Compensatory nystagmus conditioned during adaptation to living in a rotating room
Human performance - nystagmus fluctuation during adaptation to living in rotating room
SEARCH · Engineering Papers
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.
Quote a phrase for an exact phrase match. Source license links do not imply unrestricted reuse.
Human performance - nystagmus fluctuation during adaptation to living in rotating room
Human performance during two weeks in pensacola slow rotating room
Inertial rotation sensor device mechanism based on frequency shift
Ataxia test battery to assess postural equilibrium under rotating conditions and for use in testing vestibular apparatus
Vestibular response modifications as function of rotation rate about earth-horizontal axis
Biochemical changes occurring with adaptation to accelerative forces during rotation
Comparative effects of prolonged rotation at 10 rpm on postural equilibrium in vestibular normal and vestibular defective human subjects
Effectiveness of antimotion sickness drugs compared by using recommended and larger than recommended doses as tested in slow rotation room
Nystagmus in normal and labyrinthine defectives as related to orientation of rotation axis relative to gravity
Habituation to complex vestibular stimulation in man - transfer and retention of effects from extended period of rotation
Comparative effects of prolonged rotation at 10 rpm on postural equilibrium in vestibular normal and defective human subjects
Otolith and nonotolith information influence in perception of visual horizontal by rotating human subjects with normal and defective labyrinthine functions
Drugs altering susceptibility to motion sickness in aerobatics and slow rotation room
Biochemical measures made as part of habituation experiment in which four subjects were exposed to rotation for 6 days
Antimotion sickness drugs and placebos effect on altering motion sickness susceptibility in Skyraider aircraft aerobatics and Slow Rotation Room dial test
The NASA Langley Research Center has the responsibility to advance the state-of-the-art in the area of stall/spin technology. This includes the development and validation of experimental and analytical techniques for the prediction of stall/spin characteristics. As a part of this effort, a rotary balance facility located in the Langley spin tunnel was developed two and a half years ago to rapidly identify an airplane's aerodynamic characteristics in a rotational flow environment. On-line rotary balance data plots and on-line predicted steady spin modes permit the designer to develop, on site, a configuration highly resistant to spins, or one which has good spin characteristics, i.e., no spin equilibrium conditions possible with lateral-directional controls neutral, if the airplane is to be used for acrobatic maneuvers or training. The rotary balance data are also used to compute time histories of a spin's incipient, developed, and recovery phases. These spin analysis techniques and their correlation with spin tunnel model and full-scale flight results are discussed herein.
Time-dependent computations have been performed to investigate the dynamical behaviors of fluid under a microgravity environment. A computer algorithm is introduced which can be used to simulate the fluid behavior in that environment, in particular the excitation of sloshing waves due to different gravity environments and rotation speeds. A suggestion on the proper handling and managing of cryogenic fluid propellant to be used in the Gravity Probe-B spacecraft propulsion is made.
A series of part-task laboratory experiments are planned to study whether the Tunnel-in-the-Sky perspective display can provide a significant improvement in pilot spatial awareness over conventional flight deck displays. Pilot subjects will fly a series of curved approaches to landing using a computer-generated tunnel overlaid on a terrain database. Subjects' primary task will be to look at (localize) various targets in the simulated environment by rotating the head so that the direction indicated is along the line-of-sight as seen through the windshield. Comparisons will be made with subjects performing the same tasks, but using conventional glass cockpit instrumentation.