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The difference between graphite and graphene

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Difference between graphite & graphene
Graphene consists only of an atomic layer graphite, a layer composed of sp2-bonded atoms of carbon arranged in a honeycomb or hexagonal lattice. Graphite can be defined as a mineral that is made up of several layers of graphene. The differences between graphene, graphite, and their production methods can be seen in the structural composition and the manufacturing process. This article will focus on the differences between these two materials.

Graphite mineral
Graphite is a naturally occurring carbon allotrope. It occurs naturally in metamorphic rock in many parts of the globe, including parts of South America. Asia and North America. The reduction of carbon compounds in metamorphic rocks forms this mineral.
Graphene
The chemical bonding in graphite is similar to that in diamond. The difference in hardness between these two compounds is due to the different lattice structures of the carbon atoms. Diamond contains three-dimensional bonds while graphite has two-dimensional bonds. Each layer of graphite contains weaker intermolecular bonding between the carbon atoms. This allows graphite to be a ductile and soft material because the layers slide against one another.
Multiple studies have proven that graphite is a mineral of exceptional quality with unique properties. It has excellent heat and electrical conductivity, and it maintains its natural strength and stiffness even at temperatures higher than 3600degC. It is also chemically resistant and self-lubricating.
Under standard conditions, graphite remains very stable despite its many forms. In various applications, graphite comes in different forms.
Graphite’s unique properties are superior to graphite. The thin plane of graphite makes it unsuitable for use as a structure material. Contrary to popular belief, graphene has the highest strength of any material. It’s more than 400 times stronger than diamonds and over 300 times stronger that A36 structural steel.
Graphite is anisotropic due to its planar nature. The phonons can pass more easily through an aeroplane than they do when traveling through one. The graphene material has an extremely high electron mobility. Like graphite, there are p(p), free electrons within each carbon atom.

It is not surprising that graphene conducts electricity much better than graphite. This is due to electrons appearing as quasi-particles. They behave as though they were massless and can travel for long distances with no scattering. To achieve this high level of conductivity, it is necessary to dope the graphene to get past the zero density state visible at the Dirac’s point.
Graphene Production or Separation
Scientists employ many different techniques to produce graphene. Mechanical peeling is also known as the tape technology and it’s one of the most effective ways to make single-layer, or even few-layer, graphene. Many research institutes are working to develop the most efficient way to produce high-quality graphene at a large scale.

Chemical vapor deposit (CVD), the best method for producing graphene, is the most appropriate. The reduction process can be used to extract carbon from carbon-rich resources. This technology has a few disadvantages. It is hard to find a substrate that is suitable for growing the graphene and difficult to remove it from the substrate.

In conclusion,
Other techniques for graphene production include ultrasonic treatments, thermal engineering and carbon dioxide reduction. Due to the lower cost of production, this technique has attracted a lot attention. However, the current quality of the produced graphene does not match the material’s theoretical potential. More time is required to complete the process.

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