Federico I. Isla, L. C. Cortizo, E. Blotta, J. Pastore, V. Ballarin, Graciela V. Cuello
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引用次数: 0
摘要
对位于卡梅特的马德普拉塔市海底排污口进行预测时,考虑了预测污水排放量的平均值和最大值、内海深度、大肠菌群浓度及其主要由阳光效应和沿海盐度引起的衰减(T90)。2016 年,排污口运行长度为 3810 米,最后 526 米为扩散器。监测排污口性能与周围环境关系的经济方法是遥感技术,应用可见光或雷达图像。可见光图像(空间分辨率为 1.5 米至 6 米)可有效监测水柱上部夹带的羽流。这些分析有助于研究波浪和沿岸流之间的相互作用。雷达图像(分辨率为 30 米的 X 波段和 C 波段)可以测量因表面粗糙度而与环境水不同的浮游状羽流。比较这两种技术,可见光图像可以分辨出羽流的不同颜色;相反,雷达图像显示的是类似 漂浮物的羽流的表面粗糙度。有源传感器的主要优势是可以在阴天甚至夜间绘制羽流图。
Validation and automatic detection of the dispersive transport of the submarine outfall of Mar del Plata, Argentina
The submarine outfall of Mar del Plata city at Camet was projected considering the mean and maximum of forecasted sewage discharges, the inner-shelf depth, coliform concentration and its decay (T90) mainly induced by sunlight effect and costal salinity. In 2016 the outfall was operating with a length of 3,810 m and diffusers in the last 526 m. An economical method to monitor its performance in relation to the surroundings, is remote-sensing techniques, applying either visible or radar images. Tidal currents parallel to the coast are responsible for the transport of the sedimentary plume in the far field, after a primary dilution from a depth of 11 m. Visible images (1.5 to 6 m spatial resolution) are effective in monitoring the plume entrained in the upper portion of the water column. These analyses led to study the interaction between waves and coastal currents. Radar images (30 m resolution X and C bands) permit to survey the slick-alike plume that differs from the environment water by the surface roughness. Comparing both techniques visible images can distinguish the different colours of the plume; instead, the radar images are showing the surface roughness from the slick-alike plume. The main advantage of active sensors is that they can map the plume during a cloudy weather and even during night time.