Understanding Depolymerization and Repolymerization Toward Repurposing Polymer Waste Into Valuable Chemicals & Materials

ABSTRACT The versatility of synthetic polymers has led to their continual and escalating production that has accompanied mismanagement at their end‐of‐life. Exploring and understanding complementary avenues to repurpose plastic waste beyond traditional mechanical recycling can unlock new opportunities in providing feedstock flexibility, securing supply chains, recovering valuable materials, and enabling new valorization paths. Chemical recycling allows for the return to monomers, tailored oligomers, and polymers, even from mixed states of post‐consumer waste plastics. This review article summarizes our research team's efforts on elucidating key insights surrounding plastic depolymerization and repolymerization into valorized products. We revealed organocatalyst design rules lead to highly effective and selective deconstruction of condensation polymers. The intricacies of tailoring the reaction environment to produce products of specific lengths and desired functionalities transform low‐value waste feedstocks into high‐performance materials with embedded circularity. Other types of polymers, including polyolefins and polyakenamers, have also been designed and converted into valuable products. There remain opportunities for further developments such as low‐energy and precision depolymerization, adoption of cutting‐edge small molecule transformation to access functionalized polymer scaffolds typically inaccessible otherwise, as well as precision design and understanding through the aid of advanced tools.

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Publication Details

Journal
Advanced Materials Technologies
Published
2026-04-16
DOI
https://doi.org/10.1002/admt.202502645
Primary Topic
Polymer crystallization and properties
Type
article
Field-Weighted Citation Impact
0.00

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article

Understanding Depolymerization and Repolymerization Toward Repurposing Polymer Waste Into Valuable Chemicals & Materials

Tomonori Saito, Jeffrey C. Foster, Nicholas J. Galan, Md Anisur Rahman et al.
Advanced Materials Technologies
Polymer crystallization and properties
article

Understanding Depolymerization and Repolymerization Toward Repurposing Polymer Waste Into Valuable Chemicals & Materials

Tomonori Saito, Jeffrey C. Foster, Nicholas J. Galan, Md Anisur Rahman, Britney Baez
article en

Abstract

ABSTRACT The versatility of synthetic polymers has led to their continual and escalating production that has accompanied mismanagement at their end‐of‐life. Exploring and understanding complementary avenues to repurpose plastic waste beyond traditional mechanical recycling can unlock new opportunities in providing feedstock flexibility, securing supply chains, recovering valuable materials, and enabling new valorization paths. Chemical recycling allows for the return to monomers, tailored oligomers, and polymers, even from mixed states of post‐consumer waste plastics. This review article summarizes our research team's efforts on elucidating key insights surrounding plastic depolymerization and repolymerization into valorized products. We revealed organocatalyst design rules lead to highly effective and selective deconstruction of condensation polymers. The intricacies of tailoring the reaction environment to produce products of specific lengths and desired functionalities transform low‐value waste feedstocks into high‐performance materials with embedded circularity. Other types of polymers, including polyolefins and polyakenamers, have also been designed and converted into valuable products. There remain opportunities for further developments such as low‐energy and precision depolymerization, adoption of cutting‐edge small molecule transformation to access functionalized polymer scaffolds typically inaccessible otherwise, as well as precision design and understanding through the aid of advanced tools.

Advanced Materials Technologies
Oak Ridge National Laboratory (US)
Basic Energy Sciences
Openalex Percentile: Top 17%
Polymer crystallization and properties
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