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Physics and applications of graphene Theory 2011 1st Edition by Sergey Mikhailov ISBN 9533071524 9789533071527

  • SKU: BELL-2121660
Physics and applications of graphene Theory 2011 1st Edition by Sergey Mikhailov ISBN 9533071524 9789533071527
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Physics and applications of graphene Theory 2011 1st Edition by Sergey Mikhailov ISBN 9533071524 9789533071527 instant download after payment.

Publisher: Intechopen
File Extension: PDF
File size: 52.75 MB
Pages: 544
Author: Sergey Mikhailov
ISBN: 9789533071527
Language: English
Year: 2011

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Physics and applications of graphene Theory 2011 1st Edition by Sergey Mikhailov ISBN 9533071524 9789533071527 by Sergey Mikhailov 9789533071527 instant download after payment.

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ISBN 10: 9533071524 
ISBN 13: 9789533071527
Author: Sergey Mikhailov

The Stone Age, the Bronze Age, the Iron Age... Every global epoch in the history of the mankind is characterized by materials used in it. In 2004 a new era in material science was opened: the era of graphene or, more generally, of two-dimensional materials. Graphene is the strongest and the most stretchable known material, it has the record thermal conductivity and the very high mobility of charge carriers. It demonstrates many interesting fundamental physical effects and promises a lot of applications, among which are conductive ink, terahertz transistors, ultrafast photodetectors and bendable touch screens. In 2010 Andre Geim and Konstantin Novoselov were awarded the Nobel Prize in Physics "for groundbreaking experiments regarding the two-dimensional material graphene". The two volumes Physics and Applications of Graphene - Experiments and Physics and Applications of Graphene - Theory contain a collection of research articles reporting on different aspects of experimental and theoretical studies of this new material.

Physics and applications of graphene Theory 2011 1st Table of contents:

Part I: Fundamental Electronic Properties and Models

  • Chapter 1: Introduction to Graphene Physics
    • 1.1 Graphene as a 2D Material: Structure and Bonding
    • 1.2 Dirac Fermions: Relativistic Quantum Mechanics in Condensed Matter
    • 1.3 Electronic Band Structure and Density of States
    • 1.4 Basic Transport Properties (Conductivity, Mobility)
    • 1.5 Review of Key Theoretical Concepts (e.g., Berry Phase, Klein Tunneling)
  • Chapter 2: Ab Initio Studies of Graphene
    • 2.1 Density Functional Theory (DFT) Calculations for Graphene
    • 2.2 Electronic Structure from First Principles
    • 2.3 Phonon Dispersion and Electron-Phonon Coupling
    • 2.4 Effects of Strain and Substrate Interactions
  • Chapter 3: Electronic Structure in External Fields
    • 3.1 Graphene in a Magnetic Field: Landau Levels and Quantum Hall Effect
    • 3.2 Electric Field Effects: Gating and Band Gap Opening (e.g., in Bilayer Graphene)
    • 3.3 Optical Properties: Absorption and Transparency
  • Chapter 4: Many-Body Effects in Graphene
    • 4.1 Electron-Electron Interactions and Screening
    • 4.2 Renormalization of Fermi Velocity
    • 4.3 Plasmon Excitations in Graphene
    • 4.4 Excitonic Effects

Part II: Defects, Edges, and Nanostructures

  • Chapter 5: Effects of Point Defects and Impurities
    • 5.1 Vacancies, Adatoms, and Substitutional Impurities
    • 5.2 Doping and Carrier Concentration Control
    • 5.3 Localization Phenomena and Disorder Effects
    • 5.4 Theoretical Models for Defect Scattering
  • Chapter 6: Graphene Edges and Nanoribbons
    • 6.1 Armchair vs. Zigzag Edges: Electronic and Magnetic Properties
    • 6.2 Edge States and Their Localization
    • 6.3 Quantum Confinement in Graphene Nanoribbons (GNRs)
    • 6.4 Band Gap Engineering in GNRs
    • 6.5 Synthesis and Experimental Verification of GNRs (Theoretical Perspective)
  • Chapter 7: Graphene Quantum Dots
    • 7.1 Quantum Confinement in Zero-Dimensional Graphene Systems
    • 7.2 Energy Spectrum and Shell Structure
    • 7.3 Spin States and Magnetic Properties in Quantum Dots
    • 7.4 Potential for Quantum Computing

Part III: Transport and Response Phenomena

  • Chapter 8: Quantum Transport in Graphene
    • 8.1 Ballistic Transport and High Mobility
    • 8.2 Klein Paradox and Chiral Tunneling
    • 8.3 Weak Localization and Anti-Localization
    • 8.4 Transport in Disordered Graphene
    • 8.5 Landauer-Büttiker Formalism for Graphene Devices
  • Chapter 9: Thermal Properties and Phonon Transport
    • 9.1 Phonon Spectrum of Graphene
    • 9.2 Thermal Conductivity and Its Mechanisms
    • 9.3 Heat Transport at the Nanoscale
    • 9.4 Thermoelectric Effects in Graphene
  • Chapter 10: Spin Effects and Magnetism
    • 10.1 Spin-Orbit Coupling in Graphene
    • 10.2 Proximity-Induced Spin Phenomena
    • 10.3 Magnetic Properties of Defect-Engineered Graphene
    • 10.4 Spin Transport and Spintronics Applications

Part IV: Applications and Advanced Concepts (Theoretical Predictions)

  • Chapter 11: Graphene in Electronics and Optoelectronics
    • 11.1 High-Frequency Transistors (RF applications)
    • 11.2 Graphene-Based Photodetectors and Sensors
    • 11.3 Flexible and Transparent Conductive Films
    • 11.4 Integration with Other 2D Materials (Heterostructures)
  • Chapter 12: Mechanical and Structural Applications
    • 12.1 Exceptional Mechanical Strength and Flexibility
    • 12.2 Graphene Membranes and NEMS (Nanoelectromechanical Systems)
    • 12.3 Strain Engineering and its Effects on Electronic Properties
  • Chapter 13: Graphene in Energy and Environment
    • 13.1 Supercapacitors and Battery Electrodes
    • 13.2 Hydrogen Storage
    • 13.3 Catalysis and Filtration Membranes
  • Chapter 14: Emerging Theoretical Concepts and Future Directions
    • 14.1 Beyond Graphene: Other 2D Materials (e.g., Silicene, MoS2)
    • 14.2 Twisted Bilayer Graphene and Moiré Physics
    • 14.3 Topological Properties in Graphene Systems
    • 14.4 Machine Learning and AI in Graphene Research
    • 14.5 Open Theoretical Challenges

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