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Polymer Biodegradability 2.0: A Holistic View on Polymer Biodegradation in Natural and Engineered Environments

Advances in polymer science 2023 13 citations ? Citation count from OpenAlex, updated daily. May differ slightly from the publisher's own count. Score: 40 ? 0–100 AI score estimating relevance to the microplastics field. Papers below 30 are filtered from public browse.
Michael Sander Christian Lott, Christian Lott, Christian Lott, Christian Lott, Michael Sander Christian Lott, Miriam Weber, Miriam Weber, Miriam Weber, Christian Lott, Michael Sander Christian Lott, Michael Sander Miriam Weber, Glauco Battagliarin, Miriam Weber, Miriam Weber, Christian Lott, Glauco Battagliarin, Michael Zumstein, Michael Zumstein, Glauco Battagliarin, Glauco Battagliarin, Glauco Battagliarin, Glauco Battagliarin, Andreas Künkel, Andreas Künkel, Christian Lott, Andreas Künkel, Andreas Künkel, Glauco Battagliarin, Glauco Battagliarin, Miriam Weber, Glauco Battagliarin, Glauco Battagliarin, Glauco Battagliarin, Glauco Battagliarin, Glauco Battagliarin, Andreas Künkel, Andreas Künkel, Michael Zumstein, Christian Lott, Andreas Künkel, Michael Zumstein, Christian Lott, Andreas Künkel, Andreas Künkel, Glauco Battagliarin, Andreas Künkel, Glauco Battagliarin, Michael Zumstein, Miriam Weber, Miriam Weber, Miriam Weber, Michael Sander Miriam Weber, Miriam Weber, Michael Zumstein, Michael Sander Christian Lott, Miriam Weber, Michael Sander Miriam Weber, Miriam Weber, Michael Sander

Summary

Researchers reviewed the science of biodegradable plastics, examining how material properties and environmental conditions — such as temperature, moisture, and microbial activity — determine how quickly and completely a polymer breaks down. The chapter provides guidance for developing, testing, and regulating biodegradable alternatives to conventional plastics that persist in the environment.

Abstract Biodegradable polymers are an important part of the solution toolbox to achieve circularity in the plastic economy and overcome negative impacts of a linear plastic economy. Biodegradable polymers need to excel not only on a mechanical performance level in the application to fulfill their function during the use phase but also on a biodegradation performance level after use. The biodegradation performance is tailored to the application and the receiving environment of the polymer product after use, which can be both engineered systems (e.g., compost, anaerobic digestors, wastewater treatment plants) and natural systems (e.g., soils, freshwater, or marine environments). This chapter addresses key aspects of polymer biodegradability and biodegradation in both natural and engineered systems with the goal to advance a more holistic view on the topic and, thereby, provide guidance for all stakeholders working on developing, testing, and regulating biodegradable polymers. These aspects include definitions of biodegradability and biodegradation, elucidating polymer- and environmental factors that control the biodegradation process, a discussion of the analytical chemistry of polymer biodegradation, polymer biodegradability testing and certification, as well as a brief overview of research needs. In accordance with the diverse backgrounds of the authors of the chapter, this chapter targets all stakeholder groups from academics to industry and regulators.

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