复合材料低温单壁储罐的研制

P. Kutz, F. Otremba, J. Werner, C. Sklorz
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引用次数: 0

摘要

玻璃纤维增强塑料(GRP)的使用可以显著减轻储罐的重量。用玻璃钢代替钢制气体储罐(丙烷等),重量减轻了50%。在这个项目中,不仅要对材料进行优化,还要对设计进行优化。以前的储罐由双层结构组成,在两个壳体之间有一层保温层(例如真空)。本项目的目标是实现玻璃钢外加保温层的单壁结构。为了确定材料的温度依赖值,我们进行了两个不同的实验:第一个实验在一个简单的装置中验证了文献研究中发现的液氮的温度依赖材料特性。在实验过程中,测量小瓶中液氮的水平。数值模拟显示了氮水平的变化,具有足够的精度。在第二个实验中,在玻璃钢板的一侧施用液氮。温度测量用热电偶在GRP板的顶部和底部,以及在板的中间。通过数值模拟,确定了随温度变化的导热系数。在第三个实验中,设计了一个试验台来测试不同的绝缘材料。在这个试验台上,可以很容易地更换绝缘材料。采用确定的材料数据,对该试验台进行了数值模拟。实验表明,GRP可用于低温环境。多相模拟是描述由于热相变引起的热能吸收的一种合适的工具。下面是不同绝缘材料的结果。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Development of a Single Walled Tank Under Cryogenic Conditions Made of Composite
The use of glass-fiber reinforced plastic (GRP) can reduce the weight of tanks significantly. By replacing steel with GRP in tanks for gases (propane, etc.) a weight reduction of up to 50 % was reached. In this project not only the material should be optimized, but also the design. Previous tanks consist of a double-walled structure with an insulation layer between the two shells (e.g. vacuum). Goal of this project is to realize a single-walled construction of GRP with an insulation layer on the outside. To determine the temperature dependent material values, two different experiments are performed: In the first experiment, temperature dependent material properties of liquid nitrogen found in literature research are validated in a simple setup. The level of liquid nitrogen in a small jar is measured over the experiment time. Numerical simulation shows the change of nitrogen level with sufficient precision. In the second experiment, a liquid nitrogen is applied on one side of a GRP plate. Temperature is measured with thermocouples on top and bottom of the GRP plate, as well as in the middle of the plate. By use of numerical simulation, temperature dependent thermal conductivity is determined. In the third experiment, a test stand is designed to examine different insulation materials. In this test stand, the insulation material can easily be changed. A numerical simulation, in which the determined material data is used, is performed as well for this test stand. The experiments show, that GRP can be used in cryogenic environments. Multiphase simulations are a suitable tool to describe the energy absorption of thermal energy due to thermal phase change. Results on different insulation materials will follow.
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