ORCID

https://orcid.org/0009-0006-9094-6191

Creation Date

5-4-2026

Degree

Bachelor of Science (B.S.)

Major(s)

Mechanical Engineering

Document Type

Immediate Campus-Only Restricted Access

Abstract

Carbon nanotube (CNT) Buckypaper presents a compelling solution to inherent limitations in carbon fiber reinforced polymer ‘s (CFRP) electrical and thermal conductivity. CNT Buckypaper is a freestanding, entangled network of carbon nanotubes that offers exceptional mechanical, electrical, and thermal properties without the diffusion challenges associated with free CNT powder mixing. Accurately predicting its macroscale behavior from physical properties remains a significant challenge for design and research. Currently, the predominant approach is a representative volume element (RVE).

This study investigates whether multiple wall CNT Buckypaper can be feasibly modeled in SolidWorks, a commercial, general-purpose modeling software. The approach uses discrete elements made from individually modeled CNT fibers. Discrete CNT elements mimic Buckypaper's complex architecture, using the most ordered arrangements.

The purpose of this research is to see if commercial, general-purpose modeling software can characterize Buckypaper reliably. This could reduce the need for resource-intensive, specialized nanoscale simulation.

Date Defended

4-30-2026

Funding Source

None

Thesis Director

Dr. Vivek Khare

Second Committee Member

Dr. Morgan Green

Third Committee Member

Dr. Tommy Anderson

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Digital Object Identifier (DOI)

https://doi.org/10.54718/TEIN4916