University of Saskatchewan  Physics and Engineering Physics


Physics 251.3 (Relativistic Mechanics and Quantum Physics) Course Outline and Syllabus

Brian's Physics 251 lab website

Announcements (last update: November 20)

  • Final Examination:
    Monday, December 21, 2pm-5pm.
    Location: ENGINEERING 1B71.
    Check out the location before the day of the exam!
    You must bring your student card (or other picture ID)!
    You need an electronic calculator for numerical calculations.
    You must not use any other electronic devices during the exam.
    You must be enrolled in the class to participate in the exam.
    You may use a self-prepared formula sheet, consisting of four letter size pages (i.e. four sheets of paper single-sided or two sheets of paper double-sided).

Supplementary material on special relativity

Supplementary material on blackbody radiation

Additional material on early quantum mechanics and atomic physics

  • A brief overview of the early development of nuclear physics (posted on October 21).
    I prepared this for the students who are interested in this. Note how often the name Rutherford appears in this list. But there is even more to Rutherford's impact on the early development of nuclear physics: Hahn had been working as a postdoctoral researcher in Rutherford's lab in Montreal, Geiger and Bohr had served as postdoctoral researchers in Rutherford's lab in Manchester, and Cockcroft had worked as a postdoctoral researcher in Rutherford's lab in Cambridge. Chadwick and Walton had worked on their PhDs with Rutherford. Nuttall was a student of Rutherford in Manchester.

Additional material on some mathematical aspects

Additional material on Schrödinger's equation

  • In 1987, Akira Tonomura and collaborators at the Hitachi Advanced Research Laboratory and Gakushuin University in Tokyo demonstrated single-electron buildup of the electron interference pattern in a double slit experiment. A public explanation of the experiment and a video clip are provided by Hitachi on the following website. The electrons are sufficiently separated to ensure that it is interference of single electron wavefunctions which generates the interference pattern, but each single electron generates only a single dot on the detector screen. The original journal reference for the experiment is A. Tonomura et al., American Journal of Physics 57 (1989) 117-120. (links included on November 9, only for students who are interested in this).

Additional material on tunneling and its applications

  • Calculation of the transmission probability for the symmetric square barrier (posted on November 16).
    This contains the figure displaying T as a function of E/U for various parameters ξ. In addition it contains remarks on the classical limit and on the approximate evaluation of T for barriers of arbitrary shape, but this is only for information for those of you who are interested in this.
  • Supplement on tunnel diodes (posted on November 20).
    This is strictly only for students who are passionate about technical applications of quantum mechanics. The emergence of energy bands in solids and p-n junctions in semiconductors are explained in sections 12.4 and 12.5 of the textbook.

Additional material on applications of quantum mechanics

Assignments


If you have any questions about our programs in Physics and Engineering Physics, or if you want to become a Physics teacher and need advice about suitable classes, please drop me a note or consult our advising page.

Rainer Dick
Professor
Department of Physics and Engineering Physics

Telephone: (306) 966-6443
Facsimile: (306) 966-6400
E-mail: rainer.dick@usask.ca
Office: 256 Physics