Journal of Polymer & Composites

Biodegradable sensing materials are needed for sustainable smart electricity metering, yet cellulose/single-walled carbon nanotube (SWCNT) systems lack a unified percolation and structure–property description.

High-performance polymer composites are emerging as versatile platforms for next-generation biomedical sensor interfaces because they can combine mechanical compliance, electrical functionality, biocompatibility, and structural tunability within a single material system.

Uncontrolled hemorrhage remains one of the leading causes of preventable trauma-related mortality worldwide, highlighting the urgent need for rapid, effective, and biocompatible hemostatic materials.

The chemical structure and crosslinking density of polyethylene glycol diacrylate (PEGDA) can be systematically tailored, making it a versatile polymeric network in biomedical engineering, drug delivery, tissue engineering, biosensing and advanced manufacturing.

Since the packaging industry is an engineered product with complex composites that involve a close relationship between composition, processing, and performance, optimization of formulation, cellular morphology, and engineering performance of biodegradable starch-based biofoams presents a considerable challenge.

The most important property of the PDMS elastomers is their high biocompatibility, skin-like appearance, chemical stability, and flexibility, which make them ideal for use in maxillofacial and soft tissue prosthetics.