Hydro-Reactive 엔진의 산화제 분사각도에 따른 연소특성에 대한 연구
Effects of Oxidizer Inject Angle on Combustion Characteristics in Hydro-Reactive Engine
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In this study, the variation of the flow field in Hydro-reactive engine combustor was numerically studiedthrough 2-dimensional axisymmetric model with aluminum and heated water vapor. For calculating all velocityfields, compressible Navier-Stokes equation was used with Pre-conditioning. AUSM+up(p) method was usedto exactly calculate mass flow in the control volume. As using SST model that is a turbulent model, the resulthad high accuracy for free stream and the flow near the wall. The effects of the temperature, variation of theflow field and distribution of chemical products on inject angle of heated water vapor were studied.
Abstract
In this study, the variation of the flow field in Hydro-reactive engine combustor was numerically studiedthrough 2-dimensional axisymmetric model with aluminum and heated water vapor. For calculating all velocityfields, compressible Navier-Stokes equation was used with Pre-conditioning. AUSM+up(p) method was usedto exactly calculate mass flow in the control volume. As using SST model that is a turbulent model, the resulthad high accuracy for free stream and the flow near the wall. The effects of the temperature, variation of theflow field and distribution of chemical products on inject angle of heated water vapor were studied.
참고문헌 (15)
- R.A. Yetter, "Metal particle combustion and nanotechnology", Proceedings of the Combustion Institute, 32(2), pp.1819~1838 (2009)
- E.L. Dreizin, "Metal-based reactive nanomaterials", Progress in Energy and Combustion Science, 35(2), pp.141~167 (2009)
- A.V. Fedorov, "Ignition of an Aluminum Particle", Combustion, Explosion, and Shock Waves, 39(5), pp.544~547 (2003)
- A.A. Razdobreev, "Ignition and combustion mechanism in aluminum particles", Combustion, Explosion, and Shock Waves, 12(2), pp.177~182 (1976)
- J.M. Weiss, "Preconditioning Applied to Variable and Constant Density Time-Accurate Flows on Unstructured Meshes", AIAA Journal, 33(11), pp.2050~2057 (1995)
- M.S. Liou, "A sequel to AUSM, Part II:AUSM+-up for All Speeds", Journal of Computational Physics, 214, pp.137~170 (2006)
- S.H. Park, "Implementation of k-w Turbulence Models in an Implicit Multigrid Method", AIAA Journal, 42(7), pp.1348~1357 (2004)
- M.W. Bechstead, "Numerical Simulation of Single Aluminum Particle Combustion", Combustion, Explosion, and Shock Waves, 41(6), pp.622~638 (2005)
- T.M. Kiehne, "An Eight-Step Kinetics Mechanism for High Temperature Propane Flames", Combustion Sciencs and Technology, 54, pp.1~23 (1987)
- J.F. Widener, "Aluminum combustion modeling in solid propellant environments", The 35th AIAA, SAE, pp.ASEE Joint Propulsion Conference and Exhibit, 1999
- O. Orlandi, "Numerical Simulation of the Combustion of a Single Aluminum Droplet in Various Environments", The 37th AIAA, SAE, pp.ASEE Joint Propulsion Conference and Exhibit, 2001
- S. Gallier, "Combustion response of an aluminum droplet burning in air", Proceedings of the Combustion Institute, 33(2), pp.1949~1956 (2011)
- W.D. Ki, "Combustion of micro aluminum-water mixtures", Combust. Flame., 160(12), pp.2990~2995 (2013)
- R.F. Cuffel, "Transonic Flowfield in a Supersonic Nozzle with Small Throat Radius of Curvature", AIAA Journal, 7(7), pp.1364~1366 (1969)
- R.E. Mtichell, "Experimental and numerical investigation of confined laminar diffusion flames", Combust. Flame., 37, pp.227~244 (1980)
