MSE304 :: MatSE Illinois :: University of Illinois at Urbana-Champaign

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i>clickers

We will be using i>clickers in every lecture. You can use either the older v1 or the newer v2 i>clickers. If you have not already done so, please register your clicker by visiting the MSE304 page in Compass. The navigation bar on the left should have an item "register i>Clicker". The proven, educational benefit of using i>clickers depends on your active participation. Having another student answer questions using your clicker is considered cheating.

Excused Absences

Excused absences may be requested by filling out the Excused Absences form. For more information, please read the course syllabus.

Pre-lecture (survey) questions

(Optional) pre-lecture questions on the reading material will be assigned in PrairieLearn before class and answers are due at 9 pm the day before each lecture.

Online discussion forum

This class uses Piazza for announcements, updates, and all communication between the instructor, TAs, and students. Please visit this page to register.

Textbook

Principles of Electronic Materials and Devices, Safa O. Kasap, Third Edition (McGrawHill, 2006).

Alternative (Optional) Textbook

Electrical Properties of Materials, Laszlo Solymar, Donald Walsh, Eighth Edition (Oxford University Press, 2009).

Schedule

All recordings will be posted under Echo360 and in the "MSE 304 - Spring 2020" channel on Illinois MediaSpace.

Date Reading Description Assignment due
W Jan 22 Orientation and Introduction
F Jan 24 Solymar: 1, 2;
Kasap: 2.1;
Classical Conductivity: Drude model Prerequisite Quiz, Room: CBTF, SIGN UP, study guide
M Jan 27 Solymar: 2, 3;
Kasap: 2.5, 3.1;
Hall effect
W Jan 29 Solymar: 3, 6.9, 7.3;
Kasap: 3.1;
Bragg's Law, Photoelectric Effect
F Jan 31 Solymar: 3;
Kasap: 3.3, 3.4, 3.5;
Particle-wave duality, de Broglie wave length
M Feb 3 Solymar: 3;
Kasap: 3.5, 3.6, 3.7;
Basics of Quantum Mechanics, Schrödinger Equation HW0
W Feb 5 Solymar: 3;
Kasap: 3.3, 3.4, 3.6;
Operators, Free electrons
F Feb 7 Solymar: 2, 3;
Kasap: 3.3, 3.4, 3.6;
Infinite potential well
M Feb 10 Solymar: 3.6, 4;
Kasap: 3.5, 3.7, 3.8;
Infinite potential well, Uncertainty principle, Tunneling HW1
W Feb 12 Solymar: 4;
Kasap: 3.8;
Tunneling Quiz 1, Room: CBTF, SIGN UP, study guide
F Feb 14 Solymar: 5;
Kasap: 4.1;
Hydrogen Atom I
M Feb 17 Solymar: 5;
Kasap: 4.1;
Hydrogen Atom II HW2
W Feb 19 Solymar: 5;
Kasap: 4.1;
Optical transitions, Selection rules, Spin
F Feb 21 Solymar: 5;
Kasap: 4.1;
Beyond hydrogen
M Feb 24 XPS, Auger X-ray emission HW3
W Feb 26 Link, More Auger X-ray absorption, Auger, Synchrotrons Quiz 2, Room: CBTF, SIGN UP, study guide
F Feb 28 Solymar: 5;
Kasap: 1.3;
XPS, Auger
M Mar 2 Solymar: 5;
Kasap: 1.3;
Bonding in molecules: LCAO method
W Mar 4 Solymar: 1;
Kasap: 1.3;
Bonding: Potential energy surface, In-class slides
F Mar 6 Solymar: 6, 7;
Kasap: 4.2, 4.5;
Bonding
M Mar 9 Bulk modulus, Madelung constant HW4 (Online), HW4 (Offline, submit here)
W Mar 11 Solymar: 6, 7;
Kasap: 4.5, 4.6, 4.7;
Free-electron gas, Density of states Quiz 3, Room: CBTF, SIGN UP, study guide
F Mar 13 Density of states, Fermi distribution
M Mar 16 Spring Break
W Mar 18 Spring Break
F Mar 20 Spring Break
M Mar 23 Solymar: 6, 7;
Kasap: 4.11;
Density of states, Fermi distribution, interactive session HW5
W Mar 25 Solymar: 6, 7;
Kasap: 4.11;
Direct lattice and reciprocal lattice, interactive session, (blank slides)
F Mar 27 Solymar: 6, 7;
