Image

NNSE 625 Quantum Processes in Solids and Nanostructures
Spring 2012


Home

Group

Research

Publications


Teaching

Prof. Xue

Links

Sponsors

Instructor:      Prof. Y. Alex Xue

Office: CESTM B230C   Phone: (518) 956-7220   Email: yxue@albany.edu

 

Meeting Time and Location:
WF 1:30-2:50 PM CESTM Auditorium
Except for April 4th where class will be held in NFE Classroom 4402.


Office Hour: Friday 3:30-4:30 PM.


Course Description: This is a one-year course that addresses the fundamental concepts relevant to the investigation of nanomaterials and nanodevices by applying the methods of quantum mechanics and statistical mechanics to examine the atomic and electronic properties of solids, surfaces and nanosale systems. NNSE625 will focus on the fundamentals concepts and methods of thermodynamics, statistical mechanics, and in-depth discussion of the quantum mechanics of atoms and molecules. The 2nd half of the cousre NNSE626 will focus on the application to electronic, magnetic, optical and transport properties of solids and surfaces.

 
Prerequisite
:
I assume you have been exposed to the basics of quantum mechanics (at the level of Griffiths/Riboff) and some familiary with thermodynamics as were covered in the Foundation of Nanotechnology modules or equivalent.

1) D.J. Griffiths, Introduction to Quantum Mechanics (2nd edition, Benjamin Cummings, 2004).

2) R. Liboff, Introductory Quantum Mechanics (4th edition, Addison Wesley, 2002).


Course Text: There are five suggested textbooks. 


Statistical Physics
1) D. Chandler, Introduction to Modern Statistical Mecahnics  (Oxford University Press, 1987).
2) M. Kardar, Statistical Physics of Particles (Cambridge University Press, 2007).
3) L.D. Landau and E.M. Lifshitz, Statistical Physics, 3rd edition (Elsevier, 1980).

Quantum Mechanics
1) C. Cohen-Tannoudji et al., Quantum Mechanics (2 vol. set), Wiley-Interscience, 2006.  Note that this is the republication of the original Wiley 1977 text, for which you may get a better bargain as used books at Amazon.com.
2) P. Atkins and R. Friedman, Molecular Quantum Mechanics, 4th edition (Oxford University Press, 2005).
You may also find it handy to have Griffiths or Liboff within reach.

Grades: They will be based on a term paper and a comprehensive written exam. The term paper consists of a 2-3 pages report summarizing in your own language (scientific please) the main findings of selected literature (topics TBD). Grade distribution: 20% midterm paper, 80% written exam. The homeworks will be assigned, collected but not graded. The written exam will be based on homeworks. You can also get extra credit up to 20% for the final take-home exam. 

 

Course Website http://www.albany.edu/~yx152122/NNSE625-12.html.
Lecture notes and homework solutions can be found at the course website. 

 

Weekly Course Materials:
You should
study the reading materials beforehand and come to the lecture with questions and read them again after the lectures!


     Weeks                                 Lecture Topic                                    Reading Materials                       Homework

Week 1

1/18


1/20


Fundmentals laws of thermodynamics


Thermodynamic potentials

Chandler Ch. 1 & Kardar Ch. 1.1-1.7
Week1.pdf

Chandler Exercise 1.2

Week 2

1/25


1/27


Maxwell relations

Thermodynamic equilibrium and stability

Chandler Ch. 2.1-2.3 & Kardar 1.8-1.10
Week2.pdf

Chandler Exercise 1.8, 2.9

Week 3

2/1


2/3


Random variables

Probability distributions


Kardar Ch. 2.1-2.3
Week3.pdf

Kardar Ch.2 Problem 1 (a), (b), (c) and (d)

Week 4

2/8



2/10

 Many random variables and Central limit
 theorem

 Rules for large numbers; Information and   entropy

 Kardar Ch. 2.4-2.7
  Week4.pdf

 Kardar Ch.2 Problem 2(a)

Week 5

2/15


2/17

Kinetic theory; Liouville's theorem

The Microcanonical Ensemble

Kardar Ch.3.1-3.2, Ch. 4.1-4.2 and Chandler 3.1-3.2
Week5.pdf

Chandler Exercise 2.19
Week 6
2/22

2/24

Two-level systems; The idea gas

Gibbs paradox; Harmonic Oscillator

Kardar Ch. 4.3-4.5 and Chandler Ch 3.4
Week6.pdf

Kardar Ch.2 Problem 4

Week 7
2/29

3/2

Canonical Ensemble

Gibbs Canonical Ensemble and Grand Canonical Ensemble

Kardar Ch. 4.6-4.9 and  Chandler Ch. 3.3-3.5
Week7.pdf

Chandler Exercise 3.8, 3.18, 3.19. 
Week 8
3/7

3/9

Quantum Statistical Mechanics of Polyatomic Gases, Phonons and Photons

Kardar Ch. 6.1-6.3 and  Chandler Ch. 4
Week8.pdf

Chandler Exercise 4.24, 4.26(a)-(c). FYI: STP means Standard Temperature and Pressure: T=273.15K, P=100 kPa
 Week 9 (3/14-3/16)  Spring Break (No Class!)

Week 10
3/21

3/23

Wavefunction space, Delta function and Dirac notation
Representations and observables


Cohen-Tannoudji Ch. II.A-E
Week10.pdf

Cohen-Tannoudji Complement H.II
Excise 1
Week 11
3/28

3/30

Fundamental postulates of quantum mechanics
Spin and Pauli matrices; Quantum Microsates and Macrostates

Cohen-Tannoudji Ch. III.B, Ch. IV.A-B
Week11.pdf

Kardar Ch.6 Problem 3(a),3(b),3(c),3(d).
Week 12
4/4

Systems of Identical Particles; Quantum Statistics

Kardar Ch.6.4,6.5,7.1, 7.3
Week12.pdf



Week 13
(4/11-4/13) 

Written Exam

Week 14
(4/18-4/20)

The variational method  Cohen-Tannoudji Ch. XI Complement E,G
Week14.pdf

Week 15
(4/25-4/27)
Stationary perturbation theory
Cohen-Tannoudji Ch. XI.A-C
Week15.pdf

Week 16
(5/2-5/4)
Quantum Theory of Scattering
 
Cohen-Tannoudji Ch. VIII.A-C
Week16.pdf


Term Paper (20%) & Take-Home Exam (Optional/Extra Credit)
(Due Thursday, May 10, 2012)