University of Illinois Urbana-Champaign

Single-chain polymeric systems: design, synthesis, and applications

Garcia Ramirez, Edzna Shunay

Content Files
GARCIARAMIREZ-DISSERTATION-2021.pdf

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https://hdl.handle.net/2142/110698

Description

Title
Single-chain polymeric systems: design, synthesis, and applications
Author(s)
Garcia Ramirez, Edzna Shunay
Issue Date
2021-04-20
Director of Research (if dissertation) or Advisor (if thesis)
Zimmerman, Steven C
Doctoral Committee Chair(s)
Zimmerman, Steven C
Committee Member(s)
  • Harley, Brendan A
  • Moore, Jeffrey S
  • Schroeder, Charles M
Department of Study
Chemistry
Discipline
Chemistry
Degree Granting Institution
University of Illinois at Urbana-Champaign
Degree Name
Ph.D.
Degree Level
Dissertation
Date of Ingest
2021-09-17T02:34:37Z
Keyword(s)
  • single-chain polymer
  • amphiphilic polymer
  • catalysis
  • allyl carbamate cleavage
Abstract
Single-chain polymeric nanoparticles (SCNPs) have been explored for applications in biomedicine such as drug delivery, catalysis, and imaging. These SCNPs are generated from the intramolecular folding or collapse of the single-chain polymer where the collapse is achieved by self-assembly or covalent crosslinking. In this thesis, the intramolecular self-assembly of single-chain polymeric systems is explored in catalysis and fluorescence. In Chapter 2, we developed an amphiphilic ruthenium-containing single-chain polymer that promotes allyl carbamate cleavage reactions in aqueous and biologically relevant conditions. This polymeric catalyst works in synergy with the enzyme β-galactosidase to perform a tandem reaction on a single substrate. Additionally, the polymer catalyst was characterized by various methods to study its self-assembly. In Chapter 3, we investigated a modular approach to SCNPs for catalysis that consists of an amphiphilic single-chain polymer that folds under dilute aqueous conditions resulting in unimolecular micelle-like structures. This modular approach allows binding of various catalysts and substrates leading to reaction rate enhancement. In Chapter 4, we developed fluorophore-containing single-chain polymers that may be useful in bioimaging. The polymers solubilized and stabilized various types of organic fluorophores leading to brighter and more stable fluorophores.
Graduation Semester
2021-05
Type of Resource
Thesis
Permalink
http://hdl.handle.net/2142/110698
Copyright and License Information
Copyright 2021 Edzna Garcia Ramirez

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