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TOPFLOW pressure chamber - Versatile techniques to simplify design and instrumentation of thermal fluid dynamic experiments at high pressure

机译:顶流压力室 - 多功能技术,简化高压热流体动力学实验的设计和仪器

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摘要

Thermal hydraulic experiments at system pressures close to the reference reactor are difficult and costly. The pressure chamber technology described in the present paper was developed to improve the accessibility of the test fluid for an application of advanced instrumentation. The main idea consists in accommodating the actual test rig inside a pressure tank and operate it in pressure equilibrium with a filling gas in the chamber. In this way, the walls of the test equipment do not have to be designed as a pressure-bearing boundary. An important feature is a passive approach to maintain the needed very good pressure equilibrium between the fluid in the test setup and the filling gas of the chamber. It is in particular needed in experiments requiring high mass flows of steam supply. Auxiliary systems for pressurizing and cooling the chamber are described. Furthermore, several useful solutions of particular problems are presented, such as the accommodation of delicate devices, like high-speed cameras and infrared cameras, in the pressure chamber, a blurring-free imaging through large observation windows, the sealing of the latter, auxiliary equipment for an efficient handling of the test equipment and the design of penetrations for multiple electric signals through the pressure boundary. Finally, an overview of the experimental programs conducted by now is given, whereby the emphasis is put on examples of measuring results illustrating the potentials of the pressure chamber technology rather than on the scientific output of the given experimental programs.
机译:靠近参考反应器的系统压力的热液压实验难以且昂贵。开发了本文中描述的压力室技术以改善测试流体的可达性以应用先进仪器。主要思想包括容纳压力罐内的实际试验台,并在腔室中用填充气体进行压力平衡。以这种方式,测试设备的壁不必设计为压力边界。一个重要的特征是一种被动方法,以保持测试设置中的流体之间所需的非常好的压力平衡和腔室的填充气体。在需要高蒸汽供应的实验中特别需要。描述了用于加压和冷却腔室的辅助系统。此外,提出了几种特殊问题的有用解决方案,例如通过大观察窗口的压力室,在压力室中的微妙摄像机和红外摄像机等几种特殊问题,例如通过大观察窗口,后者的密封,辅助,辅助通过压力边界有效地处理测试设备和多个电信号的渗透设计。最后,给出了现在进行的实验程序的概述,从而强调测量结果的测量结果的示例,而不是在给定的实验程序的科学输出上的测量结果。

著录项

  • 来源
    《Nuclear Engineering and Design》 |2021年第2期|110971.1-110971.12|共12页
  • 作者单位

    Swiss Fed Inst Technol Dept Mech & Proc Engn D MAVT ML K13 Sonneggstr 3 CH-8092 Zurich Switzerland;

    Helmholtz Zentrum Dresden Rossendorf Inst Fluid Dynam Bautzner Landstr 400 D-01328 Dresden Germany|Tech Univ Dresden Inst Power Engn Chair Imaging Tech Energy & Proc Engn D-01062 Dresden Germany;

    Helmholtz Zentrum Dresden Rossendorf Inst Fluid Dynam Bautzner Landstr 400 D-01328 Dresden Germany;

  • 收录信息 美国《科学引文索引》(SCI);美国《工程索引》(EI);美国《生物学医学文摘》(MEDLINE);
  • 原文格式 PDF
  • 正文语种 eng
  • 中图分类
  • 关键词

  • 入库时间 2022-08-18 23:32:33

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