{"title":"On Artificial Groundwater Recharge at Dune Area in the Netherlands (Part 1)","authors":"H. Takamura","doi":"10.5917/JAGH1959.24.1","DOIUrl":null,"url":null,"abstract":"Recently a great many researches and studies on the development of groundwater resources in foreign lands have been made in our country, but many of them are unpublished under all circumstances. Accordingly our country is behind other advanced nations in offering technicues on a high level and research data for groundwater resources. <BR> This paper presents a method of recharging water through the physiographic effects of the dunes in the Netherlands, which is one of the most advanced nations in that field, as an excellent case of developing groundwater resources in foreign countries. <BR> The deficiency of drinking water in Amsterdam gives an example of the unfavourable water conditions in the Netherlands, though the city is apparently rich in water resources. In order to solve this problem, the dune water recharge system, which supplies fresh water, has been developed. In the dunes the fresh water from natural precipitation gradually ousts the salt water because the gravity of the former is lower than that of the latter (Veen and Huizinga, 1976). <BR> The dune water recharge area has an area of 36 km<SUP>2</SUP> and about 55, 000, 000m<SUP>3</SUP>of the Rhine water is percolated there annually. As the annual recharge from precipitation there is 13, 000, 000m<SUP>3</SUP>, the total supply of water in the area is about 68, 000, 000m<SUP>3</SUP>. <BR> The dune water recharge system contains such installations as distribution pond, river water canal, recharge ponds, collection canals, filtered draining conduits, artesian wells, non-artesian wells, etc. Passing through those installations, the water goes to the indoor provision for purification. The total production of water in this plant is 62. 9 million m<SUP>3</SUP> (1975). 立正大学地理学教室, Department of Geography, Rissho University , Tokyo, Japan.","PeriodicalId":422881,"journal":{"name":"THE JOURNAL OF THE JAPANESE ASSOCIATION OF GROUNDWATER HYDROLOGY","volume":"6 1","pages":"0"},"PeriodicalIF":0.0000,"publicationDate":"1900-01-01","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"0","resultStr":null,"platform":"Semanticscholar","paperid":null,"PeriodicalName":"THE JOURNAL OF THE JAPANESE ASSOCIATION OF GROUNDWATER HYDROLOGY","FirstCategoryId":"1085","ListUrlMain":"https://doi.org/10.5917/JAGH1959.24.1","RegionNum":0,"RegionCategory":null,"ArticlePicture":[],"TitleCN":null,"AbstractTextCN":null,"PMCID":null,"EPubDate":"","PubModel":"","JCR":"","JCRName":"","Score":null,"Total":0}
引用次数: 0
Abstract
Recently a great many researches and studies on the development of groundwater resources in foreign lands have been made in our country, but many of them are unpublished under all circumstances. Accordingly our country is behind other advanced nations in offering technicues on a high level and research data for groundwater resources. This paper presents a method of recharging water through the physiographic effects of the dunes in the Netherlands, which is one of the most advanced nations in that field, as an excellent case of developing groundwater resources in foreign countries. The deficiency of drinking water in Amsterdam gives an example of the unfavourable water conditions in the Netherlands, though the city is apparently rich in water resources. In order to solve this problem, the dune water recharge system, which supplies fresh water, has been developed. In the dunes the fresh water from natural precipitation gradually ousts the salt water because the gravity of the former is lower than that of the latter (Veen and Huizinga, 1976). The dune water recharge area has an area of 36 km2 and about 55, 000, 000m3of the Rhine water is percolated there annually. As the annual recharge from precipitation there is 13, 000, 000m3, the total supply of water in the area is about 68, 000, 000m3. The dune water recharge system contains such installations as distribution pond, river water canal, recharge ponds, collection canals, filtered draining conduits, artesian wells, non-artesian wells, etc. Passing through those installations, the water goes to the indoor provision for purification. The total production of water in this plant is 62. 9 million m3 (1975). 立正大学地理学教室, Department of Geography, Rissho University , Tokyo, Japan.
近年来,我国对国外地下水资源开发进行了大量的研究和研究,但其中很多都是在各种情况下未发表的。因此,我国在提供地下水资源的高水平技术和研究数据方面落后于其他发达国家。本文介绍了利用荷兰沙丘地貌效应进行补水的方法,作为国外开发地下水资源的一个优秀案例。荷兰是该领域最先进的国家之一。阿姆斯特丹缺乏饮用水是荷兰水资源条件不利的一个例子,尽管这座城市显然拥有丰富的水资源。为了解决这一问题,开发了提供淡水的沙丘补水系统。在沙丘中,由于自然降水的淡水比盐水的重力小,淡水逐渐排挤盐水(Veen and Huizinga, 1976)。沙丘水补给区面积为36平方公里,每年约有55000万立方米的莱茵河水在那里渗透。由于该地区年降水补给量为13000m3,因此该地区的总供水量约为68000m3。沙丘补水系统包括配水池、河道水渠、补水池、收集渠、过滤排水管道、自流井、非自流井等设施。通过这些装置,水进入室内进行净化。这个工厂的总产量是62。900万立方米(1975年)。日本东京立正大学地理系