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Supramolecular Ionic Polymerization: Cellulose-Based Supramolecular Plastics with Broadly Tunable Mechanical Properties
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Researchers developed a cellulose-based supramolecular plastic by combining carboxymethyl cellulose with a hyperbranched polyguanidinium ion through ionic bonding. The resulting material demonstrated broadly tunable mechanical properties including high strength and stretchability comparable to conventional petroleum-based plastics. The study presents a promising approach for creating sustainable, biodegradable plastic alternatives from renewable biomass resources that could help reduce microplastic pollution.
Developing mechanically tough and sustainable plastics from renewable resources such as biomass may certainly give a promising solution to the replacement of petroleum-based plastics and eliminate microplastics. Here, we report a cellulose-based supramolecular plastic (CMCSP) synthesized by supramolecular "ionic" polymerization of carboxymethyl cellulose (CMC) as an oxyanionic monomer and a hyperbranched polyguanidinium ion (PEIGu) as a cationic monomer. CMCSP is mechanically strong but inherently brittle. However, as highlighted in the present paper, we could overcome the brittleness issue by adding (2-hydroxyethyl)trimethylammonium chloride (choline chloride, ChCl) to CMCSP. This FDA-approved, biodegradable ionic human nutrient served as a particular plasticizer, enabling broad modulation of stiff, glassy CMCSP to a tough, flexible material and further to a soft, elastic material. We demonstrated that plasticized CMCSPChCl could be processed into a flexible plastic bag, which was mechanically tough but perfectly dissociable in seawater and closed-loop recyclable with electrolytes. Hence, CMCSPChCl never generates microplastics.
More Papers Like This
Supramolecular IonicPolymerization: Cellulose-BasedSupramolecular Plastics with Broadly Tunable Mechanical Properties
AI summary Read the abstract
Researchers developed a cellulose-based supramolecular plastic synthesized from carboxymethyl cellulose and a polyguanidinium ion, demonstrating that tunable mechanical properties—including toughness—could be achieved by adding choline chloride as a plasticizer.
Supramolecular IonicPolymerization: Cellulose-BasedSupramolecular Plastics with Broadly Tunable Mechanical Properties
AI summary Read the abstract
Researchers created a cellulose-based supramolecular plastic via ionic polymerization and showed that mechanical brittleness could be overcome with choline chloride addition, yielding a renewable, tunable material as a potential microplastic-free alternative to petroleum-based plastics.
Supramolecular IonicPolymerization: Cellulose-BasedSupramolecular Plastics with Broadly Tunable Mechanical Properties
AI summary Read the abstract
Researchers developed a cellulose-based sustainable plastic using supramolecular ionic polymerization, finding that adding choline chloride overcame the material's inherent brittleness and produced broadly tunable mechanical properties as a potential petroleum-plastic replacement.
Supramolecular plastics represent a breakthrough in sustainable, circular materials for mitigating threats to the environment posed by the global plastics crisis
AI summary Read the abstract
Researchers developed a supramolecular plastic based on non-covalent assembly that does not fragment into microplastics during its lifecycle and supports closed-loop chemical recycling, offering a materials design pathway that avoids secondary plastic pollution at the source.
Supramolecular plastics represent a breakthrough in sustainable, circular materials for mitigating threats to the environment posed by the global plastics crisis
AI summary Read the abstract
Researchers developed a supramolecular plastic based on non-covalent assembly that does not fragment into microplastics during its lifecycle and supports closed-loop chemical recycling, offering a materials design pathway that avoids secondary plastic pollution at the source.
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