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Cover image for Fundamentals of nanoelectronics
Title:
Fundamentals of nanoelectronics
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Publication Information:
Upper Saddle River, NJ : Prentice Hall, 2008
ISBN:
9780131957084

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30000010160649 TK7874.8 H364 2008 Open Access Book Book
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Summary

Summary

For undergraduate courses in nanoelectronics. This is the first actual nanoelectronics textbook for undergraduate engineering and applied sciences students. It provides an introduction to nanoelectronics, as well as a self-contained overview of the necessary physical concepts -- taking a fairly gentle but serious approach to a field that will be extremely important in the near future.


Table of Contents

Prefacep. xi
Acknowledgmentsp. xiii
Photo Creditsp. xv
Part I Fundamentals Of Nanoscopic Physics
11 Introduction To Nanoelectronics
31.1 The "Top-Down" Approach
61.1.1 Lithography
81.2 The "Bottom-Up" Approach
121.3 Why Nanoelectronics?
121.4 Nanotechnology Potential
141.5 Main Points
151.6 Problems
162 Classical Particles, Classicalwaves, And Quantum Particles
172.1 Comparison of Classical and Quantum Systems
182.2 Origins of Quantum Mechanics
202.3 Light As a Wave, Light As a Particle
212.3.1 Light As a Particle, or Perhaps a Wave The Early Years
212.3.2 A Little Later Light as a Wave
212.3.3 Finally, Light As a Quantum Particle
262.4 Electrons As Particles, Electrons As Waves
292.4.1 Electrons As Particles The Early Years
292.4.2 A Little Later Electrons (and Everything Else) As Quantum Particles
292.4.3 Further Development of Quantum Mechanics
322.5 Wavepackets and Uncertainty
342.6 Main Points
412.7 Problems
423 Quantum Mechanics Of Electrons
443.1 General Postulates of Quantum Mechanics
463.1.1 Operators
483.1.2 Eigenvalues and Eigenfunctions
493.1.3 Hermitian Operators
503.1.4 Operators for Quantum Mechanics
533.1.5 Measurement Probability
573.2 Time-Independent Schrodinger's Equation
633.2.1 Boundary Conditions on the Wavefunction
663.3 Analogies Between Quantum Mechanics and Classical Electromagnetics
713.4 Probabilistic Current Density
723.5 Multiple Particle Systems
763.6 Spin and Angular Momentum
803.7 Main Points
823.8 Problems
834 Free And Confined Electrons
874.1 Free Electrons
874.1.1 One-Dimensional Space
884.1.2 Three-Dimensional Space
914.2 The Free Electron Gas Theory of Metals
924.3 Electrons Confined to a Bounded Region of Space, and Quantum Numbers
934.3.1 One-Dimensional Space
934.3.2 Three-Dimensional Space
994.3.3 Periodic Boundary Conditions
1004.4 Fermi Level and Chemical Potential
1014.5 Partially Confined Electrons Finite Potential Wells
1034.5.1 Finite Rectangular Well
1044.5.2 Parabolic Well Harmonic Oscillator
1114.5.3 Triangular Well
1124.6 Electrons Confined to Atoms The Hydrogen Atom and the Periodic Table 4.6
1134.6.1 The Hydrogen Atom and Quantum Numbers
1144.6.2 Beyond Hydrogen Multiple Electron Atoms and the Periodic Table
1184.7 Quantum Dots, Wires, and Wells
1204.7.1 Quantum Wells
1244.7.2 Quantum Wires
1264.7.3 Quantum Dots
1284.8 Main Points
1304.9 Problems
1305 Electrons Subject To A Periodic Potential Band Theory Of Solids
1345.1 Crystalline Materials
1355.2 Electrons in a Periodic Potential
1395.3 Kronig Penney Model of Band Structure
1405.3.1 Effective Mass
1445.4 Band Theory of Solids
1535.4.1 Doping in Semiconductors
1575.4.2 Interacting Systems Model
1605.4.3 The Effect of an Electric Field on Energy Bands
1635.4.4 Bandstructures of Some Semiconductors
1635.4.5 Electronic Band Transitions Interaction of Electromagnetic Energy and Materials
1655.5 Graphene and Carbon Nanotubes
1735.5.1 Graphene
1735.5.2 Carbon Nanotubes
1755.6 Main Points
1805.7 Problems
180
Part II Single-Electron And Few-Electron Phenomena And Devices
1856 Tunnel Junctions And Applications Of Tunneling
1876.1 Tunneling Through a Potential Barrier
1886.2 Potential Energy Profiles for Material Interfaces
1946.2.1 Metal Insulator, Metal-Semiconductor, and Metal Insulator Metal Junctions
1946.3 Applications of Tunneling
1996.3.1 Field Emission
1996.3.2 Gate Oxide Tunneling and Ho
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