Non-stick coatings prevent the adhesion of substances to surfaces, based on their low surface energy, which allows them to provide high water repellency (hydrophobic behavior). In the following article you will learn how graphene materials improve non-stick effects, as well as other properties such as resistance to abrasion and UV radiation.

The growing demand for lithium-ion batteries and their environmental impacts drive the search for alternatives. Graphene improves battery capacity, conductivity, and durability. Researching new solutions is crucial to address supply, demand, and sustainability challenges.

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.

Advancing Asphalt Durability: Harnessing Graphene's Potential for Sustainable Roads Most of the the world's road infrastructure is composed of pavement made from a complex system of asphalt, aggregates, and binders that interact at an interface to maintain its strength and structural stability. According to the Asphalt Institute, 87 million tons of asphalt are produced worldwide annually, with around 85% used in the paving industry, which, while offering great load capacity and durability, inevitably suffers damage from constant exposure to radiation, temperature, humidity, and traffic. The deterioration of asphalt not only impacts a basic transportation infrastructure crucial for socio-economic development but also involves environmental impacts in terms of resource depletion and high CO2 emissions caused by roadworks. These factors add to the reasons for the constant search for modification technologies that increase durability and improve mechanical properties of pavements using fibers, rubber; additives such as thermoplastic elastomers, plastic and synthetic resins, iron powder, hydrated lime, or glass waste. However, in some...

In the realm of coatings, graphene emerges as a promising additive, offering enhanced properties such as corrosion resistance, antimicrobial effects, and improved weather durability. This article explores the utilization of graphene oxide (GO) in polyurethane (PU) coatings to bolster their performance against environmental factors like UV radiation.

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.

We will explore the impact of graphene oxide in the production of coatings with exceptional properties. From anti-corrosion barriers to fire resistance, graphene oxide redefines industrial protection.

Tribology reveals that energy loss due to friction and wear in machinery is significant. Graphene stands out as a nano-lubricant with remarkable anti-friction properties, showing impressively low friction coefficients and providing efficient solutions for industrial applications.