境中本地和区域浮游植物动力学的潜在影响。使用DHI(https://www.dhigroup.com)的MIKE 21软件,开发了二维生物地球化学和水动力耦合模型,并进行了仿真,包括无涡轮机或55台涡轮机的阵列,其中有四种太阳辐射情景,以评估时间和空间理想域中浮游植物动力学的变化。结果表明,TEDs对浮游植物动力学的影响最多占浮游植物浓度变化的25%,最有可能与沿岸盆地停留时间的增加有关。但是,自然变化,例如光合有效辐射的强度,比一系列TEDs对浮游植物动力学的影响更大。

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