Adaptation to rotating artificial gravity environments

Journal of Vestibular Research: Equilibrium and Orientation

Volumn 13, Issue 4-6, 2003, Pages 321-330

  Lackner, James R ^a   DiZio, Paul A ^a  

^a BRANDEIS UNIVERSITY   (United States)

Author keywords

Adaptation; Artificial gravity; Coriolis forces; Movement control; Vestibular function

Indexed keywords

ACCURACY; ARM MOVEMENT; BODY MOVEMENT; CONFERENCE PAPER; CORIOLIS PHENOMENON; EVOLUTIONARY ADAPTATION; EXPERIMENT; FEEDBACK SYSTEM; FORCE; GRAVITY; HEAD MOVEMENT; HISTORY; HUMAN; LIFE EVENT; LOCOMOTION; MASS; MOTION; MOTOR CONTROL; NERVE TRACT; NERVOUS SYSTEM; PERCEPTION; PRIORITY JOURNAL; ROTATION; SEMICIRCULAR CANAL; SENSORIMOTOR FUNCTION; TRUNK; VELOCITY; VESTIBULAR FUNCTION; VESTIBULAR SYSTEM; VOLUNTARY MOVEMENT;

NASA DISCIPLINE NEUROSCIENCE; NON-NASA CENTER;

ADAPTATION, PHYSIOLOGICAL; CORIOLIS FORCE; GRAVITY, ALTERED; HUMANS; ROTATION;

EID: 2342522722     PISSN: 09574271     EISSN: None     Source Type: Journal    
DOI: None     Document Type: Conference Paper

References (34)

