管理热量:船舶内部组件
Jenny Cane1, Alan Barth1, Jaime Farrington1
1United Kingdom Atomic Energy Authority, Culham Campus , Abingdon, Oxfordshire OX14 3DB, UK.
概括
能源生产球形托卡马克 (STEP) 计划使用代设计方法开发用于核聚变原型发电厂的创新等离子面部元件 (PFC). 这种方法确定了热管理,三育种和整体工厂效率的解决方案.
科学领域:
- 核聚变能源的研究.
- 面向等离子体的组件 (PFC) 工程
- 核工程 核工程是指核工程.
背景情况:
- 能源生产的球形托卡马克 (STEP) 计划旨在创建一个原型的核聚变发电厂.
- 面向等离子体的组件 (PFC) 面临极端的热量和粒子负荷,需要先进的解决方案.
- PFC必须符合安全,发电,培养和工厂可用性的严格要求.
研究的目的:
- 详细介绍STEP程序中使用的"决定和代"方法.
- 解释该方法如何使得用于球形原型发电厂 (SPP) 识别合适的PFC概念成为可能.
- 通过这个设计过程开发的创新PFC解决方案.
主要方法:
- 实施一个代的"决定和代"设计方法.
- 在快速的,整个工厂的概念设计时间表内,对优先级决策的同步.
- 专注于解决PFCs的极端热量,颗粒和结构负荷.
主要成果:
- 确定SPP的新型PFC概念.
- 开发冷却的离散和面板限制器,以提高的繁殖和覆盖范围.
- 整合船外第一墙与繁殖区,以提高燃料自给自足.
- 在船内部件中使用重水 (D2O) 来促进三增殖.
结论:
- "决定和代"方法在核聚变发电厂设计中有效识别可行的PFC概念.
- 已经提出了创新的PFC解决方案,以满足STEP的苛刻要求.
- 这些进步有助于实现提供核聚变能源的目标.
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