Sources of mineralization and salinization of thermal groundwater of Jordan

P. Möller, S. Geyer, E. Salameh, P. Dulski
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引用次数: 21

Abstract

According to spider patterns five different types of thermal groundwater are distinguishable in Jordan. Each spider diagram comprises groups of elements which characterise soluble minerals of the aquifer such as halite, calcite, and gypsum, and leachable fractions of trace elements such as B, Ba, Br, Y, Cs, Rb, and U. In Jordan, mineralization of groundwater is largely controlled by dissolution of halite, carbonates, gypsum, and leaching diverse K-bearing minerals. Caused by interaction with Neogene basalts, limestones are silicified and mineralogically altered. Groundwater from these aquifers significantly differs in composition from those of the unaltered limestone aquifers. The benefit of spider patterns is that they visualise (i) chemical differences in groundwater from essentially similar aquifer rock such as young, old or thermally altered limestones and (ii) chemical similarities of groundwater produced from different geological formations. In contrast to spider patterns, ionic ratios widely overlap and do not unequivocally allow grouping of groundwater. δ 34 S(sulfate) varies between -4 and +29‰. Low values prove the presence of oxidised sulfides either of igneous origin or from sedimentary rocks. The spread of δ 34 S is caused by mixing with marine sulfate. All analysed water from Paleozoic rocks is replenished from younger aquifers. Considerable transaquifer flow exists more or less all over the Jordan territory. Salinization of sandstone-bound water along the rift escarpment is caused by a Na + -K + -SO 2 4 -HCO - 3 brine, whereas the wells Al Umari 1 and Wadi Araba 5 are affected by the presence of a Ca 2+ -Cl - brine.
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约旦热地下水的矿化和盐渍化来源
根据蜘蛛的图案,在约旦可以区分出五种不同类型的热地下水。每个蜘蛛图都包含一组元素,这些元素表示含水层的可溶性矿物质,如岩盐、方解石和石膏,以及微量元素的可浸出部分,如B、Ba、Br、Y、Cs、Rb和u。在约旦,地下水的矿化主要受岩盐、碳酸盐、石膏的溶解和浸出各种含钾矿物的控制。由于与新近系玄武岩的相互作用,石灰岩被硅化和矿化。这些含水层的地下水在成分上与未发生变化的石灰岩含水层的地下水明显不同。蜘蛛图案的好处是,它们可以直观地看到(1)从基本相似的含水层岩石(如年轻的、古老的或热蚀的石灰石)中提取的地下水的化学差异;(2)从不同地质构造中提取的地下水的化学相似性。与蜘蛛的模式相反,离子比例广泛重叠,不能明确地允许地下水分组。δ 34 S(硫酸盐)在-4 ~ +29‰之间变化。低值证明存在火成岩或沉积岩中的氧化硫化物。δ 34 S的扩散是由海相硫酸盐混合引起的。所有分析过的古生代岩石中的水都是从较年轻的含水层中补充的。相当大的含水层流量或多或少遍布约旦全境。断裂带断裂带砂岩结合水的盐渍化主要受Na + - k + - so24 - 4 - hco - 3卤水的影响,而Al Umari 1井和Wadi Araba 5井的盐渍化主要受ca2 + - cl -卤水的影响。
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