640-223 Quantum Mechanics & Thermal Physics(Adv)

Physics 640-121 and 640-122 (or 640-141 and 640-142). Mathematics: one of 620-121, 620-140, 620-141; and one of 620-113, 620-123, 620-143; or equivalent.

Mathematics 620-231 or 620-233 and one of [01]620-112, 620-122, 620-142, 620-211 or equivalent.

This subject introduces students to two fundamental areas of physics and is divided into two parts. In the quantum mechanics section, the framework of wave mechanics is established. In thermal physics, concepts such as work, heat, temperature and entropy are introduced. The physics underlying both these components is central to an understanding of many processes in physics, chemistry and engineering.

Students completing this subject will be able to:

• explain the basic principles of quantum physics and the zeroth, first and second law of thermodynamics;

• solve and analyse simple quantum mechanical problems; and

• calculate and interpret the thermodynamic properties of several simple systems.

In addition students will enhance their ability to:

• participate effectively as part of a group in tutorials; and

• plan effective work schedules to meet the deadlines for submission of assessable work and prepare for examinations.

Specific topics to be covered in the quantum mechanics section include the experimental basis of quantum mechanics; wave-particle duality, probability interpretation and the wave function; wavepackets; Schrödinger equation; one-dimensional examples such as potential steps, barriers and wells, linear momentum; operators and expectation values; and an idea of three-dimensional problems and the hydrogen atom. The thermal physics section will cover the zeroth, first and second law of thermodynamics, kinetic theory, the microscopic origin of entropy, heat engines and refrigerators, paramagnetism, phase changes and chemical thermodynamics.

Tests totalling up to 2 hours and assignments totalling up to an equivalent of 3000 words during the semester (20%); a 3-hour written examination in the examination period (80%).

• R A Serway, C J Moses and C A Moyer, Modern Physics. Saunders.
• D V Schoeder, An Introduction to Thermal Physics. Addison Wesley, 2000.