Space Microbiology encompasses the nexus between biological, biomedical and chemical sciences within an engineering-focused environment. Spaceflight, and more specifically the phenomena of microgravity and radiation, perturb biological cells in countless ways. Understanding exactly how this occurs is an ongoing challenge; this mission contributes to this research tradition, pursuing projects to promote a vision of long-term human spaceflight.
Providing a warm and welcoming environment to learn dry- and wet-lab microbiology, from both a biological and chemical perspective.
Provide a better understanding of what long-term manned space flight means for us and our health.
Wet-Lab
Cell/Tissue-Culture
RNA-sequencing Analysis
Engineering: Payload Construction
Fluidics Delivery & Design
Electrical Engineering
Prototyping
Mechanical Engineering
CAD
Data Analysis/Scientific Figure Making
Grant Writing
Scientific Writing
Biological assays
Experimental Automation
The Space Microbiology mission spent the academic year learning about spaceflight and its effects on biological systems–namely, spaceflight-induced anemia and decreased bone density due to long-term exposure to microgravity.
The project aimed to identify changes in the quantity of genetic material pre- and post-exposure to microgravity. To achieve this, the team designed, prototyped, and implemented their own in-flight hardware, which allowed for a timed release of DNA/RNA preservative into HeLa cells for further extraction, isolation, and quantification.
From May 17th to May 24th, the team took their samples to Boston to collaborate with the George Church Lab at Harvard, and to New Hampshire to work with Weill Cornell’s Dr. Christopher E. Mason for an authentic microgravity experience via the Aurelia Institute and their parabolic flight programming.
See below for a selection of pictures from their visits.
A special look into the Space Microbiology’s visit to NASA’s Jet Propulsion Laboratory (JPL)!
Host Dr. Ceth Parker, and Space Microbiology Co-Leads Miriam Aziz and Theodore Nelson, inspect the rotary cell culture system (RCCS) from Synthecon, one of the 2D ‘simulated microgravity’ clinostats.
From left to right: Dr. Ceth Parker, Theodore Nelson, Miriam Aziz
Image courtesy of Jake Lee
JPL Escort Jake Lee and the Space Microbiology Team pose for a photo in the lobby of the Mission Control Center at NASA JPL.
From left to right: Jake Lee, Miriam Aziz, Theodore Nelson, Michelle Brose, Błażej Raszewski, Chloe Jones, Rashell Ramirez, Somin Lee, Brianna Przywozny
Image courtesy of Jake Lee
Host Dr. Ceth Parker, and Space Microbiology Team Members Somin Lee, Michelle Brose, Brianna Przywozny, and Rashell Ramirez outline the planned zinc oxide formation experiment on the whiteboard.
From left to right: Michelle Brose, Jake Lee, Dr. Ceth Parker, Somin Lee, Brianna Przywozny, Rashell Ramirez
Image courtesy of Miriam Aziz
The Space Microbiology Team poses in front of a sign that reads ‘Dare Mighty Things!’ a slogan associated with NASA’s rover missions to Mars.
From left to right: Theodore Nelson, Miriam Aziz, Brianna Przywozny, Somin Lee, Michelle Brose, Rashell Ramirez, Błażej Raszewski, Chloe Jones
Image courtesy of Theodore Nelson
The Space Microbiology Team poses in front of the stone JPL sign at the entrance to the campus.
From left to right: Michelle Brose, Theodore Nelson, Miriam Aziz, Somin Lee, Brianna Przywozny, Rashell Ramirez, Chloe Jones
Image courtesy of Theodore Nelson
The Space Microbiology Team poses inside the JPL Mission Control Center.
From left to right: Chloe Jones, Rashell Ramirez, Theodore Nelson, Brianna Przywozny, Somin Lee, Miriam Aziz, Błażej Raszewski, Michelle Brose
Image courtesy of Jake Lee