Kasap: 4.11;
Empty-Lattice Approximation: Bands in Solids, interactive session, (blank slides)
M Mar 30 Solymar: 8;
Kasap: 5.11;
Nearly Free Electrons: Bands in Solids, interactive session, (blank slides) HW6 (Online), HW6 (Offline, submit here)
W Apr 1 Solymar: 8;
Kasap: 5.2, 5.3;
Nearly free electrons; Semiconductors, interactive session, (blank slides)
F Apr 3 Nearly free electrons; Semiconductors, interactive session, (blank slides)
M Apr 6 Electrons, holes in semiconductors, interactive session, (blank slides)
W Apr 8 Solymar: 8, 9;
Kasap: 6.1, 6.2;
Mass action law, Fermi level, interactive session, (blank slides) Quiz 4, PrairieLearn, study guide
F Apr 10 Solymar: 8, 9;
Kasap: 5.4, 5.5;
Extrinsic semiconductors, n and p doping, interactive session, (blank slides)
M Apr 13 Solymar: 9;
Kasap: 5.9, 6.2, 6.5;
Compensation doping, effective mass fitting, interactive session, (blank slides) HW7 (Comp. Report 1) (Offline, submit here); optional QE GUI
W Apr 15 Solymar: 9;
Kasap: 6.6, 6.8;
Fermi level in doped materials, Lattices, interactive session, (blank slides)
F Apr 17 Solymar: 9;
Kasap: 6.9;
Carrier densities, pn junction, interactive session, (blank slides), Charge carrier concentrations in Si (iPython, PDF)
M Apr 20 Solymar: 13;
Kasap: 6.9;
pn junction: built-in field and potential, interactive session, (blank slides) HW8
W Apr 22 Solymar: 13;
Kasap: 6.10;
Diffusion current, Forward and Reverse bias, interactive session, (blank slides)
F Apr 24 Solymar: 13;
Kasap: 6.10;
Bias, Diode, Carrier lifetimes, interactive session, (blank slides)
M Apr 27 Schottky junctions, LEDs, interactive session, (blank slides)
W Apr 29 Carrier life times, LEDs, interactive session, (blank slides) Quiz 5, PrairieLearn, study guide
F May 1 Heterojunction LED, Solar cells, interactive session, (blank slides) HW9
M May 4 Multijunction solar cell, Transistors, interactive session, (blank slides)
W May 6 Last class HW10 (Online), Comp. Report 2 (Offline, submit here)
FINAL: comprehensive final exam (3 hours, between 5/12 6 am and 5/14, 6 am) PrairieLearn, study guide

Course Description

Scope

Fundamentals of quantum mechanics; atoms and small molecules; tunneling and Heisenberg's uncertainty principle; angular momentum; spectroscopy techniques; solids, in particular metals and semiconductors; Students should obtain a fundamental understanding of quantum mechanics and how it governs electronic properties of materials and devices.

Objectives

Students will be able to understand the theoretical description of various semiconductor devices and how that traces back to the materials they are made of. Students will obtain a grasp of the equations of quantum mechanics and their (analytical) solution for model systems. Moreover, students will obtain insight into modern computational techniques to describe electronic properties of solids as well as semiconductor devices.

Course Grading

Grading

Your final grade for MSE304 will be based upon your total score on all the components of the course. Please consult the course syllabus for details on particular components.

Course Component Percentage of total
Homework26
Computational Report 1 and 26 each
In-lecture i>clicker8
Prerequisite Quiz4
Quiz 1‐510 each

The optional final exam will replace the lowest quiz grade if it is higher than that grade.

Final Grade

The following cutoff table will be used to calculate final scores.

Final Grade Minimum Points
A+ 97
A 93
A– 90
B+ 87
B 83
B– 80
C+ 77
C 73
C– 70
D+ 67
D 63
D– 60
F <60