1. J.B. Charles, M.W. Bungo and G.W. Fortner, Cardiopulmonary function, in: Space physiology and medicine, third edition, A. Nicogossian, C. Huntoon and S. Pool, eds, Lea & Febiger: Philadelphia, PA, 1994, pp. 286-304.
2. B. Clark and A. Graybiel, Human performance during adaptation to stress in the Pensacola Slow Rotation Room, Aerospace Med 32 (1961), 93-106.
3. P. DiZio and J.R. Lackner, Sensory motor adaptation at high rotation speeds, J Vestib Res 12 (2003), 291-299.
4. P. DiZio and J.R. Lackner, Deviations and rapid adaptation of leg movements perturbed by Coriolis forces in a rotating room, Soc Neurosci Abst 23 (1997), 1562.
5. P. DiZio and J.R. Lackner, Motor adaptation to Coriolis force perturbations of reaching movements: Endpoint but not trajectory adaptation transfers to the non-exposed arm, J Neurophysiol 74(4) (1995a), 1787-1792.
6. P. DiZio and J.R. Lackner, Effects of Coriolis, cross-coupled stimulation on head movement control, Soc Neurosci Abst 21 (1995b), 59.6.
7. P. DiZio, N. Landman and J.R. Lackner, Fingertip contact forces map reaching endpoint, Soc Neurosci Abst 25 (1999), 760.15.
8. P. DiZio, J.R. Lackner and J.N. Evanoff, The influence of gravitointertial force level on oculomotor and perceptual responses to Coriolis, cross-coupling stimulation, Aviat Space & Environ Med 58 (1987), A218-A223.
9. V.R. Edgerton and R.R. Roy, Neuromuscular adaptation to actual and simulated gravity, in: Handbook of Physiology: Section 4: Environmental Physiology, M.J. Fregly and C.M. Blatteis, eds, Oxford University Press NY, 1995, pp. 721-756.
10. A.R. Fregly and R.S. Kennedy, Comparative effects of prolonged rotation at 10 rpm on postural equilibrium in vestibular normal and vestibular defective human subjects. Aerospace Med 36(12) (1965), 1160-1167.
11. A.R. Fregly, Vestibular ataxia and its measurement in man, in: Handbook of sensory physiology, (vol. VI), H.H. Kornhuber, ed., Springer Verlag, New York, 1974, pp. 321-360.
12. O. Gazenko, E.B. Shulzhenko, A.J. Grigoriev, O.Y. Atov and A.D. Egorov, Review of basic medical results of the Salyut-7-Soyuz-T 8-month manned flight, Acta Astronautica 17 (1988), 155-160.
13. A. Graybiel, B. Clark and J.J. Zarriello, Observations on human subjects living in a slow rotation room for periods of two days, Arch Neurol 3 (1960), 55-73.
14. A. Graybiel and J. Knepton, Direction-specific adaptation effects acquired in a slow rotation room, Aerospace Med 43(11) (1972), 1179-1189.
15. A. Graybiel, A.B. Thompson, F.R. Deane, A.R. Fregly, J.K. Colehour and E.L. Ricks, Transfer of habituation of motion sickness on change in body position between vertical and horizontal in a rotating environment, Aerospace Med 39 (1968), 950.
16. A. Graybiel, E.F. Miller II and J.L. Homick, Experiment M131, Human vestibular function, in: Biomedical results from Skylab, R.S. Johnston and L.F. Dietlein, eds, NASA: Washington, 1977, pp. 74-103.
17. A. Graybiel, R.S. Kennedy, E.C. Knoblock, F.E. Guedry Jr, W. Mertz, M.W. McLeod, J.K. Colehour, E.F. Miller II and A.R. Fregly, The effects of exposure to a rotating environment (10 rpm) on four aviators for a period of twelve days, Aerospace Med 36 (1965), 733-754.
18. A. Graybiel and W.H. Johnson, A comparison of the symptomatology experienced by healthy persons and subjects with loss of labyrinthine function when exposed to unusual patterns of centripetal force in counterrotating room, Ann Otol Rhinol Laryngol 72(2) (1963), 357-374.
19. F.E. Guedry, W.E. Collins and A. Graybiel. Vestibular habituation during repetitive complex stimulation: A study of transfer effects. BuMed Project MR005.13-6001 Substask 1, Report No.93 and NASA Order No. R-93. Pensacola, FL.: Naval School of Aviation Medicine, 1964.
20. M.F. Holick, Microgravity, calcium and bone metabolism: a new perspective, Acta Astronautica 27 (1992), 75-81.
21. W.H. Johnson, R.A. Stubbs, G.F. Kelks and W.R. Franks, Stimulus required to produce motion sickness, J Aviat Med 22 (1951), 365-374.
22. J.R. Lackner and P. DiZio, Adaptation to Coriolis force perturbation of movement trajectory: Role of proprioceptive and cutaneous somatosensory feedback, Adv Exp Med Biol 508 (2002), 69-78.
23. J.R. Lackner and P. DiZio, Adaptation in a rotating artificial gravity environment, Brain Res Rev 28 (1998), 194-202.
24. J.R. Lackner and P. DiZio, Rapid adaptation to Coriolis force perturbations of arm trajectory, J. Neurophysiol 72(1) (1994), 299-313.
25. J.R. Lackner and P. DiZio, Gravitational, inertial, and Coriolis force influences on nystagmus, motion sickness, and perceived head trajectory, in: The Head-Neck Sensory-Motor Symposium, A. Berthoz, W. Graf and P.P. Vidal, eds, Oxford University Press: NY, 1992, pp. 216-222.
26. A.D. LeBlanc, V.S. Scheider, H.J. Evans, C. Pientok, R. Rowe and E. Spector, Regional changes in muscle mass following 17 weeks of bed rest, J. Appl. Physiol. 73 (1992), 2172-2178.
27. A.E. Nicogossian and P.D. McCormack, Artificial gravity - a countermeasure for zero-gravity. IAF/IAA-87-533, Proceedings of the 38th Congress of the International Astronautical Federation, 1987.
28. P. Pigeon, S.B. Bortolami, P. DiZio and J.R. Lackner, Coordinated turn and reach movements. I. Anticipatory compensation for self-generated Coriolis and interaction torques, J Neurophysiol 89 (2003), 276-289.
29. P. Pigeon, S.B. Bortolami, P. DiZio and J.R. Lackner, Coordinated turn and reach movements. II. Planning in an external frame of reference, J Neurophysiol 89 (2003), 290-303.
30. V.S. Schneider and J. McDonald, Skeletal calcium homeostasis and countermeasures to prevent disuse osteoporosis, Calcif Tissue Int 36 (1984), 5151-5154.
31. G. Schubert, Die physiologischen Auswirkungen der Coriolis- beschleunigungen bei flugzeugsteuerung. Arch Uhr.-Nas-, U Kehlk-Heilk 30 (1932), 595-605.
32. K. Soeda, P. DiZio and J.R. Lackner, Balance in a rotating artificial gravity environment, Exp Brain Res 148 (2003), 266-271.
33. R.W. Stone and W. Letko, Some observations on the stimulation of the vestibular system of man in a rotating environment, in: The role of the vestibular organs in the exploration of space, NASA SP-77 1965, pp. 263-278.
34. L.R. Young, Artificial gravity considerations for a Mars exploration mission, in: Otolith function in spatial orientation and movement, 871, B.J.M. Hess and B. Cohen, eds, New York Academy of Sciences, NY, 1999, pp. 367-378.