Video: Remote sensor placement

D. Mascarenas, Logan Ott, Aaron Curtis, S. Brambilla, A. Larson, S. Brumby, C. Farrar
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Abstract

The goal of this work is to develop a new autonomous capability for remotely deploying precisely located sensor nodes without damaging the sensor nodes in the process. Over the course of the last decade there has been significant interest in research to deploy sensor networks. This research is driven by the fact that the costs associated with installing sensor networks can be very high. In order to rapidly deploy sensor networks consisting of large numbers of sensor nodes, alternative techniques must be developed to place the sensor nodes in the field. To date much of the research on sensor network deployment has focused on strategies that involve the random dispersion of sensor nodes [1]. In addition other researchers have investigated deployment strategies utilizing small unmanned aerial helicopters for dropping sensor networks from the air. [2]. The problem with these strategies is that often sensor nodes need to be very precisely located for their measurements to be of any use. The reason for this could be that the sensor being used only have limited range, or need to be properly coupled to the environment which they are sensing. The problem with simply dropping sensor nodes is that for many applications it is necessary to deploy sensor nodes horizontally. In addition, to properly install many types of sensors, the sensor must assume a specific pose relative to the object being measured. In order to address these challenges we are currently developing a technology to remotely and rapidly deploy precisely located sensor nodes. The remote sensor placement device being developed can be described as an intelligent gas gun (Figure 1). A laser rangefinder is used to measure the distance to a specified target sensor location. This distance is then used to estimate the amount of energy required to propel the sensor node to the target location with just enough additional energy left over to ensure the sensor node is able to attach itself to the target of interest. We are currently in the process of developing attachment mechanisms for steel, wood, fiberglass (Figure 2). In this demonstration we will perform a contained, live demo of our prototype pneumatic remote sensor placement device along with some prototype sensor attachment mechanisms we are developing.
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视频:远程传感器的放置
这项工作的目标是开发一种新的自主能力,用于远程部署精确定位的传感器节点,而不会在此过程中损坏传感器节点。在过去的十年中,人们对部署传感器网络的研究产生了极大的兴趣。这项研究是由于安装传感器网络的成本可能非常高。为了快速部署由大量传感器节点组成的传感器网络,必须开发替代技术来将传感器节点放置在现场。迄今为止,许多关于传感器网络部署的研究都集中在涉及传感器节点随机分散的策略上[1]。此外,其他研究人员还研究了利用小型无人机直升机从空中投放传感器网络的部署策略。[2]。这些策略的问题是,通常需要非常精确地定位传感器节点,以使其测量有用。这样做的原因可能是所使用的传感器只有有限的范围,或者需要适当地耦合到它们所感知的环境。简单删除传感器节点的问题是,对于许多应用程序来说,必须水平部署传感器节点。此外,为了正确安装许多类型的传感器,传感器必须相对于被测量对象采取特定的姿势。为了应对这些挑战,我们目前正在开发一种远程快速部署精确定位传感器节点的技术。正在开发的远程传感器放置装置可以描述为智能气体枪(图1)。激光测距仪用于测量到指定目标传感器位置的距离。然后用这个距离来估计将传感器节点推进到目标位置所需的能量,剩余的能量刚好足够确保传感器节点能够附着在感兴趣的目标上。我们目前正在开发钢、木材、玻璃纤维的附着机制(图2)。在这个演示中,我们将对我们的原型气动远程传感器放置设备以及我们正在开发的一些原型传感器附着机制进行一个包含的现场演示。
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