Izanoordina Ahmad, Yumin Shakira Deraman, A. Ramli, S. M. Maharum, S. Yusoff, Z. Mansor
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This paper presents the guidelines for mobile anchor’s operational requirements based on the number of beacon selection, beacon’s spacing and node density, as a trade-off between the energy costs of travelling versus the localization accuracy with a minimum number of localization generations.Locating fixed sensing devices with a mobile anchor is attractive for covering larger deployment areas. However, due to the distribution of nodes within this area, a possibility of nodes having insufficient beacon message to localize their position is higher. Therefore, localization using new Received Signal Strength Indicator (RSSI)-based localization algorithm, which uses a volumetric probability distribution function with cooperative localization technique is proposed to find the relative localization performance of adding inter-blind node range estimates to anchor estimates. 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引用次数: 0
摘要
定位带有移动锚的固定传感设备对于覆盖更大的部署区域很有吸引力。然而,由于该区域内节点的分布,节点没有足够的信标消息来定位其位置的可能性更高。为此,提出了一种基于RSSI (Received Signal Strength Indicator,接收信号强度指标)的新型定位算法,该算法采用体积概率分布函数与协同定位技术相结合的定位方法,寻找在锚点估计中加入盲间节点距离估计的相对定位性能。本文提出了基于信标选择数量、信标间距和节点密度的移动锚的操作要求准则,作为移动能量消耗与最小定位代数定位精度之间的权衡。定位带有移动锚的固定传感设备对于覆盖更大的部署区域很有吸引力。然而,由于该区域内节点的分布,节点没有足够的信标消息来定位其位置的可能性更高。为此,提出了一种基于RSSI (Received Signal Strength Indicator,接收信号强度指标)的新型定位算法,该算法采用体积概率分布函数与协同定位技术相结合的定位方法,寻找在锚点估计中加入盲间节点距离估计的相对定位性能。本文提出了基于信标选择数量、信标间距和节点密度的移动锚的操作要求准则,作为移动能量消耗与最小定位代数定位精度之间的权衡。
Cooperative localization using airborne mobile and local anchors
Locating fixed sensing devices with a mobile anchor is attractive for covering larger deployment areas. However, due to the distribution of nodes within this area, a possibility of nodes having insufficient beacon message to localize their position is higher. Therefore, localization using new Received Signal Strength Indicator (RSSI)-based localization algorithm, which uses a volumetric probability distribution function with cooperative localization technique is proposed to find the relative localization performance of adding inter-blind node range estimates to anchor estimates. This paper presents the guidelines for mobile anchor’s operational requirements based on the number of beacon selection, beacon’s spacing and node density, as a trade-off between the energy costs of travelling versus the localization accuracy with a minimum number of localization generations.Locating fixed sensing devices with a mobile anchor is attractive for covering larger deployment areas. However, due to the distribution of nodes within this area, a possibility of nodes having insufficient beacon message to localize their position is higher. Therefore, localization using new Received Signal Strength Indicator (RSSI)-based localization algorithm, which uses a volumetric probability distribution function with cooperative localization technique is proposed to find the relative localization performance of adding inter-blind node range estimates to anchor estimates. This paper presents the guidelines for mobile anchor’s operational requirements based on the number of beacon selection, beacon’s spacing and node density, as a trade-off between the energy costs of travelling versus the localization accuracy with a minimum number of localization generations.