High-Throughput Generation of Block Copolymer Libraries via Click Chemistry and Automated Chromatography

Designing block copolymers for specific applications is challenging because of the intricate relationship among molecular structure, self-assembly behavior, and bulk properties, which is compounded by a large design space that traditionally requires time-consuming, iterative synthesis. To overcome these challenges, here we report a library-based strategy leveraging an active ester-based block copolymer and automated chromatography which enables the high-throughput exploration of broad compositional and chemical landscapes without requiring sample-specific optimization. By integrating automated chromatography with robotic synthesis and orthogonal postpolymerization modification chemistry, we efficiently generated a diverse library of 90 well-defined block copolymers from a single as-synthesized “parent” copolymer. This adaptable method enables efficient access to materials with a wide range of compositions, molecular weights, functionalities, and properties. By integrating laboratory automation with click chemistry, these insights will accelerate the discovery and design of advanced block copolymers for high-performance applications.

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Publication Details

Journal
Macromolecules
Published
2025-07-16
DOI
https://doi.org/10.1021/acs.macromol.5c01024
Citations
7
Primary Topic
Advanced Polymer Synthesis and Characterization
Type
article
Field-Weighted Citation Impact
6.55

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article

High-Throughput Generation of Block Copolymer Libraries via Click Chemistry and Automated Chromatography

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7 citations
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Advanced Polymer Synthesis and Characterization
6.55
article

High-Throughput Generation of Block Copolymer Libraries via Click Chemistry and Automated Chromatography

Christopher M. Bates, Elizabeth Murphy, Katherine C. Roth, Morgan W. Bates, Craig J. Hawker, Jerrick Edmund, Megan C. Murphy
article en
7 citations

Abstract

Designing block copolymers for specific applications is challenging because of the intricate relationship among molecular structure, self-assembly behavior, and bulk properties, which is compounded by a large design space that traditionally requires time-consuming, iterative synthesis. To overcome these challenges, here we report a library-based strategy leveraging an active ester-based block copolymer and automated chromatography which enables the high-throughput exploration of broad compositional and chemical landscapes without requiring sample-specific optimization. By integrating automated chromatography with robotic synthesis and orthogonal postpolymerization modification chemistry, we efficiently generated a diverse library of 90 well-defined block copolymers from a single as-synthesized “parent” copolymer. This adaptable method enables efficient access to materials with a wide range of compositions, molecular weights, functionalities, and properties. By integrating laboratory automation with click chemistry, these insights will accelerate the discovery and design of advanced block copolymers for high-performance applications.

MacromoleculesVol. 58(15)
University of California System (US), Division of Materials Research (US), Material (Belgium) (BE)
Division of Materials Research
Openalex Percentile: Top 3%
Advanced Polymer Synthesis and Characterization
6.55
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