自动水下航行器“Pipsqueak”

S. Fantone, O. Leitermann, J. Austin-Breneman, A.S. Eastment, E. Crumlin
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引用次数: 1

摘要

一群大一学生面临着设计一个钱包大小的AUV(自主水下航行器)的挑战。微型水下航行器足够小,可以避免许多运输问题。由于这种AUV的潜在设计简单,购买和维护成本可以保持相当低。像Pipsqueak这样的AUV可能会被部署到湖泊河流中,在那里它的大小和环境将允许它最有效地进行调查。它也可以被释放到低电流的海洋区域,比如海滩或珊瑚礁。在未来,我们预测,随着微型auv的发展和效率的提高,它们可能会被用于更深入、更密集的勘探。在本设计中,深度是通过欧米茄DPG1000等压力表来检测的。温度是用海鸟3Bfplus等温度传感器测量的。周围环境的图像将有助于收集科学数据。我们指定使用可以与微控制器接口并满足体积要求的CCD或CMOS相机。有大量的低成本,紧凑的数码成像相机,今天可以很容易地纳入到Pipsqueak。我们建议使用来自Spectronix的预构建RAMCAM。这种飞行器将使用航位推算、惯性导航系统。该系统将有两个面向后部的水平推进器和一个面向顶部的垂直推进器,这将允许转弯以及上下运动。
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The autonomous underwater vehicle "Pipsqueak"
A team of freshman students was presented with the ambiguous challenge of designing an AUV (autonomous underwater vehicle) the size of a wallet. A Micro-AUV would be small enough to avoid many of the transport problems. Because of the potentially simple design of such an AUV, purchase and maintenance costs could be kept fairly low. An AUV such as Pipsqueak would likely be deployed into a lake river, where its size and the environment would allow it to investigate most efficiently. It could also be released in low current ocean areas, such as along beaches or coral reefs. In the future, we predict that as the Micro-AUVs develop and become more efficient and powerful, they might be used for deeper and more intense exploration. In this design, depth is sensed with a pressure gauge such as the Omega DPG1000. Temperature is measured with temperature sensors such as the Seabird 3Bfplus. Images of the surrounding environment would be useful in gathering scientific data. We specified using a CCD or CMOS camera that can interface with the micro controller and satisfy the volume requirements. There are large numbers of low cost, compact digital imaging cameras available today that can be readily incorporated into Pipsqueak. We propose to use the prebuilt RAMCAM from Spectronix. The dead reckoning, inertial based navigation system would be used for this vehicle. This system would have two rear facing horizontal thrusters, and one top facing vertical thruster, which will allow for turning as well as up and down motion.
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