Anno S, Takagi M, Tsuda Y, Yotopranoto S, Dachlan Y P, Bendryman S S, Ono M, Kawabata M
International Center for Medical Research, Kobe University School of Medicine, Japan.
Kobe J Med Sci. 2000 Dec;46(6):231-43.
Remote Sensing (RS), a Global Positioning System (GPS) and a Geographic Information System (GIS) were used to analyze relationship between Anopheles subpictus larval densities and environmental parameters in the Sekotong district on Lombok Island, Indonesia. Distance from the coast to larval habitats, season and surface water were considered as environmental parameters for determining An. subpictus larval densities. Japanese Earth Resources Satellite (JERS) Visible and Near Infrared Radiometer (VNIR) satellite imagery for the area acquired by National Space Development Agency of Japan (NASDA) were used to detect water, which could be used to characterize larval habitats. Data on larval sampling sites obtained from a GPS were entered into a GIS for mapping larval habitats to measure distance between the coast and the larval habitats. A GIS was used for overlaying of data coverages (i.e., water distribution from RS data and larval habitats coupled with data on larval densities) to identify factors that may explain the spatial distribution patterns of larval densities. An. subpictus larval densities were significantly associated with season and distance from the coast to larval habitats. The rainy season and the distance from the coast to larval habitats were critical environmental determinants for presence of An. subpictus larvae in the study. In this paper, we investigated relationship between An. subpictus larval densities and the environmental parameters using RS/GPS/GIS to determine if these tools could be used to predict larval densities.
利用遥感(RS)、全球定位系统(GPS)和地理信息系统(GIS)分析了印度尼西亚龙目岛塞科通地区的伪威氏按蚊幼虫密度与环境参数之间的关系。从海岸到幼虫栖息地的距离、季节和地表水被视为确定伪威氏按蚊幼虫密度的环境参数。使用日本国家宇宙开发厅(NASDA)获取的该地区日本地球资源卫星(JERS)可见光和近红外辐射计(VNIR)卫星图像来检测水体,水体可用于描述幼虫栖息地特征。从GPS获取的幼虫采样点数据被输入到GIS中,以绘制幼虫栖息地地图,测量海岸与幼虫栖息地之间的距离。利用GIS对数据覆盖范围(即RS数据的水体分布、幼虫栖息地以及幼虫密度数据)进行叠加,以确定可能解释幼虫密度空间分布模式的因素。伪威氏按蚊幼虫密度与季节以及从海岸到幼虫栖息地的距离显著相关。雨季以及从海岸到幼虫栖息地的距离是该研究中伪威氏按蚊幼虫存在的关键环境决定因素。在本文中,我们利用RS/GPS/GIS研究了伪威氏按蚊幼虫密度与环境参数之间的关系,以确定这些工具是否可用于预测幼虫密度。