Operator/tool interface problem areas for space maintenance.
Man/machine problems in performance of space maintenance, noting conditions for shirtsleeve and pressurized suit, glove-tool interface, etc
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Man/machine problems in performance of space maintenance, noting conditions for shirtsleeve and pressurized suit, glove-tool interface, etc
Tactual perception experiments and models
Estimated man-machine requirement computations for space navigation and guidance
Machine languages and problem oriented language related to computers
Water-immersion weightlessness simulation to determine astronaut EVA capabilities and man- machine interfaces
Critical tracking task for man-machine research related to operator effective delay time
Selection of space cabin atmospheres including pressure, fire and blast hazard, humidity and temperature control, etc
Water-immersion weightlessness simulation to determine astronaut EVA capabilities and man-machine interfaces
Inflight physiological experiments and man as functional unit in gemini project - review of results
Functional requirements for man-machine dialogue, noting voice insertion of data
Speech communication system between man and machine - electronic logic circuits
Aerospace medicine and man machine test results from 60 day test of regenerative life support system with oxygen and water recovery
Closed-loop compensatory tracking for measuring operator delay time in control action
Necessity of integrating man-machine relationships properly into advanced aerospace systems
The historic earth orbital flight of the Mercury space capsule on February 20, 1962 has illustrated that man has the capability of creating instrumentation and equipment which permit him to survive outside the protective earth atmosphere which, in time, has served both as a shield and a barrier. Because of this great achievement man need no longer restrict himself to earth-space but may direct his resources to expand his zone of operation to earth-moon space. However, in order to exploit this new frontier many problems must be solved which are not mere extensions or extrapolations of those already treated. The problem associated with providing man with an adequate environment for extended periods in the earth's atmosphere, earth-moon space and on the lunar surface is indeed extensive. Trapped radiation, solar flare activity, meteoroid bombardment, solar radiation and the hard vacuum of space are no longer merely phenomena. of scientific interest; they describe the operating environment of manned earth-lunar spacecraft. In order that man may effectively operate in the earth-moon space, myriads of systems and subsystems of varying types and functions must be devised and integrated into an efficient, reliable man-machine complex. This paper will consider only one small aspect of this problem--that is, the problem of providing man with an adequate gaseous and thermal environment in earth-lunar spacecraft. Control of atmospheric gases in manned sealed environments will be treated in Part I. Part II treats thermal regulation and atmosphere control requirements of mobile life support systems for lunar exploration.
Computer application to aerospace missions, discussing operation and equipment parameters, reliability, man-machine interaction, etc
Space rendezvous involving human occupants will be required in many phases of space flight. In order that rendezvous capability be concurrent with other phases of manned space flight to insure that such tasks as the rotation and addition of crews for manned space station, supply of stations and launching complexes for deep-space probes, and the emergency rescue of personnel may be carried out, it is desirable to determine the ability of a human pilot to control the rendezvous maneuver. The National Aeronautics and Space Administration has conducted a study program to determine vehicle requirements and control techniques for a number of proposed methods for performing piloted space rendezvous. The final step in each phase of the rendezvous study program has been a simulation of the man-machine combination to test its feasibility. Initially, an analytical study was conducted to determine a range of conditions that would exist at the beginning of the terminal phase of rendezvous (ref. 1). Piloted systems were investigated for rendezvous control using these initial conditions. One such study of piloted rendezvous in which all the required control information was displayed to the simulator pilot on instruments is presented in reference 2. While the control of the rendezvous maneuver by use of the instrument display was shown to be feasible, the sufficiently accurate measurement of the necessary information to operate the instrument was realized to be a difficult problem. Consideration was therefore given to the possibility of maneuvering range and range rate required for the control of the rendezvous from visual sightings made during the initial control application. To provide this capability, an analytical study was made. This analytical study, presented in reference 3, derived three techniques for obtaining range and range rate visually and conducted a simplified preliminary situation to test the three analytical techniques. The study reported herein is a continuation of the simulation work begun in reference 3, and is aimed at determining the ability of a pilot to use visual information to reduce or eliminate the need for some or all of the data that would normally be displayed on instruments.
Simulation techniques for evaluating factors in man machine systems