Design, Fabrication, Characterisation, and Testing of a Multifunctional Ionic Liquid-based Thermosets for High-Performing Strain Sensing and other Applications

Advancements in materials science and fabrication techniques have sparked interest in various fields. Nonetheless, many challenges related to material properties and performance still require attention. For instance, stretchable and electrically conductive materials may require extensive repeated experimental work for material tuning. In return, this can generate unnecessary heat, contributing to the pressing issue of climate change. In this thesis, I have applied an innovative approach to design, fabricate, characterise, and test the performance of novel thermosets with superior properties, including high electrical conductivity, stretchability, rapid curing at nearly room temperature, and more, making them suitable for various smart applications in different industries.