Owing to wide applications of CNTs in nano electronics, energy storage devices, optics, medical, and many others fields, an intense research is being carried out to find substrate and CNT combinations that can directly act as active/passive components of devices in specific applications [4, 5].
Gold nanostructures find extensive applications in nano electronics and nanomedicine.
(Its Web site describes Khosrojerdi as having a degree in "nano-electronics engineering," and mentions only one other person, a board member).
Regarding the broad usage of GNR in nano-electronics, physics and chemistry, this substance is under wide investigations at present.
For the tremendous application of graphene in nano-electronics, it is essential to fabricate high-quality graphene in large production.
On the other hand, advances in designing digital circuits and reduction in their size rely upon knowledge in nano-electronics for refinements of the standard copper interconnect technology.
The glory of nanomaterials is imperative and stimulated its various dimensions in nano-electronics, analytical chemistry, photonics, drug delivery, bio encapsulation, data recording media, gas sensing, storage, electronic, optical, and mechanical devices [1 7].
These anomalous properties arising from intrinsic wavefunction properties of the AGNRs are in sharp contrast to typical transmission properties of traditional molecular wire junctions, which suggests promising potential application as "molecular wire" interconnects in nano-electronics.
Among the different types of carbonic materials such as amorphous carbon materials, graphene with unique properties offers highly promising opportunities for the development of stainless steel surface not only to prevent electrochemical corrosion but also has potential applications in nano-electronics, molecular separation, high-strength composites, and surface coating industries [10 12].
Silicon and metal surfaces are exploited for applications in nano-electronics, glasses in nano-optics, and polymeric surfaces, such as epoxy-based negative photoresists (e.g. SU-8), in microfluidics (Picher et al., 2013).
The cheetah skin structured CNT/CNP nanohybrid composite could lead to the development of the high-performance carbon based materials for high-tech applications in biotechnology, nano electronics and energy storage devices.
