Bioplastics

Bio-based additives support sustainable plastics, but cost premiums, feedstock volatility, and compliance pressure complicate adoption.

Bio-based and biodegradable plastics are not the same. A new framework separates feedstock, polymer chemistry, and degradation to improve material decisions.

Better collection systems can reduce contamination and improve the quality of recycled plastic feedstock before sorting, washing, and extrusion begin.

Reinforced active bioplastics combine mechanical strength, moisture resistance, and antioxidant performance to extend food shelf life.

Healthcare foams face growing pressure from PCR adoption, PFAS restrictions, EPR policies, and circularity goals across medical supply chains.

LEGO is reducing emissions and expanding the use of renewable, recycled, and mass-balance plastics across its global toy portfolio and supply chain.

Apricot shell flour improves ductility, impact strength, and compostability in injection-moldable zein bioplastics for packaging.

Low-carbon transport strategies can reduce emissions across plastics supply chains, from resin logistics to the movement of recycled materials.

Bio-based coatings use plant oils, lignin, cellulose, and starch to improve sustainability, durability, adhesion, and industrial performance.

Medical plastics recovery depends on product architecture, contamination control, resin choice, and end-of-life design strategy.