{"title":"实验动力堆研制中燃料卵石气动输送的理论研究","authors":"K. Widiyati, S. Dibyo","doi":"10.1063/1.5135513","DOIUrl":null,"url":null,"abstract":"High Temperature Gas Cooled Reactors (HTGR) have many advantages such as inherent safety feature and high efficiency. National Nuclear Agency of Indonesia (BATAN) is developing a small size HTGR which called Experimental Power Reactor (RDE) to generate 10 MW thermal power. On the RDE design development, it is expected that a number of fuel elements are circulated pneumatically in to the reactor core by the fuel handling system every day. The fuel elements are transported vertically in a pneumatic pipe, with length 23 meters. Stability and reliability of the pneumatic transportation play important key factors in the fuel element transportation. In this paper, a theoretical approach to determine the operating pressure and velocity related to the compressed gas carrier in the pneumatic transportation is proposed. The analysis is made by considering several forces acting on the fuel element., such as drag force and force due to fuel mass. Analysis of carrier gas velocity and pressure is made under several stages: during the equilibrium stage and during the lifting stage. This research may provide an important basis in providing the operating parameters in the development of RDE. The principle of drag force and Bernoulli equation were used to determine the operating pressure and velocity to be applied in the development of experimental power reactor. From the calculation, it was obtained that in order to transport a fuel pebbel from the starting pneumatic system, which located in the lower part of pneumatic system, to the outlet pipe of pneumatic system facing the reactor, which located 23 meters above the former location, the velocity required was 1,063.95 m/s. The required pressure to produce such velocity was 39.25 Bar. Since the Fuel Handling System (FHS) equipments were operating at 30 Bar, then the penumatic system would be operating at 9.25 Bar.High Temperature Gas Cooled Reactors (HTGR) have many advantages such as inherent safety feature and high efficiency. National Nuclear Agency of Indonesia (BATAN) is developing a small size HTGR which called Experimental Power Reactor (RDE) to generate 10 MW thermal power. On the RDE design development, it is expected that a number of fuel elements are circulated pneumatically in to the reactor core by the fuel handling system every day. The fuel elements are transported vertically in a pneumatic pipe, with length 23 meters. Stability and reliability of the pneumatic transportation play important key factors in the fuel element transportation. In this paper, a theoretical approach to determine the operating pressure and velocity related to the compressed gas carrier in the pneumatic transportation is proposed. 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The analysis is made by considering several forces acting on the fuel element., such as drag force and force due to fuel mass. Analysis of carrier gas velocity and pressure is made under several stages: during the equilibrium stage and during the lifting stage. This research may provide an important basis in providing the operating parameters in the development of RDE. The principle of drag force and Bernoulli equation were used to determine the operating pressure and velocity to be applied in the development of experimental power reactor. From the calculation, it was obtained that in order to transport a fuel pebbel from the starting pneumatic system, which located in the lower part of pneumatic system, to the outlet pipe of pneumatic system facing the reactor, which located 23 meters above the former location, the velocity required was 1,063.95 m/s. The required pressure to produce such velocity was 39.25 Bar. 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摘要

高温气冷堆(HTGR)具有固有的安全性和高效性等优点。印度尼西亚国家原子能机构(BATAN)正在开发一种小型HTGR,称为实验动力反应堆(RDE),可产生10兆瓦的火力。在RDE设计发展上,期望每天有若干燃料元件通过燃料处理系统气动循环进入反应堆堆芯。燃料元件在长23米的气动管道中垂直输送。气动输送的稳定性和可靠性是影响燃料元件输送的关键因素。本文提出了一种确定气动输送中与压缩气体载体有关的操作压力和速度的理论方法。分析考虑了作用在燃料元件上的几种力。,如阻力和燃料质量引起的力。在平衡阶段和提升阶段对载气速度和压力进行了分析。本研究可为RDE的研制提供操作参数提供重要依据。利用阻力原理和伯努利方程确定了实验动力堆的运行压力和运行速度。由计算可知,为了将一个燃料圆块从气动系统下部的启动气动系统输送到位于启动气动系统上方23 m的面向反应器的气动系统出口管道中,所需的流速为1063.95 m/s。产生这种速度所需的压力为39.25 Bar。由于燃料处理系统(FHS)设备在30 Bar下运行,那么气动系统将在9.25 Bar下运行。高温气冷堆(HTGR)具有固有的安全性和高效性等优点。印度尼西亚国家原子能机构(BATAN)正在开发一种小型HTGR,称为实验动力反应堆(RDE),可产生10兆瓦的火力。在RDE设计发展上,期望每天有若干燃料元件通过燃料处理系统气动循环进入反应堆堆芯。燃料元件在长23米的气动管道中垂直输送。气动输送的稳定性和可靠性是影响燃料元件输送的关键因素。本文提出了一种确定气动输送中与压缩气体载体有关的操作压力和速度的理论方法。分析考虑了作用在燃料元件上的几种力。,如阻力和燃料质量引起的力。对载气速度和压力在不同工况下进行了分析。
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Theoritical approach of pneumatic transportation for fuel pebbles in experimental power reactor development
High Temperature Gas Cooled Reactors (HTGR) have many advantages such as inherent safety feature and high efficiency. National Nuclear Agency of Indonesia (BATAN) is developing a small size HTGR which called Experimental Power Reactor (RDE) to generate 10 MW thermal power. On the RDE design development, it is expected that a number of fuel elements are circulated pneumatically in to the reactor core by the fuel handling system every day. The fuel elements are transported vertically in a pneumatic pipe, with length 23 meters. Stability and reliability of the pneumatic transportation play important key factors in the fuel element transportation. In this paper, a theoretical approach to determine the operating pressure and velocity related to the compressed gas carrier in the pneumatic transportation is proposed. The analysis is made by considering several forces acting on the fuel element., such as drag force and force due to fuel mass. Analysis of carrier gas velocity and pressure is made under several stages: during the equilibrium stage and during the lifting stage. This research may provide an important basis in providing the operating parameters in the development of RDE. The principle of drag force and Bernoulli equation were used to determine the operating pressure and velocity to be applied in the development of experimental power reactor. From the calculation, it was obtained that in order to transport a fuel pebbel from the starting pneumatic system, which located in the lower part of pneumatic system, to the outlet pipe of pneumatic system facing the reactor, which located 23 meters above the former location, the velocity required was 1,063.95 m/s. The required pressure to produce such velocity was 39.25 Bar. Since the Fuel Handling System (FHS) equipments were operating at 30 Bar, then the penumatic system would be operating at 9.25 Bar.High Temperature Gas Cooled Reactors (HTGR) have many advantages such as inherent safety feature and high efficiency. National Nuclear Agency of Indonesia (BATAN) is developing a small size HTGR which called Experimental Power Reactor (RDE) to generate 10 MW thermal power. On the RDE design development, it is expected that a number of fuel elements are circulated pneumatically in to the reactor core by the fuel handling system every day. The fuel elements are transported vertically in a pneumatic pipe, with length 23 meters. Stability and reliability of the pneumatic transportation play important key factors in the fuel element transportation. In this paper, a theoretical approach to determine the operating pressure and velocity related to the compressed gas carrier in the pneumatic transportation is proposed. The analysis is made by considering several forces acting on the fuel element., such as drag force and force due to fuel mass. Analysis of carrier gas velocity and pressure is made under several sta...
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