Purdue University Graduate School
Jordan Soberg Thesis - Integrating Blood Air Separation with Microgravity Surgical Facility.pdf (56.68 MB)

Integrating Blood Air Separation with a Microgravity Surgical Facility

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posted on 2022-12-09, 15:37 authored by Jordan Wesley SobergJordan Wesley Soberg

Future long-duration space missions will take humans farther from the support resources of Earth than ever before. These missions will require microgravity surgical technologies in the case of an emergency that necessitates medical intervention. This experiment integrated three different surgical technologies for testing in weightlessness on parabolic flights: a surgical containment dome, a multi-function surgical wand, and a microgravity blood-air separator. Two fluid loops were utilized: one in which the surgical wand, containment dome, and a wound model were used to provide a realistic mixture of blood simulant and air to the blood-air separator. The other fluid loop used prescribed mixture ratios of air and blood to test the performance of the separator under varying conditions. The results of this experiment showed that the multi-functional surgical tool and dome functioned as designed. In addition, each separator successfully separated the blood and air from the mixture, allowing for future blood transfusion. With this demonstration, each system used in this experiment qualifies as technology readiness level 6. Advancing the technology readiness level of these technologies further will require long duration zero-g testing on-orbit before inclusion in authentic space mission emergency surgical strategy. 


NASA Flight Opportunity Program Grant 80HQTR20NOA01-20FO-F1.


Degree Type

  • Master of Science


  • Aeronautics and Astronautics

Campus location

  • West Lafayette

Advisor/Supervisor/Committee Chair

Steven Collicott

Advisor/Supervisor/Committee co-chair

George Pantalos

Additional Committee Member 2

D. Marshall Porterfield