Space cabin landing impact vector effects on human physiology.
Human physiological effects and tolerance to simulated space cabin landing impacts in all body positions and configurations
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Human physiological effects and tolerance to simulated space cabin landing impacts in all body positions and configurations
Helium-oxygen mixture for microatmosphere of spacecraft cabins - animal study
Thermal comfort criteria for manned spacecraft cabin atmosphere
Regenerative moisture removal system testing for spacecraft cabin gases under 14 day mission simulation
Composition, concentration, partial pressures and toxicities of gas comprising manned space flight cabin atmosphere - human ecology
Rats exposed to space cabin atmosphere for two weeks, noting mortality rate, organism functioning, growth rate, etc
Performance characteristics of aerosol generator, and distribution sampling errors of electrostatic precipitator sampling device for space cabin atmosphere
Physiological factors of inert gases in space cabin atmospheres
Aerosol generation for instrument calibration, calibration of aerosol particle analyzers, data analysis computer program, and particle monitoring in space cabin atmosphere study
Physiological factor, hardware, and environmental control tradeoffs for one and two gas systems of space cabin atmospheres
Trace contaminants produced by man in space cabin simulator
Engineering criteria on space cabin atmosphere selection, and effects on life support system design
Volatile contaminants of space cabin materials
Selection of space cabin atmospheres including pressure, fire and blast hazard, humidity and temperature control, etc
NASA and USAF experiment on mans contribution to trace contaminants in space cabin simulator at 760 mm of Hg
Contaminant concentration due to human habitation of space cabin simulator at 258 mm Hg and oxygen atmosphere environment
We report on trace gas and major atmospheric constituents results obtained by the Vehicle Cabin Atmosphere Monitor (VCAM) during operations aboard the International Space Station (ISS). VCAM is an autonomous environmental monitor based on a miniature gas chromatograph/mass spectrometer. It was flown to the ISS on shuttle mission STS-131 and commenced operations on 6/10/10. VCAM provides measurements of ppb-to-ppm levels of volatile trace-gas constituents, and of the atmospheric major constituents (nitrogen, oxygen, argon, and carbon dioxide) in a space vehicle or station. It is designed to operate autonomously and maintenance-free, approximately once per day, with a self-contained gas supply sufficient for a one-year lifetime. VCAM is designed to detect and identify 90% of the target compounds at their 180-day Spacecraft Maximum Allowable Concentration levels.
The method for supplying medical oxygen to respiratorily-compromised astronauts on the International Space Station (ISS) and in future Orion missions consists of drawing oxygen from high pressure oxygen tanks. An Oxygen Concentrator Module (OCM) is a device that pulls in ambient air and separates out the nitrogen, resulting in a high concentration oxygen source. This technology has the potential to eliminate resupply and oxygen-enrichment issues associated with using high pressure oxygen tanks and become an alternative technology to support medical oxygen operations for future exploration missions. In this study, we test the long-term performance of a Commercial Off-the-Shelf (COTS) OCM in a simulated ISS cabin environment. Humidified air, carbon dioxide, and fifteen representative trace contaminants are continuously injected through a enclosed test chamber where the OCM is challenged. This study included the first successful demonstration of the Trace Gas Injection System (TGIS), which reliably and continuously produced ISS levels of trace contaminants, carbon dioxide, and humidity in an enclosed environment. The TGIS is a new and unique ground capability with significant implications for Test Readiness Level (TRL) advancement of COTS items and Government Furnished Equipment (GFE). This study demonstrated that the tested OCM reliably delivers enriched oxygen mostly at desired performance specifications. This study also demonstrated that the OCM does not inadvertently concentrate trace gases in its oxygen product stream, as detectable concentrations of trace contaminants in the oxygen product stream were at all times below the simulated ISS levels.