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Atomistic Insights into Structure and Properties of ε-Caprolactone Oligomers

The Journal of Physical Chemistry B 2026 Score: 40 ? 0–100 AI score estimating relevance to the microplastics field. Papers below 30 are filtered from public browse.
Mai Ahmed, Mai Ahmed, Mai Ahmed, Deniz Yilmaz, Deniz Yilmaz, Purushottam Poudel, Purushottam Poudel, Felix H. Schacher, Felix H. Schacher, Eva Perlt, Eva Perlt

Summary

Not relevant to microplastics — this paper uses computational chemistry methods to study the molecular structure and melting behavior of short-chain caprolactone oligomers as a step toward designing fully biodegradable polyesters; while the broader motivation mentions preventing microplastic accumulation, the study itself does not investigate microplastics in the environment.

The design of functional and sustainable materials requires a detailed understanding of the material properties and degradation mechanisms. In particular, the design of fully biodegradable polymers could allow a quick and controlled decomposition of materials before they accumulate in the environment and break down to micro- and nanoplastics. An important degradation pathway proceeds via the hydrolysis of polyesters. To obtain the best performing material candidates, a multiscale-level understanding that takes into account electronic structure combined with multiple configurations at the macroscopic scale is necessary. In this contribution, we present the extension of the multiscale Quantum Cluster Equilibrium method to oligomer materials. We showcase the first application of this methodology to oligomer systems, in particular oligo(ε-Caprolactone). The ε-Caprolactone oligomers were synthesized and characterized comprehensively by means of NMR, SEC, DSC, and TGA. Experimentally, two melting temperatures were observed, which were predicted by theoretical calculations and are in convincing agreement.

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