College
College of Engineering and Polymer Science
Date of Last Revision
2025-04-26 12:10:45
Major
Chemical Engineering
Honors Course
CHEE497
Number of Credits
3
Degree Name
Bachelor of Science
Date of Expected Graduation
Spring 2025
Abstract
This project aims to investigate how textured microscopic surfaces can reduce ice adhesion, utilizing 3D-printed resin materials. By varying the size and shape of these surface imperfections, the research seeks to identify configurations that minimize ice formation and facilitate easier ice removal. The trapped air between the imperfections is expected to hinder water droplet adhesion, promoting detachment through gravity or motion. The study’s applications could extend to preventing icing on power lines, roads, and aircraft. Methodologically, the project will build on prior research, applying water to textured surfaces under controlled temperature conditions to assess ice formation and removal efficiency. Key metrics include the “roll-off angle” for droplet detachment and the force required to remove ice. A timeline outlines key actions, from proposal submission to final reporting. The ultimate goal is to produce a comprehensive technical report detailing the findings, which will not only fulfill academic requirements but also enhance the my practical skills in chemical engineering, preparing them for future career opportunities.
Research Sponsor
Bi-min Zhang Newby
First Reader
Roya Gitiafroz
Second Reader
Lu-Kwang Ju
Honors Faculty Advisor
Bi-min Zhang Newby
Proprietary and/or Confidential Information
No
Recommended Citation
Kling, Nathan, "Anti-icing Properties of 3D-Printed Superhydrophobic Surfaces" (2025). Williams Honors College, Honors Research Projects. 1968.
https://ideaexchange.uakron.edu/honors_research_projects/1968