Experimental study on collision avoidance procedures for plastic waste cleaner USV

Kazumasa Harada, Keisuke Watanabe, Koshi Utsunomiya, Masatoshi Shimpo, R. Dzeng
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Abstract

Sea plastic waste is a big issue and cleaning them is very important. We are developing a USV cleaner that collects plastic waste for cleaning at the port. There are many ships in the port and the USV needs to design a collision avoidance procedure appropriately. To develop a collision avoidance procedure, several experiments must be performed. In this paper, we will first introduce a low-cost tank experiment system to study USV collision avoidance procedures. This system consists of a ceiling camera and a robotic ship. The ceiling camera is installed above the tank and uses image processing to calculate the heading and COG coordinates of each ship. This is intended to emulate GNSS indoors. The catamaran was designed and manufactured using a 3D printer, taking into account the size of the tank and the capacity of the ship. The catamaran has a single board computer and a wireless communication device. Each ship receives coordinates via wireless communication from a computer that calculates the coordinates in the tank. Next, the results of tank experiments using the above system are introduced. When the experiment starts, the ceiling camera calculates the ship's position and sends the position data to each ship in increments of 10 [Hz]. When the ship receives the position, it moves forward while maintaining the bow and speed until a collision is detected. When each ship finds a possible collision, it changes the navigation mode from normal mode to collision avoidance mode. This experiment confirmed that the ceiling camera position detection, catamaran thrust, and wireless communication were all functioning properly. Finally, we introduce the conceptual design of the Catamaran USV used to clean plastic waste in port areas.
塑料垃圾清扫器USV避碰程序试验研究
海洋塑料垃圾是一个大问题,清理它们非常重要。我们正在开发一种USV清洁器,它可以收集塑料废物,在港口进行清洁。港口内船舶较多,无人潜航器需要设计适当的避碰程序。为了开发一个避碰程序,必须进行几个实验。在本文中,我们将首先引入一个低成本的水箱实验系统来研究无人潜航器的避碰程序。该系统由一个天花板摄像机和一个机器人船组成。吊顶摄像机安装在油箱上方,利用图像处理计算每艘船的航向和COG坐标。这是为了在室内模拟GNSS。考虑到油箱的大小和船舶的容量,双体船的设计和制造使用3D打印机。这艘双体船有一台单板计算机和一个无线通信设备。每艘船通过无线通信从计算油箱坐标的计算机接收坐标。然后介绍了采用该系统进行的罐体试验结果。实验开始时,天花板摄像机计算船舶位置,并以10 [Hz]的增量将位置数据发送给每艘船舶。当船舶接收到位置时,它向前移动,同时保持船头和速度,直到检测到碰撞。当每艘船发现可能发生碰撞时,将航行模式从正常模式改为避碰模式。这次实验证实了天花板摄像机位置检测、双体船推力和无线通信都正常运行。最后,介绍了用于港区塑料垃圾清理的双体船USV的概念设计。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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