Graphene’s potential in corrosion protection is significant, as it offers a blend of characteristics that can significantly enhance the lifespan of metals in many different applications. Corrosion is usually caused by oxygen and electricity causing degradation of surfaces trough chemical reactions.

Graphene is known to possess exceptionally high mechanical strength. It’s actually more than 100 times stronger than steel at the same thickness. Despite its strength it’s also extremely lightweight. The combination of strength and lightness is unmatched by any other known material, and it offers several powerful benefits for manufacturing industries.

Graphene-based coatings offer exceptional protection against corrosion, water and gas. However, achieving a stable dispersion of pristine graphene can be challenging due to the absence of functional groups, making it difficult to create a uniform coating. To simplify the application of a graphene coating, we use the Graphene Oxide for Graphene route! GO for rGO!

Functionalization refers to the process of modifying the surface or edges of graphene with various chemical functional groups or molecules. The goal of functionalization is to customize the properties of graphene materials to specific applications or to enable their integration into various composites and devices.

Enhance your lube oils with our advanced graphene materials! Explore our Insight article to see how integrating graphene can elevate lubricant performance, reduce friction, and extend the durability of machinery components. For lube oil manufacturers aiming for superior efficiency and environmental benefits, our graphene is the game-changer your products need. Partner with us to set new industry benchmarks!

As the industry strives to balance safety and sustainability, an innovative flame-retardant solution has emerged: Graphene Oxide. This groundbreaking material is proving itself to be a game-changer in the realm of textile safety and sustainability.

Graphene is an excellent barrier for gas and water making it a promising material for creating sustainable packaging for food and household products. Graphene monolayer, with its flawless 2D structure, acts as an exceptional barrier, preventing the diffusion of gases and liquids through its plane, while possessing remarkable mechanical strength and transparency. This unique combination of properties makes it an ideal choice for various packaging applications.

In the domain of advanced materials, different products can sometimes accomplish the same task. Each variant brings to the table its own set of attributes and capabilities, so how do you make the optimal choice for your application?

Have you ever wondered about the differences between Graphene Oxide paste and powder? Both forms of Graphene Oxide have unique properties, and understanding the differences between them is key to choosing the right material for your applications.

A nanomaterial should per definition have fewer than 10 atom layers, and the true performance of graphene materials is best realized when it's below 3-5 layers. In the context of graphene, less truly is more in terms of performance.

Graphene Oxide (GO) has unique and versatile properties, such as high surface area, tunable functionalization, and biocompatibility. However, the quality of GO can influence its structure, morphology, stability, and functionalization, which in turn can affect its properties and performance.

While pristine graphene is known for its impressive strength and conductivity, reduced Graphene Oxide (rGO) offers its own set of unique advantages. Discover why in some cases, rGO's imperfections might be just what you need.

As the quest for sustainable products intensifies, graphene emerges as a promising solution. With its unique properties, graphene not only enhances the durability and lightweight nature of products but also offers greener alternatives to traditional materials. Dive into how graphene is redefining sustainability across industries.

Reduced Graphene Oxide (rGO) is a form of Graphene Oxide (GO) that is processed chemically, thermally or with other methods to reduce the oxygen content and achieve properties similar to those of pure graphene.

Graphene consists of a single layer of graphite, with carbon atoms arranged in a hexagonal, honeycomb lattice. Carbon nanotubes are essentially a sheet graphene rolled into a cylinder. Pure carbon atoms form the basis of both graphene and carbon nanotubes.

Graphene is the thinnest and strongest compound that has been made by humans. It’s more than two hundred times stronger than steel, more than forty times stronger than diamond, yet incredibly flexible.

Graphene oxide (GO) is an oxidized derivative of graphene. It is a two dimensional carbon compound that consists of one or several layers of carbon atoms. The number of layers defines the quality and application areas for the GO. GO has oxygen-containing functional groups attached to both sides of the carbon plane and the edges.

In LayerOne we use a chemical route to manufacture Graphene and Graphene Oxide. Our proprietary know-how lets us control the surface chemistry and the graphene.

The wonder material, graphene, was discovered in 2004 by the two researchers Professor Andre Geim and Professor Kostya Novoselov at The University of Manchester, UK.