Participation of Ames Research Center in the MSC-4 experiment
Equipment and ground stations for laser radar and communication experiment MSC-4 on Gemini 7 flight
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Equipment and ground stations for laser radar and communication experiment MSC-4 on Gemini 7 flight
Navigation and guidance simulator for identifying performance capabilities of human operator during translunar or midcourse flight
Miniature electronic systems for biomedical instrumentation and monitoring physiological parameters in small animals, surveying amplifiers and telemetry
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Magnetospheric plasma probe results with Pioneer 6 and 7, discussing plasma fluctuations and solar wind interaction with geomagnetic field
Heating facility for testing ablative heat shield material models in combined convective and radiative heating environment with constant or transient heating conditions
Earth albedo instrument on OSO 3 spacecraft to measure solar reflectance of earth at various wavelengths
Shock tube facility with high explosive driver for reentry flow conditions simulation of manned planetary flights
Convective heat transfer characteristics of M2 and M2-F2 lifting entry vehicles
Annotated bibliography of research papers presented at plasma physics conference
Air pollution monitoring and pollutant source surveillance system, and effective regulations and enforcement means for San Francisco Bay area
Feasibility of model acoustic measurements in wind tunnel for estimating total sound power
Diurnal variation in endocrine and adrenocortical systems during prolonged bed rest
Hybrid computer operating system for piloted aircraft simulation and optimization studies
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Data for use in development of takeoff airworthiness standards for new aircraft designs such as the supersonic transport (SST) and the large wide-body subsonic jet transport are provided. An advanced motion simulator was used to compare the performance and handling characteristics of three representative large jet transports during specific flight certification tasks. Existing regulatory constraints and methods for determining rotation speed were reviewed, and the effects on takeoff performance of variations in rotation speed, pitch attitude, and pitch attitude rate during the rotation maneuver were analyzed. A limited quantity of refused takeoff information was obtained. The aerodynamics, wing loading, and thrust-to-weight ratio of the subject SST resulted in takeoff speeds limited by climb (rather than lift-off) considerations. Take-off speeds based on U.S. subsonic transport requirements were found unacceptable because of the criticality of rotation-abuse effects on one-engine-inoperative climb performance. Adequate safety margin was provided by takeoff speeds based on proposed Anglo-French supersonic transport (TSS) criteria, with the limiting criterion being that takeoff safety speed be at least 1.15 times the one-engine-inoperative zero-rate-of-climb speed. Various observations related to SST certification are presented.
A description of work whose broad objective is to attain improved aircraft navigation performance through exploitation of the concept of combining navigation data from several sources in an optimum manner is presented. The system developed as a result of the work, called RAINPAL (Recursive Aided Inertial Navigation for Precision Approach and Landing) is designed to combine precision radio range measurements with data from on-board inertial sensors to achieve precision navigation for approach and landing. The paper describes RAINPAL and the rationale of its design, and also serves as a sort of planning document, including a progress report, a summary of objectives past and present, and an exposition of reasons for doing the work.
A high enthalpy shock tunnel using arc-heated helium as the driver gas was designed for gas dynamic research at total stream energies from 7,000 to 35,000 j/g. The arc driver was found to be a relatively efficient energy converter. Tailored shock Mach numbers from 11.5 to 14.6 in air were demonstrated. A nozzle calibration with a total stream enthalpy of 18,600 j/g of air gave test times of 1.5 to 2.0 m sec at flow Mach numbers from 16 to 24.