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Electrical Transport in Nanoscale Systems

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ISBN-10: 0521896347

ISBN-13: 9780521896344

Edition: 2008

Authors: Massimiliano Di Ventra

List price: $119.00
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Description:

In recent years there has been a huge increase in the research and development of nanoscale science and technology. Central to the understanding of the properties of nanoscale structures is the modeling of electronic conduction through these systems. This graduate textbook provides an in-depth description of the transport phenomena relevant to systems of nanoscale dimensions. In this textbook the different theoretical approaches are critically discussed, with emphasis on their basic assumptions and approximations. The book also covers information content in the measurement of currents, the role of initial conditions in establishing a steady state, and the modern use of density-functional…    
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Book details

List price: $119.00
Copyright year: 2008
Publisher: Cambridge University Press
Publication date: 8/7/2008
Binding: Hardcover
Pages: 494
Size: 7.01" wide x 9.96" long x 1.06" tall
Weight: 2.486
Language: English

Massimiliano Di Ventra is Professor of Physics at the University of California, San Diego. He has published over 70 papers in refereed journals, co-edited the textbook Introduction to Nanoscale Science and Technology (Springer, 2004), and has delivered more than 100 invited talks worldwide on the subject of this book.

A primer on electron transport
Nanoscale systems
Generating currents
Finite versus infinite systems
Electron sources
Intrinsic nature of the transport problem
Measuring currents
Microscopic states
The current operator
The measurement process
Complete measurement and pure states
The statistical operator and macro-states
Pure and mixed states
Quantum correlations
Time evolution of the statistical operator
Random or partially specified Hamiltonians
Open quantum systems
Equilibrium statistical operators
Current measurement and statistical operator truncation
One current, different viewpoints
Summary and open questions
Exercises
Drude model, Kubo formalism and Boltzmann equation
Drude model
Resistance, coherent and incoherent transport
Relaxation vs. dephasing
Mean-free path
The meaning of momentum relaxation time
Kubo formalism
The current-current response function
The use of Density-Functional Theory in the Kubo approach
The fluctuation-dissipation theorem
Ohmic vs. ballistic regimes
Chemical, electrochemical and electrostatic potentials
Drift-diffusion equations
Diffusion coefficient of an ideal electron gas in the non-degenerate limit
Generalization to spin-dependent transport
Distribution functions
Boltzmann equation
Approach to local equilibrium
Entropy, loss of information, and macroscopic irreversibility
The classical statistical entropy
Quantum statistical entropy
Information content of the N- and one-particle statistical operators
Entropy of open quantum systems
Loss of information in the Kubo formalism
Loss of information with stochastic Hamiltonians
Entropy associated with the measurement of currents
Summary and open questions
Exercises
Landauer approach
Formulation of the problem
Local resistivity dipoles and the "field response"
Conduction from transmission
Scattering boundary conditions
Transmission and reflection probabilities
Total current
Two-probe conductance
The Lippmann-Schwinger equation
Time-dependent Lippmann-Schwinger equation
Time-independent Lippmann-Schwinger equation
Green's functions and self-energy
Relation to scattering theory
The S matrix
Relation between the total Green's function and the S matrix
The transfer matrix
Coherent scattering of two resistors in series
Incoherent scattering of two resistors in series
Relation between the conductance and the transfer matrix
Localization, ohmic and ballistic regimes
Four-probe conductance in the non-invasive limit
Single-channel case
Geometrical "dilution"
Multi-channel case
Multi-probe conductance in the invasive limit
Floating probes and dephasing
Generalization to spin-dependent transport
Spin-dependent transmission functions
Multi-probe conductance in the presence of a magnetic field
Local resistivity spin dipoles and dynamical effects
The use of Density-Functional Theory in the Landauer approach
Summary and open questions
Exercises
Non-equilibrium Green's function formalism
Formulation of the problem
Contour ordering
Equilibrium Green's functions
Time-ordered Green's functions
Dyson's equation for interacting particles
More Green's functions
The spectral function
Contour-ordered Green's functions
Equations of motion for non-equilibrium Green's functions
Application to steady-state transport
Coulomb blockade
Quantum kinetic equations
Summary and open questions
Exercises
Noise
The moments of the current
Shot noise
The classical (Poisson) limit
Quantum theory of shot noise
Counting statistics
Thermal noise
Summary and open questions
Exercises
Electron-ion interaction
The many-body electron-ion Hamiltonian
The adiabatic approximation for a current-carrying system
The phonon subsystem
Electron-phonon coupling in the presence of current
Inelastic current
Inelastic current from standard perturbation theory
Inelastic current from the NEGF
Local ionic heating
Lattice heat conduction
Thermopower
Current-induced forces
Elastic vs. inelastic contribution to electro-migration
One force, different definitions
Local resistivity dipoles and the force sign
Forces at equilibrium
Forces out of equilibrium
Are current-induced forces conservative?
Local ionic heating vs. current-induced forces
Summary and open questions
Exercises
The micro-canonical picture of transport
Formulation of the problem
Transport from a finite-system point of view
Initial conditions and dynamics
Electrical current theorems within dynamical DFTs
Closed and finite quantum systems in a pure state
Closed quantum systems in a pure state with arbitrary boundary conditions
Current in open quantum systems
Closure of the BBGKY hierarchy
Functional approximations and loss of information
Transient dynamics
Properties of quasi-steady states
Variational definition of quasi-steady states
Dependence of quasi-steady states on initial conditions
A non-equilibrium entropy principle
Approach to steady state in nanoscale systems
Definition of conductance in the micro-canonical picture
Summary and open questions
Hydrodynamics of the electron liquid
The Madelung equations for a single particle
Hydrodynamic form of the Schrodinger equation
Quantum Navier-Stokes equations
Conductance quantization from hydrodynamics
Viscosity from Time-Dependent Current Density-Functional Theory
Functional approximation, loss of information, and dissipative dynamics
Effect of viscosity on resistance
Turbulent transport
Local electron heating
Electron heat conduction
Hydrodynamics of heat transfer
Effect of local electron heating on ionic heating
Summary and open questions
Exercises
Appendices
A primer on second quantization
The quantum BBGKY hierarchy
The Lindblad equation
The Lindblad theorem
Derivation of the Lindblad equation
Steady-state solutions
Ground-state Density-Functional Theory
The Hohenberg-Kohn theorem
The Kohn-Sham equations
Generalization to grand-canonical equilibrium
The local density approximation and beyond
Time-Dependent DFT
The Runge-Gross theorem
The time-dependent Kohn-Sham equations
The adiabatic local density approximation
Time-Dependent Current DFT
The current density as the main variable
The exchange-correlation electric field
Approximate formulas for the viscosity
Stochastic Time-Dependent Current DFT
The stochastic Schrodinger equation
Derivation of the quantum master equation
The theorem of Stochastic TD-CDFT
Inelastic corrections to current and shot noise
Hydrodynamic form of the Schrodinger equation
Equation of motion for the stress tensor
Cut-off of the viscosity divergence
Bernoulli's equation
References
Index