© 1996, American Institute of Aeronautics and Astronautics, Inc. All Rights Reserved.The NASA-Ames developed Navier-Stokes solver OVERFLOW and the panel code PMARC are applied to the computation of the flow over a typical missile forebody. The flowfields at low angles of attack from 0° to 14° are investigated. The surface pressures along the missile forebody predicted by OVERFLOW and PMARC agree well up to 10°. This favorable agreement suggests that the panel codes may be a computationally efficient tool for aerodynamic missile design purposes at low angles of attack
The CMARC panel code is evaluated to verify its accuracy and suitability for the development of an a...
The capability of two numerical methods to predict the flow field about a representative supersonic ...
The theoretical basis for PMARC, a low-order potential-flow panel code for modeling complex three-di...
The NASA-Ames developed panel code, PMARC, is employed to compute subsonic flows over an ogivecylind...
Subsonic flowfields over a missile configuration are computed at high angles of attack ranging from ...
An incompressible panel code is employed to compute the flow over an ogive cylinder body with an ove...
The aerodynamic analysis of subsonic lifting body concepts for future unmanned air vehicles and miss...
This work is part of a cooperative research, development, test and evaluation program that brings sc...
Experimental investigation of flow about a slender body of revolution (NACA RM-10 missile) aligned a...
Three missile body shapes tested at Mach numbers of 1.50, 2.16, and 2.86 with angles of attack up to...
The theoretical basis for PMARC, a low-order panel code for modeling complex three-dimensional bodie...
Wall static, local stream static, and pitot pressure surveys were made on the windward side of a hyp...
This paper discusses the computational and experimental approach to the determination of aerodynamic...
Prepared at Langley Research Center.Cover title.Includes bibliographical references (p. 20).Mode of ...
A low-order potential-flow panel code, PMARC, for modeling complex three-dimensional geometries, is ...
The CMARC panel code is evaluated to verify its accuracy and suitability for the development of an a...
The capability of two numerical methods to predict the flow field about a representative supersonic ...
The theoretical basis for PMARC, a low-order potential-flow panel code for modeling complex three-di...
The NASA-Ames developed panel code, PMARC, is employed to compute subsonic flows over an ogivecylind...
Subsonic flowfields over a missile configuration are computed at high angles of attack ranging from ...
An incompressible panel code is employed to compute the flow over an ogive cylinder body with an ove...
The aerodynamic analysis of subsonic lifting body concepts for future unmanned air vehicles and miss...
This work is part of a cooperative research, development, test and evaluation program that brings sc...
Experimental investigation of flow about a slender body of revolution (NACA RM-10 missile) aligned a...
Three missile body shapes tested at Mach numbers of 1.50, 2.16, and 2.86 with angles of attack up to...
The theoretical basis for PMARC, a low-order panel code for modeling complex three-dimensional bodie...
Wall static, local stream static, and pitot pressure surveys were made on the windward side of a hyp...
This paper discusses the computational and experimental approach to the determination of aerodynamic...
Prepared at Langley Research Center.Cover title.Includes bibliographical references (p. 20).Mode of ...
A low-order potential-flow panel code, PMARC, for modeling complex three-dimensional geometries, is ...
The CMARC panel code is evaluated to verify its accuracy and suitability for the development of an a...
The capability of two numerical methods to predict the flow field about a representative supersonic ...
The theoretical basis for PMARC, a low-order potential-flow panel code for modeling complex three-di...