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ARC-ME: Molecular Stability Engineering for Programmable Plastic Degradation A Conceptual Extension of GCST to Controlled Material Lifecycles
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This paper is a duplicate entry of ID 388, presenting the same ARC-ME conceptual framework for designing plastics with programmable degradation pathways triggered by environmental signals such as light, pH, or enzymes. The proposal argues that treating plastic persistence as a stability engineering problem — rather than a disposal problem — opens new avenues for preventing microplastic accumulation. Both entries describe the same conceptual work.
Abstract Conventional plastics are designed for maximal chemical stability, resulting in persistence times of hundreds to thousands of years in natural environments. From the perspective of Global Complexity Stability Theory (GCST), this corresponds to a near-zero natural decay coefficient, creating a long-lived metastable state that accumulates as environmental debt. The ARC-ME framework proposes the opposite engineering paradigm: materials with deliberately embedded, triggerable instability pathways. Instead of passive longevity, the material lifecycle becomes programmable — stable during use, but capable of rapid, controlled degradation when externally activated. The approach reframes plastic pollution not as an inevitable waste-management problem, but as a stability-design challenge: create polymers whose structural integrity can be intentionally collapsed under safe, selective conditions (light, temperature, pH, enzymes, redox signals), converting persistent macromolecules into biodegradable fragments or mineralizable monomers. This conceptual shift integrates cleavable molecular units, designer enzymes, aggregation chemistry for microplastics, and GCST-derived stability thresholds to enable materials that actively participate in circular flows rather than resist them.
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ARC-ME: Molecular Stability Engineering for Programmable Plastic Degradation A Conceptual Extension of GCST to Controlled Material Lifecycles
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This conceptual paper proposes a theoretical engineering framework called ARC-ME, in which new plastics would be designed with built-in molecular "off switches" that allow them to degrade rapidly on demand — using triggers like light, temperature, pH, or enzymes — rather than persisting in the environment for centuries. The idea reframes plastic pollution as a materials design problem rather than just a waste management challenge. While speculative, the framework offers a forward-looking vision for preventing microplastic formation at the source by making plastics that can be reliably deactivated after use.
Conditionally Degradable Polyester-Based Containers A Comprehensive Mechanistic Framework for Long-Term Use Stability and Environmentally Triggered Degradation Without Persistent Micro- and Nanoplastic Formation
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This companion paper (appearing to be a duplicate of ID 1448) presents a detailed materials-design framework for creating plastic containers that stay intact during use but degrade fully after disposal without producing micro- or nanoplastic fragments — achieved by ensuring chemical depolymerization happens before physical fragmentation. It defines specific compositional criteria for polymers, additives, and degradation triggers that would meet this standard. If adopted by industry, such design principles could prevent a significant source of future microplastic pollution at its origin.
Conditionally Degradable Polyester-Based Containers A Comprehensive Mechanistic Framework for Long-Term Use Stability and Environmentally Triggered Degradation Without Persistent Micro- and Nanoplastic Formation
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This theoretical paper argues that most biodegradable plastic alternatives fail because they fragment into microplastics before they chemically break down, proposing a design framework for containers that remain stable during use but degrade completely — without leaving microplastic fragments — under specific environmental triggers after disposal. The key insight is that the sequence of degradation steps matters: chemical depolymerization must precede physical fragmentation to avoid creating persistent particles. This provides a scientific basis for evaluating whether next-generation packaging materials truly solve the microplastic problem.
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