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Biodegradable Innovations: Harnessing Agriculture for Eco-Friendly Plastics
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Agricultural biomass including lignocellulosic residues, edible crop by-products, and algae were successfully converted into high-performance biodegradable plastics — primarily polyhydroxyalkanoates and PLA — with favorable strength, thermal stability, and compostability. Life-cycle analysis confirmed significant reductions in greenhouse gas emissions compared to conventional petrochemical plastics, supporting biomass-derived polymers as viable substitutes.
Agricultural biomass has potential as a renewable and versatile carbon feedstock for developing eco-friendly and biodegradable polymers capable of replacing conventional petrochemical plastics. To address the growing environmental concerns associated with plastic waste and carbon emissions, lignocellulosic residues, edible crop by-products, and algal biomass were utilized as sustainable raw materials. These biomasses provided carbohydrate-, lipid-, and lignin-rich fractions that were deconstructed through optimised physical, chemical, and enzymatic pretreatments to yield fermentable intermediates, such as reducing sugars, organic acids, and fatty acids. The intermediates were subsequently converted through tailored microbial fermentation processes into biopolymer precursors, primarily polyhydroxyalkanoates (PHAs) and lactate-based monomers. The resulting monomers underwent polymerization via polycondensation and ring-opening reactions to produce high-performance biodegradable plastics with tunable structural and mechanical properties. Additionally, the direct extraction and modification of naturally occurring polymers, such as starch, cellulose, and lignin, were explored to develop blended and functionalized bioplastic formulations. Comparative evaluation revealed that these biomass-derived polymers possess favourable physical strength, thermal stability, and biodegradability under composting conditions. Life-cycle evaluation further indicated a significant reduction in greenhouse gas emissions and improved carbon recycling compared to fossil-derived counterparts. The study demonstrates that integrating agricultural residues into bioplastic production not only enhances waste valorization and rural bioeconomy but also supports sustainable material innovation for packaging, farming, and consumer goods industries. These findings position agriculture-based biodegradable polymers as a critical component of circular bioeconomy strategies, contributing to reduced plastic pollution and improved environmental sustainability.
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This review examines how agricultural residues such as rice husks, corn cobs, and fruit peels can be converted into biodegradable polymers as sustainable alternatives to conventional plastic food packaging. Key biopolymers discussed include cellulose, starch, proteins, PHA, and PLA, with findings highlighting promising properties alongside ongoing challenges in cost, mechanical performance, and food safety compliance.
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This review paper rounds up existing research on PHAs, plant-derived plastics that naturally break down in soil, as a promising swap for the plastic sheeting and containers commonly used in farming today. That matters because conventional farm plastics shed microplastics into soil and crops over time, potentially entering our food supply, and this study highlights how these biodegradable alternatives could reduce that contamination while noting that cost and durability challenges still need to be solved before widespread use.
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This review surveys biodegradable biobased polymers (PLA, PHAs, succinate), finding slow real-world biodegradation rates as the key unresolved barrier to widespread adoption.
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Researchers reviewed how agricultural plastic films and greenhouse coverings degrade into long-persisting soil microplastics that disrupt microbial communities and nutrient cycling, and evaluated biodegradable alternatives derived from vegetable waste as a green chemistry strategy to reduce plastic accumulation while supporting circular economy goals in farming systems.
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