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Expanding Polymer Chemical Space Utilizing Fischer Carbenes, Brown Allylations, and Electrochemistry

Date Issued
December 1, 2022
Author(s)
Kyker, Breana J  
Advisor(s)
Johnathan N. Brantley
Additional Advisor(s)
Michael D. Best, Brian K. Long, Gila E. Stein
Abstract

Polymers have become ubiquitous in our everyday lives, and their various properties (which arise from the functional motifs found within the material) have helped them find a number of applications. Tuning material properties can be achieved either through polymerizing unique monomers with distinct chemical (or structural) elements, or post-polymerization modifications (which require the development of new synthetic methodologies). The research reported herein aims to address both of these grand challenges in materials science. We explore how the incorporation of metal and metalloid fragments affects polymer synthesis and bulk material properties, as well as how these synthetic handles can be subsequently engaged through further chemical transformation. Beyond this, we have developed a new electrochemical methodology that enables both functionalization and degradation of various polymeric substrates. These studies have allowed for the exploration of new chemical space in polymer science, as well as presented new platforms by which structure-property relationships can be interrogated.

Subjects

carbene

materials

synthesis

electrochemistry

methodology

sigmatropic

Disciplines
Organic Chemistry
Polymer Chemistry
Degree
Doctor of Philosophy
Major
Chemistry
Embargo Date
December 15, 2025
File(s)
Thumbnail Image
Name

Kyker_Breana_dissertation_v11.docx

Size

16.3 MB

Format

Microsoft Word XML

Checksum (MD5)

3b23555118677d295873e3dfe6dd4f18

Thumbnail Image
Name

Kyker_Breana_dissertation_v14.pdf

Size

15.17 MB

Format

Adobe PDF

Checksum (MD5)

58354ece64284d04ee9b3979e123fcee

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