Science Center

Room E010

and

Room WS004

Physics 207
Fall, 2005

Link to course schedule

Gabe Spalding

Office: C006B

556-3004

gspalding@titan.iwu.edu

Tutor's e-mail: debo852002@yahoo.com

Modern Physics

and

Thermodynamics

Modern Physics

and

Thermodynamics

Course Description:

- This course introduces the central principles underlying the modern theories of relativity, thermodynamics, and quantum mechanics.

- Topics include: Relativity; the experimental basis of quantum mechanics; wave-particle duality; Schrödinger's equation and solutions in one-dimension; time dependence of quantum states; two- and three- dimensional quantum, angular momentum; solving Schrödinger's equation for one-electron atoms (the periodic table). We will also discuss basic ideas of atomic and nuclear structure. Mathematica will be used, both for student assignments and in-class demonstrations, but no prior knowledge of that software package is assumed.

Suggested Reading:

Required Reading:

Suggested Journal Reading includes (but is not limited to):

1) American Journal of Physics

2) Review of Scientific Instruments

As is described elsewhere, the laboratory portion of this course is designed to offer flexibility: those interested in finding their own experiments to do or apparatus to build will find some nicely accessible articles in these journals.

Course Organization

- There will be four hours of lecture per week, and a mere two and a half hours of lab.( The fact that there is a lab associated with this course should not be off-putting: it's pretty short and relatively painless! There are no formal lab reports, but you must use a bound ruled lab notebook of the sort sold in the bookstore; your notebook should be kept in the lab, where I will try to review it on every third Saturday morning, at 9 am).

- Each homework assignment turned in should include verbal comments on the physics of the assignment (i.e., what you were supposed to "get" out of doing each problem). Including brief comments of this sort ensures that you've thought about your work (rather than merely plugged and chugged), and can help to clarify (and extend) the conclusions you draw from your results.

- Some of our meetings will be devoted to discussion of the homework. At this time students may be asked to present solutions to homework problems at the board.

- A written copy of your work on homework assignments must be turned at the start of class on the day due. (Please be prompt!)

- Matters of Honor - The instructor values our student honor code for the integrity it fosters and the pedagogical flexibility it affords. The important guiding principle of academic honesty is that you must never represent the work of others as your own. Just copying someone else's work is clearly a representation of another's work as your own, and is a violation of the community. The following guidelines should govern your behavior in the course; please request clarification if you find yourself in any doubtful situations.


Grading procedures:

Written exercises: the following simple scheme will be applied to each problem or substantial part thereof: 4 points will be awarded for a correct numerical answer if arrived at through clear application of physical principles, 3 points for correct application of concepts, 2 points for a significant attempt with conceptual errors, and 1 point for an attempt.

Exams: Clearly conveying understanding is key! Partial credit will be awarded for sensible efforts even without completely correct answers. No partial credit will be given for the multiple-choice questions.

Final course grades will be computed using the following weighting

·  Class Exams 300 pts.

·  Laboratory 200 pts. [discussed at the following link.]

·  Problems 140 pts.

·  Final Exam 160 pts.


Tentative Schedule:

Week

Text Assignment

Lab

Problems

 

 

1

Aug 30

Introduction

Aug 29

Historical Perspective, Chap. 1

Aug 30

Historical Perspective, Chap. 1

Sept 1

Relativity, Chap. 2

Tour of Current Research Opportunities:

Detailed, Exploratory Write-ups

will be graded and are

due in 1 wk.

