College
College of Engineering and Polymer Science
Date of Last Revision
2023-05-05 05:52:12
Major
Chemical Engineering
Honors Course
4200 497
Number of Credits
2
Degree Name
Bachelor of Science
Date of Expected Graduation
Spring 2022
Abstract
Taking the previous research conducted, this project aims to further the study and research of the wettability of surfaces. Surface features and types are important factors to their wettability. The geometric properties of a surface can make it more hydrophobic and hydrophilic. Extreme cases of hydrophobic and hydrophilic surfaces lead to water repulsion or water absorption, even under extreme conditions. The goal of this project is to gain further insight on how fabricated 3D-printed featured surfaces and examine the wetting transition on these surfaces. In particular, cylindrical pillars will be studied with varied pillar spacing, height and diameter. In addition, the silicone surfaces will be coated with methyl, perfluoro, hydroxyl, and amino based salines. The liquid will be monitored on the surfaces through an optical microscope to determine the transitional behavior of the fluid on top and how fast the transition takes place from the non-wetting) such as seen in the Cassie-Braxter's state) to the wetting state (such as seen in the Wenzel's state).
Research Sponsor
Bi-min Zhang Newby
First Reader
Edward Evans
Second Reader
Roya Gitiafroz
Honors Faculty Advisor
Bi-min Zhang Newby
Recommended Citation
Moryan, Isabelle, "Wetting Transition on 3D-Printed Surfaces" (2022). Williams Honors College, Honors Research Projects. 1487.
https://ideaexchange.uakron.edu/honors_research_projects/1487
Signature Page per requested
Noctane Side.mp4 (426 kB)
Appendix B
Noctane Top.mp4 (1127 kB)
Appendix B
OTS Modified.mp4 (273 kB)
Appendix B
OTS unmodified.mp4 (368 kB)
Appendix B