Damping gimballess inertial navigation systems.
Error damping procedures for gimballess inertial navigational systems
ERROR CORRECTING DEVICE↗
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Search indexed NASA NTRS and DOE OSTI research on propulsion, heat transfer, battery materials and energy systems. Follow report and document links to the original sources.
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A study of navigation measurement schedules for LEM rendezvous.
Measurement schedules effect on work load of astronaut performing navigation function, stressing tradeoff between number of measurements and accuracy level
ASTRONAUT PERFORMANCE↗
An assessment of the navigation and course corrections for a manned flyby of Mars or Venus.
Guidance, navigation, propulsion and course correction specifications for Mars or Venus manned flyby missions
MARS /PLANET/↗
Conceptual nonorthogonal gyro configuration for guidance and navigation
Nonorthogonal sensor configuration using six single-degree-of-freedom inertial reference gyroscopes and a complete data processing and self-contained failure detection-and-isolation mechanism provides redundant capabilities to guidance and navigation systems. This system has been formulated in a strap-down configuration to attain maximum redundancy.
Gilmore, J. P.↗
Damping gimballess inertial navigation systems.
Error damping procedures for gimballess inertial navigational systems
ERROR CORRECTING DEVICE↗
Precision limb profiles for navigation and research.
Luminance profiles of earth sunlit limb through visible spectrum for navigation and research
LUNAR LIMB↗
Navigating the Mariner spacecraft to Mars.
Interplanetary-navigation procedures for Mariner spacecraft voyage to Mars evaluated, considering initial conditions, gravitational fields and other disturbing forces
Pickering, W. H.↗
Apollo guidance, navigation and control system gyro reliability.
Apollo gyro reliability covering Guidance, Navigation and Control systems, stressing failure mode prediction
GUIDANCE AND CONTROL↗
Gimballess inertial navigation systems Final report, Nov. 1, 1966 - Apr. 30, 1967
Gimballess inertial navigation systems
Fegley, K. A.↗
Factors affecting the design and use of a photographic sextant for space navigation
Factors affecting design and use of photographic sextant for space navigation
Walsh, T. M.↗
The development of Markov chain procedures for space guidance and navigation procedures Technical report, Sep. 1966 - Aug. 1967
Markov chain procedures for space guidance and navigation problems
Ainsworth, O. R.↗
Experiment D005 /D-5/, star occultation navigation
Electronic star occultation parameters for space navigation during Gemini 10 flight
Jorris, T. R.↗
Navigation systems of spacecraft
Space navigational systems and orbital elements for earth satellites and interplanetary spacecraft
Kirst, M. L.↗
Hybrid Doppler-radar inertial navigation techniques for the supersonic transport aircraft
Hybrid navigation system using Doppler and inertial radar sensors for supersonic aircraft applications
Sakran, F. C., Jr.↗
Study of aircraft position fixing using the Navy navigational satellite system
Supersonic aircraft position fixing based on Navy navigation satellite system
Spicer, B. R.↗
Effects of bias errors on interplanetary navigation and guidance system performance
Effect of bias errors on interplanetary navigation and guidance system performance
Rohde, P. J.↗
Venus swingby trajectories, estimation of inertial platform errors, interplanetary navigation and guidance analysis
Trajectory calculations for Venus swingby trajectories, interplanetary navigation and guidance analysis, and inertial platform errors
Source record↗
Lunar navigation study, volume 2 Final report, Jan. - Dec. 1966
Performance data utilization in mission phase, lunar exploration phase, and navigational phase of lunar roving vehicle missions
Broadbent, J. T.↗