 

 

 

2

Sept 5

No Classes

Sept 6

Relativity, Chap. 2

Sept 8

Relativity, Chap. 2

Sept 9

Relativity, Chap. 2

Round 1:

High-Energy Physics

(3 weeks)

 

 

 

3

Sept 12

Relativistic Dynamics, Chap. 2

Sept 13

Relativistic Dynamics, Chap. 2

Sept 15

Quiz on Chap. 2

Sept 16

Relativistic Dynamics, Chap. 2

Round 1:

High-Energy Physics

(3 weeks)

 

 

 

4

Sept 19

Relativistic Dynamics, Chap. 2

Sept 20

Experimental Basis of Quantum Theory, Chap. 3

Sept 22

Experimental Basis of Quantum Theory, Chap. 3

Sept 23

Experimental Basis of Quantum Theory, Chap. 3

Round 1:

High-Energy Physics

(3 weeks)

 

 

 

5

Sept 26

Experimental Basis of Quantum Theory, Chap. 3

Sept 27

Experimental Basis of Quantum Theory, Chap. 3

Sept 29

EXAM: Chap. 1 & 2

Sept 30

Atomic Structure, Chap. 4

Round 2:

The Origins of Quantum Mechanics, Part I

(2 weeks)

 

 

 

6

Oct 3

Atomic Structure, Chap. 4

Oct 4

Atomic Structure, Chap. 4

Oct 6

Atomic Structure, Chap. 4

Oct 7

Wave Properties of Matter, Chap. 5

Round 2:

The Origins of Quantum Mechanics, Part I

(2 weeks)

 

 

 

7

Oct 10

Wave Properties of Matter, Chap. 5

Oct 11

Wave Properties of Matter, Chap. 5

Oct 13

Wave Properties of Matter, Chap. 5

Oct 14

Quantum Theory, Chap. 6

Round 2:

The Origins of Quantum Mechanics, Part II

(2 weeks)

 

 

 

8

Oct 17

Quantum Theory, Chap. 6

Oct 18

Quantum Theory, Chap. 6

Oct 20

EXAM: Chap. 1-3

Oct 21

Fall Break Day

Round 2:

The Origins of Quantum Mechanics, Part II

(2 weeks)

 

 

 

9

Oct 24

Quantum Theory, Chap. 6

Oct 25

Quantum Theory, Chap. 6

Oct 27

Hydrogen Atom, Chap. 7

Oct 28

Hydrogen Atom, Chap. 7

Round 3:

Spectral Distributions, Part I

(1 week ONLY)

 

 

 

10

Oct 31

Many-Electron Atoms, Chap. 8

Nov 1

Many-Electron Atoms, Chap. 8

Nov 3

EXAM: Section 5.4 through end of Ch 6

Nov 4

Statistical Physics, Chap. 9

Round 3:

Spectral Distributions, Part II

(2 weeks)

 

 

 

11

Nov 7

Statistical Physics, Chap. 9

Nov 8

Statistical Physics, Chap. 9

Nov 10

Statistical Physics, Chap. 9

Nov 11

Molecules & Solids, Chap. 10

Round 3:

Spectral Distributions, Part II

(2 weeks)

 

 

 

12

Nov 14

Molecules & Solids, Chap. 10

Nov 15

Molecules & Solids, Chap. 10

Nov 17

Semiconductor Theory, Chap. 11

Nov 18

Semiconductor Theory, Chap. 11

Summer Internship Applications

(A required, graded exercise)

 

 

 

13

Nov 21

EXAM: through Ch 10

Nov 22

The Atomic Nucleus, Chap. 12,

Nuclear Interactions, Chap. 13

Nov 24

Thanksgiving Break

Nov 25

Thanksgiving Break

Round 4:

"Thing"-ness

(2 weeks)

 

 

 

14

Nov 28

The Atomic Nucleus, Chap. 12,

Nuclear Interactions, Chap. 13

Nov 29

The Atomic Nucleus, Chap. 12,

Nuclear Interactions, Chap. 13

Dec 1

Nuclear Interactions, Chap. 13

Dec 2

EXAM

Round 4:

"Thing"-ness

(2 weeks)

 

 

 

15

Dec 5

Elementary Particles, Chap. 14

Dec 6

Elementary Particles, Chap. 14

Dec 8

GR & Cosmology, Chap. 15-16

Dec 9

Review

Individual Conferences

 

 

 

16

FINAL EXAM: 8:00 - 10:00 am, Fri., Dec. 16, 2005