Structure and Reliability Design and Experiment of HIAF-BRing Dipole Magnet Pulse Power Supply

Yuan Li, Fengjun Wu, Xiaojun Wang, Yulian Tan, Yuhang Li, Jiqiang Li, D. Gao, Hongbin Yan, W. Shen, Jingtao Pu
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Abstract

High Intensity heavy ion Accelerator Facility (HIAF) aims to provide heavy ion beams with the highest pulse beam intensity in the world, and BRing (Booster Ring) is its main accelerator. Therefore, the HIAF-BRing dipole magnet pulse power supply needs to output fast, high-precision large current and wide range of high voltage. Not only that, the power supply also needs to meet the requirement of long-term stable operation. These requirements mean that the structure and reliability design of power supply are very important. In order to meet these requirements, project team proposes a variable-voltage fast-cycling energy storage pulse power supply and develops a prototype. This paper focuses on the structure and reliability design of power supply. In terms of structure and reliability design, the characteristics of power supply are fully considered and combined. Especially for the H-bridge IGBT, use the FLOTHERM software to perform thermal simulation according to the actual working conditions to obtain important data and optimize the design. The experiment of working principle verified the working principle of power supply, and the feasibility of the structure and reliability design was verified through the 72-hour reliability experiment.
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HIAF-BRing偶极磁脉冲电源结构与可靠性设计与实验
高强度重离子加速器设施(HIAF)旨在提供世界上脉冲束强度最高的重离子束,而BRing (Booster Ring)是其主要加速器。因此,HIAF-BRing偶极磁铁脉冲电源需要输出快速、高精度的大电流和宽范围的高压。不仅如此,电源还需要满足长期稳定运行的要求。这些要求意味着电源的结构和可靠性设计是非常重要的。为了满足这些需求,项目组提出了一种变电压快循环储能脉冲电源,并研制出样机。本文重点研究了电源的结构和可靠性设计。在结构和可靠性设计方面,充分考虑并结合了电源的特点。特别是对于h桥IGBT,利用FLOTHERM软件根据实际工况进行热模拟,获得重要数据,优化设计。工作原理实验验证了电源的工作原理,通过72小时可靠性实验验证了结构和可靠性设计的可行性。
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