Corrosion Resistance with Graphene Coatings: In the steel industry, a major focus has been using graphene-based coatings to protect against corrosion. Breakthrough research published in Small (2023) demonstrated that a high-quality graphene film grown by CVD can serve as an extraordinary anti-corrosion coating on mild steel. In 0.1 N NaCl saltwater tests, graphene-coated steel showed two orders of magnitude (≈100×) higher corrosion resistance than uncoated steelresearchgate.net. Impressively, the graphene layer maintained this protection over >1000 hours of continuous exposureresearchgate.net. Such graphene barriers are extremely impermeable to oxygen and moisture, explaining the dramatic reduction in rust formation. This finding showcases graphene’s potential to greatly extend the service life of steel structures (e.g. in construction or marine environments) by preventing oxidative degradation.
Graphene Oxide Enhancements in Alloys: Researchers have also incorporated graphene oxide into steel alloys and seen performance gains. A recent Scientific Reports study (2025) added 0.5–1.5 wt% GO powder to a low-nickel stainless steel via powder metallurgy and found markedly improved corrosion inhibition with increasing GO contentnature.com. Even at the microstructural level, the steel’s crystal structure remained largely unchanged by the GO, indicating the nano-additive can enhance surface chemistry (for corrosion resistance) without weakening the bulk metalnature.com. Importantly, that study also confirmed the GO-infused steel retained its biocompatibility (relevant for biomedical-grade stainless steel)nature.com. Beyond corrosion, graphene additions to metal matrices generally lead to strength and wear improvements: for example, small graphene inclusions in aluminum and nickel alloys have yielded ~20% increases in tensile strength along with better toughnesspmc.ncbi.nlm.nih.govresearchgate.net. Although integrating graphene directly into molten steel is challenging, these results highlight graphene’s role as a revolutionary nano-reinforcement – whether applied as a coating or as a dispersed phase – to produce stronger, more corrosion-resistant steels and metallurgical composites.
Improvement of Nylon
Nylon Young Modulus: 3.456 GPa
Nylon Hardness: 0.151 GPa
GO Nylon Young Modulus: 6.113 GPa
GO Nylon Hardness: 0.433 GPa
77% Stronger and 137% harder than normal Nylon!
By the way… Kevlar and Nylon are not that different.
Graphene presents an exciting opportunity to significantly enhance the properties of concrete, particularly in terms of durability and compressive strength. Research has consistently indicated graphene's potential to reinforce concrete structures, making them more resistant to cracking, chemical degradation, and environmental stresses. By introducing even small amounts of graphene, concrete can achieve notable improvements in its mechanical performance, potentially extending the lifespan of buildings and infrastructure. Recent studies have highlighted that graphene-enhanced concrete exhibits increased compressive resistance, enabling stronger, more resilient construction materials. Our company has initiated preliminary tests incorporating graphene into cement formulations, achieving promising initial results that align with these research findings. These early-stage successes demonstrate graphene's potential as a transformative additive capable of setting new standards for concrete performance and sustainability in the construction industry.
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