Quantum statistical model for superconducting phase in graphene and nanotubes
Shigeji Fujita, Rohit Singh, Salvador Godoy, and Kei Ito

TL;DR
This paper introduces a quantum statistical model that explains the possibility of superconductivity at extremely high temperatures in graphene and nanotubes, aligning with experimental observations of high critical temperatures.
Contribution
It presents a novel quantum statistical theory that supports the existence of superconductivity at 1275 K in multiwalled nanotubes, providing a theoretical basis for these experimental findings.
Findings
Supports superconductivity at 1275 K in nanotubes
Provides a quantum statistical framework for high-temperature superconductivity
Aligns with experimental reports by Zhao and Beeli
Abstract
A quantum statistical theory is presented, supporting a superconducting state of an ultrahigh critical temperature (1275 K) in the multiwalled nanotubes reported by Zhao and Beeli [Phys. Rev. B 77, 245433 (2008)].
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Taxonomy
TopicsQuantum many-body systems · Statistical Mechanics and Entropy · Computational Physics and Python Applications
