Carbon nanotube
Submission deadline: 2024-10-10
Section Collection Editors

Section Collection Information

Dear colleagues,

Carbon nanotubes (CNTs) have emerged as a promising material with diverse applications in energy

systems, owing to their unique structural and electronic properties. CNTs have been extensively

studied in the context of energy generation, particularly in photovoltaics. Their excellent electrical

conductivity and high surface area make them suitable candidates for enhancing the efficiency of solar

cells. CNT-based solar cells have the potential to improve light absorption and charge transport,

thereby increasing energy conversion efficiency. In addition, Carbon nanotubes also play a crucial role

in energy storage technologies, such as batteries and supercapacitors. By using CNTs as an electrode

material, these energy storage devices can exhibit higher capacitance and faster charge-discharge rates.

CNTs' large surface area and high electrical conductivity enhance the overall performance of energy

storage systems. Carbon nanotubes are also integral components in various energy conversion

processes, including fuel cells and thermoelectric generators. In fuel cells, CNTs can serve as catalyst

supports, improving the catalytic activity and durability of the electrodes. Additionally, CNT-based

thermoelectric materials have demonstrated efficient conversion of heat into electricity, with potential

applications in waste heat recovery. CNTs are known for their exceptional electrical conductivity,

which makes them suitable for energy transmission applications. They can be used in lightweight and

highly efficient electrical cables, enabling the efficient transfer of electricity over long distances with

minimal energy loss. CNTs contribute to energy efficiency in various ways. Their incorporation into

materials for lightweight and strong structural components in vehicles and aircraft can reduce energy

consumption in transportation. Additionally, CNT-based coatings can enhance the efficiency of

energy-efficient windows by improving thermal insulation and solar control. In conclusion, carbon

nanotubes have a significant impact on energy systems across multiple domains. Their unique

properties make them valuable components in energy generation, storage, conversion, transmission,

and efficiency improvement. Continued research and development in the field of CNTs hold the

promise of advancing clean and sustainable energy technologies, contributing to a greener and more

energy-efficient future.


Keywords

Carbon nanotube structure, Nanomaterials, Electrical conductivity, Nanoelectronics Energy applications.

Published Paper