Lecturer: Masud Haque (email@example.com)
Lectures and Tutorials
Lecture schedule: (1) Wednesdays 09:05, Hall D (Arts Block). (2) Fridays 12:05, Hall D (Arts Block).
Tutorial: Thursdays 2:05 PM. RH2.21 (Room 2.21 First Floor Rowan House)
Tutor: Kenneth Granahan (firstname.lastname@example.org).
Office: Room 1.6, Theoretical Physics Dept.
Problem set 11.
Due on monday, December 17th.
Problem set 10.
Due on monday, December 10th.
Problem set 09.
Due on monday, December 3rd.
Partial Solutions to Problem set 08.
Problem set 08.
Due on monday, November 26th.
Problem set 07.
Due on monday, November 19th.
Partial Solutions to Problem set 06.
Problem set 06.
Due on monday, November 12th.
Problem set 05.
Due on monday, November 5th.
Problem set 04.
Due on monday, October 22nd.
Problem set 03.
Due on monday, October 15th.
Problem set 02.
Due on monday, October 8th.
Problem set 01.
Due on tuesday, October 2nd.
Here is a large collection of problems, which I call `problem set 12'. (It's not due for submission but we are happy to discuss any attempts at solving them.)
A listing of the basic rules (`postulates') of quantum mechanics.
A discussion of one way to think of wavefunctions as vectors.
Textbooks and other Sources
Quantum mechanics is unintuitive. There will be confusing aspects; you will need to invest time and effort to clear up these confusions.
Do not expect to get comfortable with QM unless you do a fair amount of reading and problem-solving.
It is strongly recommended that you work through one or more texts.
Working through Prof. Nash's lecture notes is an absolute minimum.
It would be a very good idea to read a couple of sections every
Additional texts are listed below, and there are links to lecture notes etc. There are many textbooks on introductory quantum mechanics (e.g., carried by the Maynooth library, physically and as e-books). Textbooks have differences in ordering and notation, but you should benefit by reading any text.
Please let me know if any of the links below are broken.
Overviews of Introductory Quantum Mechanics:
Dirac notation (bra-ket notation) and properties of bra's and
Please get comfortable with this mathematical formulation. Chapter 2 of Nash notes introduces most of the notation. Here are some more references:
This topic is not covered in Nash's notes. We will use the spin-1/2 system for many examples; so it is important that you get familiar through other sources. Some links below.
Postulates of Quantum Mechanics:
Not covered in Nash's notes. The numbering of postulates varies (is not standardized), but each treatment covers very similar statements.
The Dirac delta function:
You are expected to be able to calculate properties of the bound state and also calculate transmission and reflection coefficients for scattering states.
Sources for other topics:
There are many textbooks available on introductory
quantum mechanics. I list some sources below.
(I omit publisher and year of publication: the author and title should be enough to identify each textbook.)
Notes on Exam
The exams are TWO HOURS long.
The exam will NOT have a choice of M questions out
of N, as was common a few years ago.
You will be asked to answer ALL questions.
Here are solutions to repeat exam for 2017-2018 (August 2018 exam).
Here are solutions to the January 2018 finals.
Here are solutions to repeat exam for 2016-2017 (August 2017 exam).
Here are solutions to the January 2017 finals.
We may not be marking all the assignments. This means, some assignments will go un-marked, but we will not announce beforehand which.
The primary purpose of the problem sets is really that they should help you learn quantum mechanics at an optimal rate. It will be assumed that you are attempting every problem set including the problems marked [SELF]. If you are comfortable doing all the problems including [SELF]'s during the week and then want to tackle additional problems, please let me know with a brief email and I will send you some further optional problems to work on.
Assignment marks (`continuous assessment') will be counted toward
the final module mark only if they are to the students' advantage.
(The policy is module-dependent and varies within the Mathematical Physics department. In some modules, continuous assessment is `compulsory'.)