Graphene Radar Absorbing Materials for Aircraft and Drones
Graphene coatings are being studied for radar absorbing materials because they can help make aircraft and drones lighter, thinner, and more electromagnetically tunable.
Blog
Graphene Coatings and Composite Materials
Graphene coatings, composite additives, corrosion protection, plastics, concrete, films, and engineered materials.
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167. Wear-Resistant Graphene–Silicone Rubber Composites: Breaking the Friction Barrier
New research demonstrates that graphene-reinforced silicone rubber composites can reduce friction coefficients by over 50% and wear rates by nearly 73%, unlocking next-generation performance for seals, shock absorbers, and aerospace applications.
129. Graphene in EMI Shielding Plastics for Consumer Electronics: Lighter Housings with Real Protection
Graphene-filled plastics can help electronics housings deliver EMI shielding, lighter weight, and better multifunctional performance.
128. Graphene in Brake Pads and Friction Materials: Heat Control, Wear Reduction, and Performance Stability
Graphene-enhanced friction materials may improve heat distribution, wear resistance, and braking performance stability in harsh operating conditions.
127. Graphene in Rubber Compounds: Tires, Seals, Gaskets, and Wear-Resistant Elastomers
Graphene can improve rubber compounds through better wear resistance, thermal behavior, durability, and functional elastomer performance.
126. Graphene in Polyurethane Foams: Better Insulation, Cushioning, and Smart Structural Materials
Graphene-filled polyurethane foams can improve lightweight structural behavior, thermal performance, cushioning, and multifunctional material design.
125. Graphene in Polypropylene Plastics: Lightweight Conductive Parts for Automotive and Packaging
Graphene-filled polypropylene can improve stiffness, conductivity, barrier behavior, and lightweight part performance in large-volume applications.
124. Graphene in Glues: Scientific Articles, Real Adhesive Performance, and What the Research Actually Shows
Scientific studies show that graphene can improve adhesives through better toughness, conductivity, thermal behavior, and barrier performance when formulations are engineered properly.
123. Graphene in Nylon Elastomer for 3D Printing: Flexible Parts with More Function
Graphene-filled nylon elastomer can improve flexible 3D printed parts with better durability, reinforcement, thermal behavior, and multifunctional performance.
122. Graphene in ABS Plastics for 3D Printing: Tougher, Smarter Functional Parts
Graphene-filled ABS can improve stiffness, wear behavior, conductivity, and thermal performance while preserving ABS as a practical engineering 3D printing material.
121. Graphene in PLA 3D Filament: Why This Composite Matters for Better Prints
Graphene-filled PLA filament can improve stiffness, functionality, wear behavior, and prototyping value while keeping much of PLA’s easy printability.
116. Graphene as a Fire-Resistant Material: What It Can and Cannot Do
Graphene is gaining attention in fire-resistant coatings, composites, textiles, and construction materials because of its barrier effect, char formation, and thermal stability.
109. Graphene Conductive Inks: Where They Fit vs Silver, Carbon, and CNT Systems
A practical buyer-focused guide to graphene conductive inks for printed electronics, sensors, heaters, wearables, and smart packaging.
108. Graphene in Epoxy Resin: Benefits, Tradeoffs, and Industrial Use Cases
A commercial guide to graphene in epoxy resin, including coatings, adhesives, composites, encapsulation, conductivity, and barrier performance.
107. Graphene in Thermal Interface Materials: Why TIM Formulators Are Paying Attention
A practical look at how graphene can improve thermal interface materials for electronics, power modules, adhesives, gap fillers, and cooling systems.
106. Graphene vs Carbon Black vs Carbon Nanotubes: Which Additive Wins in Real Products?
A practical comparison of graphene, carbon black, and carbon nanotubes across conductivity, reinforcement, processing, and cost-to-performance.
105. What Is Turbostratic Graphene? Why It Matters for Real Manufacturing
A practical explanation of turbostratic graphene, how it differs from conventional stacked graphene, and why it matters for scalable manufacturing.
104. Graphene Suppliers in the USA: How to Choose the Right Material for Coatings, Polymers, and Energy
A practical buyer-focused guide to graphene suppliers in the USA, including how to compare materials for coatings, polymers, and energy storage.
99. Graphene in Epoxy: 5 Latest Research Breakthroughs, Key Facts, and What They Mean for Real-World Products
A practical review of five recent graphene-epoxy studies, including Rice University scale-up progress, with the key technical and commercialization takeaways for adhesives, coatings, and composites.
98. Graphene in Glues and Adhesives: Stronger Bonds, Better Durability, and Smarter Formulations
How graphene-enhanced glues can improve bond strength, thermal stability, electrical functionality, and long-term reliability across industrial and consumer adhesive systems.
96. Graphene in PEEK Plastic: How Nano-Reinforcement Can Expand High-Performance Engineering
Discover how graphene-reinforced PEEK plastic improves mechanical strength, wear resistance, and thermal stability for high-performance engineering applications.
95. Graphene in Oil: How Nano-Enhanced Lubricity Can Reduce Friction, Wear, and Energy Loss
Graphene in Oil: How Nano-Enhanced Lubricity Can Reduce Friction, Wear, and Energy Loss
91. Graphene in Solid-State Sodium Batteries: Materials Engineering, Cell Architecture, and Scale-Up Pathways
A technical deep dive into how graphene can improve ionic transport, interface stability, and manufacturable cell architecture in solid-state sodium batteries.
88. Graphene-Based Marine Coatings for Barnacle Growth Reduction: Scientific Evidence and Ship-Hull Performance
Marine biofouling remains one of the most expensive and persistent operational challenges in global shipping. The process is ecological and sequential: once a hull enters seawater, a conditioning film forms quickly, microbial biofilms establish, and then larger fouling organisms such as barnacles, tubeworms, and macroalgae attach and grow.