Carbon Strips: The Future of Electricity Storage
Carbon strips are emerging as a promising technology for large-scale electricity storage.
CoherentMI86
Chemical Structure of Carbon Strips
Carbon strips derive their unique properties from their molecular structure. They consist of microscopic layers of pure carbon atoms arranged in a hexagonal pattern similar to graphene. However, instead of being a single atomic layer, carbon strips contain thousands of these layers stacked tightly together like a deck of cards.
The space between each carbon layer is only a few angstroms wide. By applying an electrical charge to the strips, ions can be inserted or withdrawn from these narrow interlayer spaces. When ions occupy these spaces, they change the electrical conductivity of the overall strip. This process allows carbon strips to efficiently store and release energy electrochemically.
Energy Storage Capacity
Due to their layered molecular design, carbon strips have an extremely high surface area and are able to accommodate a large number of ions in their interlayer galleries. As a result, they can store a tremendous amount of energy per unit weight - over 10 times more than lithium-ion batteries of the same mass.
Some prototype carbon strips have demonstrated energy densities of over 800 watt-hours per kilogram. To put this in perspective, a typical electric vehicle battery today might have an energy density of 250 watt-hours per kilogram. Carbon strips could potentially allow electric cars to travel 1000 km or more on a single charge.
Carbon Strips: The Future of Electricity Storage - https://www.coherentmi.com/blog/carbon-strips-the-future-of-electricity-storage-78
