A Low-Profile, Self-Contained System for Atmospheric Monitoring and Mid-flight Collection of Viable Microbiological Samples at High Altitude
Caitlyn A. K. Singam

TL;DR
This paper presents a low-cost, self-contained high-altitude balloon system called PHANTOM for collecting and analyzing airborne microorganisms, enabling accessible atmospheric biological research.
Contribution
It introduces a novel, cost-effective payload design suitable for student projects to study atmospheric microbiology at high altitudes.
Findings
Successful flight trials demonstrating system reliability
Feasibility of interdisciplinary atmospheric microbiology research
Potential for widespread use in educational settings
Abstract
The prevalence of bacteria in the atmosphere has been well established in relevant literature, suggesting that airborne bacteria can influence atmospheric characteristics including the development of clouds. Studies have also demonstrated that the atmospheric biological profile is influenced by the underlying terrestrial biomes. An understanding of the complex interplay of factors that can influence the atmospheric biological profile, not to mention developing a biological census of the atmosphere, requires a cost-effective experimental system capable of generating reproducible results with reliable data. However, as has been demonstrated by payloads launched by space agencies such as NASA and JAXA, these payloads are both complex and cost prohibitive. This paper discusses the design and implementation of a biologically oriented experimental payload for high-altitude ballooning that is…
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Taxonomy
TopicsAdvanced Chemical Sensor Technologies · Species Distribution and Climate Change · Spaceflight effects on biology
