PubMed · 1992 · 64 citations · 16 references
EducationPhysiologySports MedicineExercise PhysiologyExercise TestingPhysical ActivityAerobic ExerciseIntraocular Pressure MeasurementMetabolic Adaptation To ExercisePhysical FitnessResistance TrainingTraining AdaptationBlood Lactate AssessmentBlood Lactate MeasurementBlood Lactate TestingElectrolyte Balance During ExerciseIntraocular Pressure ElevationIntraocular Pressure ReductionPlasma OsmolaritySerum Biomarkers
The effect of a continuous 110-km march with a 20-kg backpack load on intraocular pressure (IOP), plasma osmolarity, blood lactate, pH, and other related laboratory parameters was studied in 22 healthy young volunteers. Intraocular pressure decreased significantly at all marching intervals and returned to baseline level 3 hr after the completion of marching. The maximal average reduction during marching was 4.1 mmHg, 26.5% below the baseline level. The IOP decreased again 48 hr after the march and returned to baseline level 48 hr later. There were two peaks of increased plasma osmolarity (one during the march and the other 48 hr after the march). There was no correlation between IOP changes and levels of pH, blood lactate, serum proteins, and electrolytes or hematologic parameters. These findings suggest that IOP reduction is related inversely to plasma osmolarity during and after strenuous exercise.
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The diurnal curve in man: new observations.
Paul Henkind, Mark W. Leitman, Elliot D. Weitzman · PubMed · 1973 · 105 citations
The Effect of Exercise on Intraocular Pressure
Philip Lempert, Kenneth H. Cooper, James F. Culver et al. · American Journal of Ophthalmology · 1967 · 101 citations
The effect of exercise on intraocular pressure. I. Human beings.
Daniel F. Marcus, Theodore Krupin, Steven M. Podos et al. · PubMed · 1970 · 85 citations
Exercise Conditioning and Intraocular Pressure
Michael S. Passo, Linn Goldberg, Diane L. Elliot et al. · American Journal of Ophthalmology · 1987 · 74 citations
Education, Ophthalmology, Physiology +11