A method for verifying the model of tank operational pressurization process during development of propellant supply system in liquid rocket engines of launch vehicle propulsion systems

Vitaliy A. Bershadskyi, B. Sokolov, Evgeny N. Tumanin
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Abstract

During development of propulsion systems for launch vehicles, in order to verify the design results, standalone developmental tests of propellant supply system components were run in specially designed test setups outfitted with the required instrumentation. As an example of such work, this paper describes the experience of standalone developmental testing of operational pressurization of propellant tanks. During tests in the constructed test setups, heat and mass exchange processes were tried out with simulation of design modes of operational pressurization of propellant tanks filled with oxygen and hydrogen. As a result of these tests, a rationale was provided for selection of working mediums as the pressurization gas, design and characteristics of gas injection into propellant tanks, a method for evaluating the efficiency of the pressurization process. Empirical dependences were obtained that were used as the boundary conditions in the models for practical calculations for refining the modes and evaluating the efficiency of the propellant supply subsystem of propulsion systems. The paper calls attention to the need to use for the purpose of development of the propellant supply systems that involves computer simulations the results of such earlier work when designing advanced rocket propulsion systems. Key words: propulsion system, propellant supply system, development of pressurization process, test setup, pressurization gas, propellant components, heat and mass transfer intensity, process efficiency, liquid surface sloshing, computer simulations.
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运载火箭推进系统液体火箭发动机推进剂供应系统研制过程中燃料箱操作增压过程模型的验证方法
在运载火箭推进系统的研制过程中,为了验证设计结果,推进剂供应系统组件的独立研制试验在配备所需仪器的专门设计的试验装置中进行。作为此类工作的一个实例,本文介绍了推进剂储罐操作加压的独立研制试验的经验。在建造的试验装置中,通过模拟充氧和充氢推进剂罐操作加压的设计模式,对热交换和质量交换过程进行了试验。作为这些试验的结果,为选择作为加压气体的工作介质,设计和向推进剂储罐喷射气体的特性,以及评估加压过程效率的方法提供了理论依据。得到了经验依赖关系,并将其作为模型的边界条件进行了实际计算,用于改进模型和评估推进系统推进剂供给分系统的效率。本文提请注意,在设计先进的火箭推进系统时,需要使用涉及计算机模拟的推进剂供应系统的结果。关键词:推进系统,推进剂供给系统,增压过程开发,试验装置,增压气体,推进剂组分,传热传质强度,过程效率,液体表面晃动,计算机模拟。
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