THE HUMAN AS A MISSILE SYSTEM COMPONENT
Human error in reliability testing of missile systems
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Human error in reliability testing of missile systems
Simultaneous missile launching - statistical analysis
Statistical analysis of missile launching
Wind tunnel tests of wingless low aspect ratio folding control missile configurations
Materials-research areas of importance to missile and spacecraft structure
Measurement, description and presentation of wind data for missile and space vehicle design
Pressure distribution on base and afterbody of missile configuration with and without jet flow using single and multiple nozzles
Wind profiles and missile and spacecraft design
Mathematical model of missile launching
Static longitudinal stability and control characteristics of wingless missile configuration at supersonic and hypersonic speeds
Static longitudinal stability and control characteristics of hypersonic missile configuration with all movable cruciform wing and tail surfaces
Wind tunnel tests - effect of wind induced loads on dynamically scaled model of large missile in launching position
Derivation of set of linearized dynamic equations for use in missile stability analyses
High subsonic wind tunnel study of stability and control characteristics of antitank missile with ram-pressure jet controls on ring tail
A brief investigation of the longitudinal stability and control effectiveness at supersonic speeds of a model of a low-wing missile with interdigitated tail surfaces was made in the Langley Unitary Plan wind tunnel. The data were obtained at Mach numbers M of 2.29, 2.97, and 3.51 for Reynolds number (based on the mean geometric chord of the wing) of 1.15 x 10(exp 6), 1.14 x 10(exp 6), and 1.11 x 10(exp 6), respectively. Data were obtained for three settings of the longitudinal control surfaces: with deflection of all surfaces, with deflection of the lower surfaces only, and with all surfaces undeflected. Directional stability data were obtained at M=3.51 for angles of attack of approximately 0 deg and 10 deg. These data, with summary data and typical schlieren photographs, are presented with only a brief analysis. The data indicate that the controls are effective throughout the Mach number range and lift-coefficient range (CL = -0.15 to 0.7, approximately) of the tests. There is a severe break in the pitching-moment curve at M=2.29 which might result in a pitch-up condition in flight, and also a large forward movement of the aerodynamic center with increasing Mach number that produces neutral longitudinal stability at M=3.51 for the moment center used in this investigation. The model was directionally unstable at M=3.51; however, the level of directional stability was about the same for 0 deg and 10 deg angles of attack.
Wind tunnel investigation of transonic and supersonic flutter of air to surface missile vertical tail surfaces
Swept wing-fuselage flow fields on missile loads at subsonic speeds