Advanced Colloids Experiment (Temperature Controlled) - (ACE-T11)

Meyer, William V.; Sicker, Ron; Bohurjak, Michael; Eustace, John G.; Khusid, Boris; Chaikin, Paul M.; Hollingsworth, Andrew D.

NASA NTRS · 20190025795

Advanced Colloids Experiment (Temperature Controlled) - (ACE-T11)

Meyer, William V.·Sicker, Ron·Bohurjak, Michael·Eustace, John G.·Khusid, Boris·Chaikin, Paul M.·Hollingsworth, Andrew D.

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Abstract

Increment 59-60 Science Symposium presentation of Advanced Colloids Experiment (ACE-T11, Khusid - NJIT (New Jersey Inst. of Technology)) to RPO (Research Program Office). The purpose of this event is for Principal Investigators to present their science objectives, testing approach, and measurement methods to agency scientists, managers, and other investigators. It is often assumed that time-average weightlessness simulated in a clinostat can reduce the effect of gravity on samples. Why not use it for colloids? Low-gravity parabolic flight tests on a non-buoyancy matched suspension demonstrated that time-average weightlessness in a clinostat does not eliminate gravity effect on patterns in colloids formed by an electric field. The long-term microgravity ISS (International Space Station) experiment provides a unique opportunity to reveal the relationship between external forces on the scale of individual particles and the colloid dynamics on the macroscopic scale.

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BibTeX RIS

Meyer, William V., Sicker, Ron, Bohurjak, Michael, Eustace, John G., Khusid, Boris, Chaikin, Paul M., Hollingsworth, Andrew D.. 2019-02-12. Advanced Colloids Experiment (Temperature Controlled) - (ACE-T11). https://ntrs.nasa.gov/citations/20190025795

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