MSE 4001 Electronic and Magnetic Properties of Materials


General Information | Course Outline |Course Materials, Homeworks, Announcements


General Information


 

 

 

 

 

 

Catalog Data

MSE 4001 Electronic and Magnetic Properties of Materials 3 Credits. One three-hour lecture weekly.

Crystal structures and interatomic forces, lattice vibrations, thermal, acoustic, and optical properties. Semiconductors, dielectric properties, magnetism, and magnetic properties, superconductivity. Device applications.

Pre-requisites No requisites for MSE 4001 students.
Textbook R. E. Hummel, Electronic Properties of Materials, Springer, 3rd edition (2001), ISBN: 038795144X.
References 1. B. G. Streetman and S. Banerjee, Solid State Electronic Devices, Prentice Hall, 5th edition (2000), ISBN 0130255386, 2. L. Solymar and D. Walsh, Electrical Properties of Materials, Oxford Science Publications, 6th edition (1998), ISBN: 019856273X. 3. J. D. Livingston, Electronic Properties of Engineering Materials, Wiley and Sons (1999), ISBN: 047131627X
Instructor Dr. Pamir Alpay, Associate Professor, Materials Science and Engineering Program, Chemical, Materials, & Biomolecular Engineering IMS Rm 141, ph.: (860) 486-4621, e-mail: p.alpay@ims.uconn.edu

Lab Projects

Grade

None

Test 1 20%, Test 2 20%, Homeworks 20%, Term Project 20%, Final 20%

Computer Use At the discretion of student
ABET Cat. Engineering Science, 3 credits (100%)

Course Outline


 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

1. Fundamentals of Electron Theory (Chapter 1-6)

1.1. Review: Quantum Numbers, Electron Configurations, Periodic Table, Pauli's Exclusion Principle
1.2. The Wave-Particle Duality
1.3. Chemical potential and binary systems
1.4. Free Electrons
1.5. Bound Electron
1.6. Tunneling Effect
1.7. Electron in a Periodic Field of a Crystal
1.8. Energy Bands in Crystals
1.9. The Fermi Energy, Density of States, Effective Mass

2. Electrical Conduction in Metals (Chapter 7)

2.1. Conductivity
2.2. Matthiessen's Rule, Residual Resistivity
2.3. Nordheim's Rule for Alloys
2.4. Effect of Ordering
2.5. Superconductivity
2.6. Thermoelectric Phenomena

3. Semiconductors (Chapter 8)

3.1. Intrinsic Semiconductors
3.2. Extrinsic Semiconductors
3.3. Hall Effect
3.4. Semiconductor Devices *
3.4.1. Metal-Semiconductor Contacts
3.4.2. Rectifying Contacts
3.4.3. Ohmic Contacts
3.4.4. Diodes
3.4.5. Transistors

3.4.6. Digital Circuits and Memory Devices
3.4.7. Quantum Semiconductor Devices

3.5. Semiconductor Device Fabrication

4. Insulators (or "Bad" Conductors) and Dielectric Properties (Chapter 9)

4.1. Ionic and Molecular Conduction
4.2. Dielectric Properties
4.3. Ferroelectricity
4.4. Pyroelectricity
4.5. Piezoelectricity
4.6. Electrostriction

5. Magnetic Properties of Materials (Chapter 14-17)

5.1. Basic Concepts in Magnetism
5.2. Types of Magtnetism: Diamagnetism, Paramagnetism, Ferromagnetism, Antiferromagnetism, Ferrimagnetism
5.3. Langevin Theory of Magnetism
5.4. Molecular Field Theory
5.5. Applications *
5.5.1. Soft Magnetic Materials
5.5.2. Permanent Magnets
5.5.3. Magnetic Recording and Memories

6.

Thermal Properties of Materials (Chapter 18-22)

6.1. Heat Capacity
6.2. Atomistic Theory of Heat Capacity
6.3. Einstein (Phonon) Model of Lattice Vibrations
6.4. Debye Model
6.5. Electronic Contribution to the Heat Capacity
6.6. Thermal Conductivity
6.7. Thermal Expansion

7. Device Applications (TBA)

7.1. Semiconductor Lasers
7.2. Pyroelectric IR Detectors/Sensors
7.3. Liquid Crystal Displays
7.4. The Xerox Process
7.5. Magnetic Non-Volatile RAMs


 

Course Materials

Conduction in Materials
Electron Theory

Electron Orbitals and Quantum Numbers

Order-disorder transformations

Superconductors

Semiconductors-I
Semiconductors-II

Dielectrics
Ferroelectrics

Magnetism 1
Magnetism 2
Thermal Properties

Homeworks

Homework 1
Homework 2
Homework 3
Homework 4
Homework 5

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