Medical

Microplastics can host microbial biofilms containing pathogens and antimicrobial resistance genes in aquatic environments.

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

Upcycled nitrile and SBS rubbers can become solid polyamine sorbents for CO₂ capture and rubber waste recovery.

Smart controls and modified plasticizing systems help stabilize recyclate injection molding despite variations in viscosity and feedstock.

Plastics in menstrual products affect hygiene, comfort, additive exposure, PFAS concerns, and environmental impact.

PFAS regulation is changing fluoropolymer selection by separating applications into essential, replaceable, and politically exposed uses.

Shape memory polymers expand massively to eliminate aneurysm recurrence. Engineers utilize entropic recovery to optimize endovascular devices.

Engineers optimize TPUs with novel antimicrobial fillers and surface methods, improving commercial medical device manufacturing and preventing material failures.

Engineers use machine learning algorithms to map polymer degradation, replacing physical trials with precise predictive models for industrial extrusion pipelines.

Engineers automate the manufacturing of artificial muscles by printing electroactive PVC gels and thermomechanical shape-memory polymers.

Shrinkage is a natural result of cooling and solidification in injection molding, but material structure and process conditions strongly affect its magnitude.

Engineers utilize photothermal conversion to 3D print thermoset composites, cutting oven curing and delivering robust parts for industry.