The rapid development of wireless communication systems, radar systems, satellite communication infrastructures, Internet of things (IoT), biomedical telemetry and 5G or beyond networks have scaled up the demands for highly efficient RF/High frequency Analog systems.

The ability of organisms to constantly adjust to variably changing environmental and physiological conditions is required for cellular survival. Metabolic rewiring and redox regulation are among the crucial adaptive mechanisms, operating as interactive networks that maintain cellular homeostasis under stress.

The idea of biopolymer interfaces is a big change in the way we think about materials science. It combines the things about natural polymers with the special abilities of synthetic systems that can react to things. This research is about making and using biopolymer platforms that can change and respond to things like temperature and chemicals.

Climate change, growing population, reduced cultivable land area, soil degradation and scarcity of water and nutrients have posed serious challenges to the global agriculture. This poses a significant challenge for crop productivity and global food security, thus necessitates the urgent scientific pursuit of climate-resilient high yielding crops.

The ever-increasing global demand for sustainable energy technologies, miniaturized electronic systems and non-toxic manufacturing processes has heightened the need for thermal-efficient advanced material systems with tailored information at atomic and molecular levels.