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  5. Improving the Isotropy of Additively Manufactured Parts by Fused Deposition Modeling: From Polymeric Self-Assembly to Reactive Processing
Details

Improving the Isotropy of Additively Manufactured Parts by Fused Deposition Modeling: From Polymeric Self-Assembly to Reactive Processing

Date Issued
August 15, 2019
Author(s)
Levenhagen, Neiko
Advisor(s)
Mark Dadmun
Additional Advisor(s)
Mike Kilbey
Sheng Dai
Chad Duty
Permanent URI
https://trace.tennessee.edu/handle/20.500.14382/26830
Abstract

This dissertation focuses on understanding how the interfacial segregation of low molecular weight polymeric species in a polymer blend impacts the interlayer adhesion and mechanical isotropy of objects prepared by fused deposition modeling (FDM), a widely used additive manufacturing technique. The molecular weight, architecture, and chemical identity of the low molecular weight polymer in the blend dramatically impacts the formation of a robust interlayer interface. Additional modification of the low molecular weight component presents opportunities for reactive processing. The impact of covalent bonds between interfacial layers on the interlayer adhesion and overall isotropy of an FDM printed object is examined.

Subjects

Additive manufacturin...

3D printing

fused deposition mode...

surface segregation

reactive processing

energy dispersive x-r...

bimodal blends

Degree
Doctor of Philosophy
Major
Chemistry
Embargo Date
August 15, 2020
File(s)
Thumbnail Image
Name

utk.ir.td_11916.pdf

Size

12.28 MB

Format

Adobe PDF

Checksum (MD5)

ca097f4dc85f02e0d13ff971b234285c

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