Compact counter-recoil design of water cannon using a single nozzle with backward spray

T. Chantrasmi, Siriporn Tansuwanarat, P. Vallikul
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引用次数: 1

Abstract

A novel design of water cannons using off-the-shelf bullet and barrel was conceptualized, analyzed, prototyped and field-tested. The cannon was designed to be mounted on a remotely controlled carrier robot and its main propose was to utilize water impact to defuse explosives usually placed in metal or wooden containers. In the previous design, the firing created a large recoil force, which was likely to damage and/or immobilize the robot. In the new design presented here, the primary objective was to significantly reduce the recoil force by using backward spray near the muzzle, which allowed the cannon to maintain its destructive power without increasing the robot's payload. In this paper, the design process using a combination of Computational Fluid Dynamics simulations and experiments were presented. The combination was nontrivial but essential due to the limited prior knowledge of the employed bullet (for simulations) as well as firing safety regulation and high prototyping cost (for experiments). The final prototype of the cannon was field-tested and shown to be capable of reducing the recoil force to such an extent that the robot was visibly stationary.
单喷头反后喷水炮的紧凑反后坐力设计
对一种新型水炮进行了概念化、分析、原型制作和现场测试。加农炮被设计安装在远程控制的运载机器人上,其主要建议是利用水冲击来拆除通常放置在金属或木制容器中的爆炸物。在以前的设计中,射击产生了很大的后坐力,这可能会损坏和/或使机器人无法移动。在这里提出的新设计中,主要目标是通过在炮口附近使用向后喷雾来显着降低后坐力,这使得火炮在不增加机器人有效载荷的情况下保持其破坏力。本文介绍了采用计算流体力学模拟与实验相结合的设计过程。由于对所用子弹的有限先验知识(用于模拟)以及射击安全规则和高原型成本(用于实验),这种组合是非常重要的。加农炮的最终原型进行了现场测试,并显示能够将后坐力降低到如此程度,以至于机器人明显是静止的。
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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