Integrating Fiber Optic Sensors into Composites using Tailored Fiber Placement
Presenter(s)
Rachel Crossman
Files
Description
Creating composites that have material only where it is needed to add strength, while keeping it absent from locations it is not needed, is a huge advantage to reinforcing parts while keeping them light weight. This is the advantage of tailored fiber placement (TFP). However, making these parts not only able to reinforce high stress areas, but also allowing them to detect the changes in stress/ strain in that area as the part moves and shifts, opens the door for a variety of possibilities in composite manufacturing. This project researched the possibility of this through the creation of a beam integrated with LUNA’s fiber optic sensors. Each side of the beam was reinforced with an optimized TFP design and cured with the sensors embedded. Combining the technologies of TFP and fiber optic sensors allow parts not only to be extremely lightweight but give feedback on the stresses they are undergoing to promote better overall structural health.
Publication Date
4-19-2023
Project Designation
Independent Research
Primary Advisor
Paul Kladitis
Primary Advisor's Department
Electrical and Computer Engineering
Keywords
Stander Symposium, School of Engineering
Recommended Citation
"Integrating Fiber Optic Sensors into Composites using Tailored Fiber Placement" (2023). Stander Symposium Projects. 2923.
https://ecommons.udayton.edu/stander_posters/2923
Comments
Presentation: 2:20-2:40 p.m., Jessie Hathcock Hall 101