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Shows enhanced polymer properties using dihydrolevoglucosenone-derived spiro-epoxides, suggesting a sustainable approach to material development.
(140 °C), which is uncommon for aliphatic polyethers. The diastereomeric ratio of DBOO strongly influences the properties of the resulting material, including its crystallinity and solvent resistance. Moreover, these intriguing characteristics are rationalized through molecular mechanics calculations, which revealed the rigid and compact molecular conformation of the polymer. Overall, this study not only demonstrates the effective use of abundant biomass resources to produce high-performance polymeric materials but also demonstrates the polymerization potential of a new class of epoxide monomers, structurally unique spiro-epoxides, thus paving the way for the development of novel polymer materials with distinctive properties.
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Ayakawa et al. (2026) studied this question.
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