针对制约高能武器发展的高功率、小体积脉冲功率电源研发难题，依托单位与中科院电工所合作原创提出爆炸准液态金属磁流体发电（爆炸准LMMHD）技术，利用破甲弹爆炸驱动的准液态金属射流作为发电工质，穿过特殊设计的破甲弹鼻锥组件发电通道，切割磁力线，产生电能，具有体积小、瞬时功率大(百千瓦级以上)，能量转化效率高等特点，易与破甲弹等武器结合，是电磁、激光等高能新概念攻击性武器的一种首选能源。. 项目依据磁流体动力学结合爆炸冲击动力学，构建爆炸准LMMHD系统数学模型，由显式动力学，理论分析控制不同破甲弹装药、药型罩材料和形状对金属射流电磁特性的影响；由不可压流体动力学，三维数值模拟与解析磁体发电通道的速度场、压力场、电场和磁场等多场耦合特性；由弹体气动特性，协同设计破甲弹药型罩与爆炸准LMMHD等发电组件，全面研究其发电的机理、性能参数影响因素及变化规律，并进行原理性实验验证

For the research problem of high power, small volume pulsed power supply of restricting the development of high-energy weapons, the explosion of quasi liquid metal MHD(explosion quasi LMMHD) generation technology is proposed ,based on the original cooperation of the unit and the Institute of Electrical Engineering of the Chinese Academy of Sciences. The quasi liquid metal jet driven by the HEAT's explosion is used as working fluid of power generation, through the HEAT nosecone assembly generation channel designed by high magnetic Reynolds number magnet, and then cut magnetic lines, generate electricity.It has the advantages of small volume, large instantaneous power (hundred kilowatt above), high energy conversion efficiency. It's easy to combine with HEAT and other weapons and is the preferred energy of the new concept of offensive weapons, such as electromagnetic weapons, laser weapons.. Based magnetic fluid dynamics, combined with the impact of the explosion kinetics, the explosion quasi LMMHD mathematical model is constructed. By explicit dynamics, theoretical analyses are conducted on how the electromagnetic characteristics of metal jet are influenced by different heat charge, liner material and shape; by The incompressible fluid dynamics, three dimensional numerical simulation and analysis are conducted on multi field coupling characteristics of velocity field , pressure field , electric field and magnetic field, etc. in magnet generator channel. By the Aerodynamic characteristics, HEAT liner and explosion quasi LMMHD and other power components are collaborative designed. A comprehensive study are conducted on its mechanism of power, performance parameters influencing factors and change rules, and the principle experiment is conducted to verify it.