With the gradual breakthrough of mass production and large -scale issues, the pace of industrialization of graphene is accelerating. Based on my country's existing technological research and development achievements, the first batch of commercial applications may be mobile electronic equipment, aerospace, and new energy battery fields.

The bending screen has attracted much attention at the consumer electronics exhibition and has become the development trend of mobile device display in the future. The future market of flexible display is huge, and the future of graphene as a basic material is also full of hope.

On the other hand, an important area for commercialization of new energy battery batteries. The college can successfully develop a flexible photovoltaic board with a surface formation of the Chinese graphene nano -layer, which can greatly increase the cost of reducing production of transparent transparent and deformable solar cells. It can be used for small system applications in digital technology equipment such as night vision and cameras. In addition, the successful development of graphene batteries has also solved the problem of insufficient battery capacity and long charging time of new energy vehicle, which greatly accelerated the development of the new energy battery industry. This series of research and development has paved the way for the application of graphene in the new energy battery management industry.

Battery -specific graphene has high electrical, high strength, and ultra -thin characteristics, and has been widely used in aerospace and military fields. A graphene sensor used in the field of space can detect the trace elements and structural defects on the aerospace atmosphere and the spacecraft. Graphene will also play a more important role in potential development and applications such as ultra -light aircraft materials.

From a micro perspective, the charging and discharge process of the battery is actually a process of "embedding" and "separation" in the electrode in the electrode. Therefore, if the more holes in the electrode material, the faster the process is. From a macro perspective, the faster the battery is charged.

The micro -economic structure of the battery -specific graphene is a mesh tissue structure composed of carbon atoms. Because it is very thin (only one layer of thickness), the movement of cations is very limited. At the same time, due to the mesh structure, the electrode materials made of graphene also have enough holes.

In terms of this problem, graphene is undoubtedly a very ideal electrode material.