KAJIAN APLIKASI PANTULAN SINYAL GNSS UNTUK PEMANTAUAN KETINGGIAN PERMUKAAN AIR LAUT

B. Muslim, C. Kumalasari, Novie Chiuman, M. Arafah
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Abstract

Design and experiment of ocean current power generation system have been carried out using the Bach In Indonesia, the tsunami early warning system only applies the earthquake and hydrosphere relationship model to predict tsunamis. To date, no tsunami detector has used radar or GNSS technology. GNSS technology can be applied as an early warning system for tsunamis, provided that tsunamis are caused by earthquakes greater than 7 magnitudes, occur 70 kilometers below sea level, and are caused by normal faults. This could be an alternative to Bouy GNSS which is expensive to install and maintain, especially for countries with vast oceans such as Indonesia. In this paper, a review of the application of GNSS signal reflection was carried out using one International GNSS Service (IGS) station, JOG2, and one Continuously Operating Reference Station (CORS), CLSA, each located in Java and Sumatra to investigate the availability of sea level monitoring in Indonesia. Determination of sea level is obtained from two methods, the GNSS signal phase data analysis method and the GNSS Signal-to-Noise Ratio (SNR) data analysis method. Both methods use reflected GNSS signals or multipath effects to obtain sea level. The results of the study show that the number of satellites that pass through Indonesia every 15 minutes is enough to get sea-level data  every 15 minutes to one hour. This shows that it is possible to apply the multipath effect to obtain sea level information in Indonesia to detect tides and tsunamis as part of the tsunami early warning system in Indonesia.
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利用Bach进行了海流发电系统的设计与实验。在印度尼西亚,海啸预警系统仅采用地震-水圈关系模型来预测海啸。迄今为止,没有海啸探测器使用雷达或全球导航卫星系统技术。如果海啸是由7级以上地震引起,发生在海平面以下70公里处,由正断层引起,则GNSS技术可以作为海啸预警系统。这可能是Bouy GNSS的替代方案,后者安装和维护成本高昂,特别是对于印度尼西亚等拥有广阔海洋的国家。本文利用位于爪哇和苏门答腊的一个国际GNSS服务站(JOG2)和一个连续运行参考站(CORS)里昂证券(CLSA)对GNSS信号反射的应用进行了回顾,以调查印度尼西亚海平面监测的可用性。海平面的确定采用两种方法,GNSS信号相位数据分析法和GNSS信噪比(SNR)数据分析法。这两种方法都使用反射的GNSS信号或多径效应来获取海平面。研究结果表明,每15分钟经过印度尼西亚的卫星数量足以每15分钟到1小时获得海平面数据。这表明,作为印度尼西亚海啸预警系统的一部分,有可能应用多路径效应来获取印度尼西亚的海平面信息,以探测潮汐和海啸。
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