实现最大电场保持的绝缘体技术

C. Harjes, J. C. Pouncey, Lisa Fisher, J. Lehr, E. Savrun, J. Neely
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引用次数: 2

摘要

在大型机器中,如加速器和高功率微波系统,通常采用脉冲功率技术。脉冲电源试图在短时间内提供大量的功率。这是通过存储高电压并通过开关快速将能量传递给所需负载来实现的。为了确保能量被输送到所需的负载上,有必要使用绝缘体将具有不同电势的导体分开。绝缘体的功能对系统的成败至关重要,正因为如此,人们对绝缘体的材料、几何形状和尺寸进行了大量的研究。这些绝缘子的常见故障是表面闪络。当电场变得足够强,使电子沿着绝缘体表面加速到在不同电势的导体之间形成电弧时,就会发生表面闪络。因此,机器受限于它所能承受的电压和它所能提供的功率。通过对绝缘体进行修改,持续电场的改善已被记录在案。本文试图进一步探讨增加持续电场的不同方法,以提高系统的功能。
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Insulator Technologies to Achieve Maximum Electric Field Holdoff
In large machines, such as accelerators and high power microwave systems, it is common to implement pulsed power technology. Pulsed power attempts to deliver large amounts of power in a short amount of time. This is done by storing high voltage and delivering that energy to the desired load quickly through switches. To ensure that the energy is delivered to the desired load it is necessary to use insulators to separate conductors having different potentials. The insulators function is crucial in the success or failure of the system and because of this, much research has been done in the materials, geometries, and sizes of insulators. A common mean of failure for these insulators is surface flashover. Surface flashover occurs when the electric field becomes strong enough to accelerate electrons along the surface of the insulator to a point where an arc is created between conductors of different potentials. The machine is therefore limited to the amount of voltage it can sustain and the amount of power it can deliver. By making modifications to the insulator, improvements in sustained electric field has been documented. This paper attempts to further investigate the different methods used to increase the sustained electric field to improve the function of the system.
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