Effects of Circuit Inductance on Electrical and Shock Wave Characteristics During Underwater Copper wire Explosion

Guofeng Yin, Yunfei Fan, H. Shi, Jian Wu, Xingwen Li, A. Qiu
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Abstract

Circuit inductance is an important parameter at underwater electrical wire explosion (UEWE) which is closely related to the energy deposition rate to the load wire. In this work, the circuit inductance was varied within a wide range from 1.55 $\Box\mathrm{H}$ to 93.2 $\Box\mathrm{H}$ by inserting inductive coils to study its effects on electrical and shock wave (SW) characteristics. Experimental results showed that SW peak pressure several-emaway from the wire is not sensitive to the increase of circuit inductance when properly choosing the diameter of load wire: the SW peak pressure obtained with varied diameter (with constant energy storage and wire length) only showed a decrease of 30% as the circuit inductance increased by 60 times from 1.55 $\Box\mathrm{H}$ (0.3 mm diameter, 19 MPa) to 93.2 $\Box\mathrm{H}$ (0.2 mm diameter, 13 MPa). Hydrodynamic calculations based on a coupled model were used to explain the experimental results. These results indicated that for a practical UEWE system, long cable can be used to transfer the pulse current so that the energy storage can be far away from the load while keeping an acceptable loss of the capability of generating strong SWs, which greatly improves the flexibility of system designing for example by enabling much larger energy storage for certain harsh working environments.
电路电感对水下铜线爆炸电特性和冲击波特性的影响
电路电感是水下电线爆炸时的一个重要参数,它与负载电线的能量沉积速率密切相关。在这项工作中,通过插入感应线圈来研究其对电和激波(SW)特性的影响,电路电感在1.55 $\Box\ mathm {H}$到93.2 $\Box\ mathm {H}$的广泛范围内变化。实验结果表明,在合理选择负载线直径的情况下,距离导线数emaway处的SW峰值压力对电路电感的增加不敏感:当电路电感从1.55 $\Box\mathrm{H}$ (0.3 mm直径,19 MPa)增加到93.2 $\Box\mathrm{H}$ (0.2 mm直径,13 MPa)增加60倍时,不同直径(储能和导线长度不变)下的SW峰值压力仅下降30%。采用基于耦合模型的水动力计算来解释实验结果。这些结果表明,对于实际的UEWE系统,可以使用长电缆传输脉冲电流,从而使储能系统远离负载,同时保持产生强SWs能力的可接受损失,这大大提高了系统设计的灵活性,例如,在某些恶劣的工作环境下可以实现更大的储能。
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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