EECS598:002 Introduction to Nanoelectronics

Instructor: Prof. Wei Lu
meeting time : T-Th, 10:30-12:30
location : EECS 3427 (updated 09/02/05)


office : 2417-A EECS Building
regular office hours: T-Th, 2:00-3:00pm
phone : (734) 615-2306
fax : (734) 763-9324
email : wluee@umich.edu

Course descreption:

This course will be carried out in a series of lectures covering recent advances in  nanoscale science and technology, with emphasis on nanoelectronics. In the first half of the course, we will have an overview of the novel properties and device structures when classical transport is replaced by quantum transport as the device size is reduced down to nanometer scale, as well as new fabrication and characterization techniques developed for these nanoscale devices. In the second half, we will study in detail several systems which have emerged as the leading candidates to drive the state of the art in future electronics. Such systems include single electron devices, carbon nanotubes, semiconductor nanowires and molecular electronics. We will also briefly explore approaches alternative to electronics, such as spintronics and quantum computing.

Syllabus (PDF) updated 09/07/05 (final version)

Textbook/references:

The course will largely be based on lecture notes and research papers, although the following books are strongly recommended as references:

Book Title: Nanoelectronics and Information Technology
Author: Rainer Waser
ISBN: 3527405429
Edition: 2 edition (April 22, 2005)
Publisher: John Wiley & Sons

Book Title: Mesoscopic Electronics in Solid State Nanostructures
Author: Thomas Heinzel
ISBN: 3527403752
Publisher: John Wiley & Sons (May 23, 2003)

Handouts:

Homeworks:

#1 (due by 09/22/05)

Lectures:

09/06/05

09/13/05

09/20/05 on Strain

09/27/05 on surface and interface states

09/29/05 growth/characterization techniques

10/06/05 quantum coherence

review1

review2

Jiwoong Park's thesis on coulomb blockate/quantum dot/molecular electronics

10/13/05 Single electron devices

10/20/05 Carbon nanotubes 1

10/27/05 Carbon nanotubes 2

11/01/05 RF-SET

11/03/05 Nanowires 1

11/10/05 Nanowires 2

11/17/05 Molecular Electronics

11/22/05 Magnetism and Spintronics 1

11/29/05 Magnetism and Spintronics 2

12/01/05 Magnetism and Spintronics 3

12/06/05 Dilute Magnetic Semiconductors

12/06/05 Spintronics references

12/08/05 Quantum Information Processing

 

Reading materials:

week1

    slides from group 3

$250,000 Feynman Grand Prize Challenge (Initiated in 1997 and doesn't seem to have been claimed yet.)

week2 - description
week2 - article

    slides from group 3

    slides from group 4

week3

    slides from group 1

    slides from group 2

week4

    slides from group 3

week5 article
week5 reference on emerging nonvolatile memory technologies

    slides from group 1

    slides from group 2

week6a, b

    slides from group 3

    slides from group 4

week7

week8

    slides from group 2

    slides from group 1

week9a, b

    slides from group 3

    slides from group 4   

week10
    slides from group1, supplementary

    slides from group2

week11a, b

     slides from group 3

week12a, b, supplementary

     slides from group 1

     slides from group 2

week13a, b
alternative paper

     slides from group 3

     slides from group 4