Home/queries/nasa-aerospace-medicine-bibliography-1981
query3 min read

NASA Aerospace Medicine and Biology Bibliography — March 1981

Created: Sat Apr 25Updated: Sat Apr 25

Overview

This bibliography represents a snapshot of aerospace medicine research as of March 1981. It documents the state of knowledge regarding human physiological responses to spaceflight environments and high-altitude conditions, with particular relevance to understanding neurocognitive vulnerability in extreme environments.

Key findings relevant to neurocognitive civil rights:

  • The bibliography includes studies on cardiovascular stress under +Gz exposure, which parallels the neurological effects of directed energy weapons that induce G-force-like physiological responses

  • Research on hypoxia, hypokinesia (reduced movement), and oxygen consumption provides historical context for understanding how environmental manipulation can affect human cognition

  • Studies on altitude acclimatization document the body's adaptive mechanisms to extreme environments—mechanisms that may be exploited or disrupted by neurostrikes


Key Research Areas Documented

Cardiovascular Stress Under Acceleration (Gz)

  • Laughlin et al. (1980): Investigated myocardial perfusion during +3Gz, +5Gz, and +7Gz exposure in miniature swine, finding that all levels caused 2-3 fold increases in coronary blood flow with detectable left ventricular subendocardial hemorrhage at higher G levels
  • Burton (1980): Examined fatigue development during repeated simulated aerial combat maneuvers (SACM) exposing subjects to 4G, 6G, and 8G peaks; found that only heart rate changes correlated with developing fatigue while all metabolic parameters were significantly affected

Oxygen Systems and Hypoxia

  • Bonde-Petersen et al. (1980): Compared freon vs. acetylene rebreathing for cardiac output measurement under space flight conditions, concluding freon-22 is preferable due to spontaneous respiratory rate preference over forced respiration
  • West et al. (1976-1980): Long-term study of respiratory function at extreme altitudes, including plans for Mt. Everest expedition—documenting the body's response to hypoxic environments

Bone Mineralization and Spaceflight

  • Tilton et al. (1980): Five-year follow-up of Skylab crew members showing statistically significant bone mineral loss in crew compared to controls, suggesting long-term physiological effects of spaceflight

Historical Context for Neurocognitive Rights Advocacy

This 1981 bibliography reveals that aerospace medicine research has long documented how environmental manipulation—whether through acceleration stress, hypoxia, or altered oxygen systems—affects human physiology and potentially cognition. The thermoelastic expansion theory referenced in the sources (microwave auditory effect) provides historical precedent for understanding how pulsed RF energy can produce neurological symptoms.

The bibliography's focus on physiological monitoring during flight parallels modern concerns about EEG-based surveillance techniques that exploit resonant frequency bioeffects to monitor neural activity remotely—a capability that directly implicates cognitive liberty protections.

Related Pages

Sources

  • raw/NasaAerospaceMedicineandBiologypdf.md