Graphene has emerged as one of the most promising materials for environmental monitoring due to its extraordinary sensitivity, high electron mobility, and ability to operate at room temperature. Although challenges remain, current research demonstrates a solid path toward the development of portable, flexible, and highly efficient devices capable of evaluating air quality in real time.

Graphene has emerged as a key material in the evolution of wearable technology due to its high electrical conductivity, flexibility, and piezoresistive sensitivity, making it ideal for intelligent sensors. Several international studies have demonstrated the effectiveness of graphene in developing flexible, optical, and thermal sensors with applications in healthcare, sports, and biomedical monitoring.

Nanotechnology, particularly Graphene, plays a critical role in the quest for efficient and sustainable energy solutions. Its integration into Phase Change Materials (PCMs) and the latest generation of solar panels is revolutionizing energy efficiency and solar thermal energy storage. Graphene shows significant potential for enhancing thermal conductivity and the efficiency of passive heating systems, paving the way for cleaner and renewable energy utilization.

This article delves into graphene's multifaceted benefits in textiles, highlighting its role in enhancing advantages such as waterproofing, antimicrobial properties, UV protection, and improved comfort. Graphene's remarkable mechanical strength is leveraged in composite materials, notably enhancing strength in wool fabrics. Its hydrophobic nature and nanochannel structure provide impermeability and increased material resilience.