Primitive-variable model applications to solid-fuel ramjet combustion

An adaptation of a primitive-variable finite-difference computer program was accomplished in order to predict the reacting flowfield in a solid-fuel ramjet. The study compares the predictions of the primitive-variable computer model with predictions of an earlier stream function-vorticity computer m...

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Veröffentlicht in:Journal of spacecraft and rockets 1981-01, Vol.18 (1), p.89-94
Hauptverfasser: Stevenson, Charles A, Netzer, David W
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container_issue 1
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container_title Journal of spacecraft and rockets
container_volume 18
creator Stevenson, Charles A
Netzer, David W
description An adaptation of a primitive-variable finite-difference computer program was accomplished in order to predict the reacting flowfield in a solid-fuel ramjet. The study compares the predictions of the primitive-variable computer model with predictions of an earlier stream function-vorticity computer model and with empirical data. The new model was found to be more readily adaptable to different geometric configurations and flow conditions. Flowfield calculations were made both within the fuel grain and the aft mixing chamber. Addition of the aft mixing chamber decreased the effect of fuel grain inlet velocity on boundary-layer thickness and the radial location of the flame zone within the fuel grain.
doi_str_mv 10.2514/3.28050
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subjects Solid fuels
title Primitive-variable model applications to solid-fuel ramjet combustion
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