79 courses in the 1983–84 Undergraduate Calendar, read from the scanned original. The text comes from OCR, so check the scanned page before relying on a detail.
Notes
Department of Physics
Faculty listed in 1983–84
Professor, Chairman of the Department J. Grindlay, BSc (Glasgow), DPhil (Oxford)
Professor, Dean of the Faculty of Science D.E. Brodie, BSc, MSc, PhD (McMaster)
Associate Professor, Associate Chairman of the Department
J.K. Brandon, BSc, PhD (McMaster), MA (Cambridge)
Professors
Faculty listed in 1983–84
A. Anderson, MA, DPhil (Oxford)
R.A. Aziz, BA, MA, PhD (Toronto)
G.A. Bakos, MA (Bratislava), MA, PhD (Toronto)
F.W. Boswell, 8A, MA, PhD (Toronto)
J.A. Cowan, BSc (Manitoba), MA, PhD (Toronto)
1.R. Dagg, BSc (Manitoba), MS (Penn State), PhD (Toronto)
This course covers the topics in Ontario Grades 11 to 13 essential for first year university physics. The course includes mechanics, gravitation, vibrations and waves, heat, electricity, light and optics. Successful completion of this course fulfills the University admission requirements where high school Physics is necessary.
This seminar brings together Honours Physics (including Co-op students) in Years 2,3 and 4, to receive information concerning the activities of the Physics Department and to hear invited speakers.
An introduction to physics for students intending to concentrate their further studies in biology, medicine or dentistry; includes particle kinematics and dynamics, energy and momentum conservation, gravitation, rotational mechanics, fluid mechanics, elasticity and oscillations.
PHYS 112Physics For The Life Sciences 2W,S 3C,1T 0.5
A continuation of PHYS 111; includes wave motion, normal modes of vibration, sound, hearing, temperature, heat, kinetic theory of gases, thermodynamics, electrostatic force and potential, electric current and power, DC circuits, magnetic fields and induction.
Brief review of kinematics. Particle dynamics, work, energy, conservation of energy. Conservation of tinear momentum, collisions. Rotational kinematics and dynamics, conservation of angular momentum. Equilibrium of rigid bodies.
An introductory course in physics for students intending to concentrate their future studies in the physical sciences, optometry or mathematics; includes Particle kinematics and dynamics, forces in nature, work and energy, conservation of energy and linear momentum, rotational kinematics and dynamics, and conservation of angular momentum.
This course is a continuation of PHYS 121; includes fiuid statics, wave motion, oscillating systems, gravitation, electrical currents and resistive circuits.
capacitative and inductive circuits, alternating currents and resonant Circuits.
waves, transverse and longitudinal waves, including sound. Geometrical optics; reflection and refraction. Physical optics: interference and , diffraction. Quantum physics: quantization of radiation; hydrogen atom.
Electrostatics, interaction of charges, fields, potential, capacitors and dielectrics. Magnetism, fields due to moving charges, Ampére's law, Faraday’s law, instruments, energy. Prereq: First year physics and calculus.
Nature of light, wave motion, superposition of waves. Interference of light, Fraunhofer diffraction and resolution limit of optical instruments; the diffraction grating and the analysis of light. Fresnel diffraction. Polarized light. Coherence of light, lasers, holography..Fibre Optics.
Prereq: First year Physics and calculus. Coreq: PHYS 246L.
An introduction to the astronomy and astrophysics of objects beyond the solar system for students with a background in (elementary) University Physics and Mathematics.
An introductory course in electricity and magnetism; includes Coulomb's Law, electric fields, Gauss’ Law, electric potential, capacitance and dielectrics, magnetic forces and fields, inductance, magnetization, Maxwell's equations, electromagnetic waves. Forms a basis for the understanding of most of today’s electronic and electrical technology. Prereq: First year Physics and calculus, MATH 216.
PHYS 254Thermal Physics and Properties of MatterF 3C. 0.5
An introductory course in thermal physics, kinetic theary and properties of matter; includes thermodynamics, heat engines, kinetic theory of gases, viscosity, diffusion, transport properties elasticity.
Prereq: First year physics and calculus. Recommended for students in Honours programs. .
Matrix treatment of ray tracing and wave propagation, cardinal points of optical systems, reflection and transmission coefficients. Coupled oscillators and normal modes, continuous systems and standing waves, superposition and Fourier analysis, dispersion. Travetling waves and the wave equation. Interference and diffraction.
Prereq: First year physics and calculus. Physics majors must take 256L with this course.
PHYS 259Crystallography and X-Ray Diffraction ~W,S “3C 0.5
Space lattices, symmetry, crystal structure, crystal geometry and stereographic projections. Electronic structure of atoms and atomic bonding in solids. Theory of X-ray diffraction, X-ray methods and the reciprocal lattice. Crystal formation, crystal defects and physica! properties of crystals.
Prereq: First year physics and calculus. Coreg: PHYS 259L.
PHYS 263Classical Mechanics and Special RelativityW,S 3C 0.5
Newtonian dynamics of particles and systems of particles; Lagrangian dynamics and generalized coordinates; the Loréntz transformation and relativistic dynamics.
PHYS 301Physical Techniques for Biologists 1F 3C 0.5
Visible, UV, dark field, phase, interference, polarizing and fluorescence microscopy; electron microscopy; visible and UV spectroscopy; polarography; pH and ion electrodes; osmometers; densitometers; radioactive tracers and counters; introductory electronics; data analysis. Offered alternate years with PHYS 302. Prereq: First year physics. Physics students may not take this course for credit.
PHYS 302Physical Techniques for Biologist 2 Infrared, Raman and fluorescenceW 3C 0.5
spectroscopy; nuclear magnetic and electron paramagnetic resonance spectroscopy; optical rotary dispersion and circular dichroism: X-ray diffraction; chromatography and electrophoresis; differential scanning calorimetry; ultra centrifugation; flame photometry; X-ray and atomic absorption spectroscopy; cell counting, cytofluorometry and cell viability. Offered alternate years with PHYS 301. Prereq: First year physics.
Physics students may not take this course for credit.
Fundamentals of modern physics, special theory of relativity, quantization of electromagnetic radiation, wave properties of particles, the hydrogen atom. Prereq: Year two electricity and optics courses.
Atomic and molecular spectra, forbidden and permitted transitions. Emission and absorption of radiation. Planck, Saha and Boltzmann equations. Line broadening effects. Radiation transfer theory. Sources of opacity. The spectra of the sun and stars.
Prereq:PHYS 250-251 or consent of instructor. For third and fourth year Students.
Physical properties of the stars. Stellar distance determination. Distribution of the stars in space. The solar motion. Galactic rotation. Stellar dynamics. Characteristics and structure of our galaxy and external systems.
Prereq:PHYS 250-251 or consent of instructor. For third and fourth year students.
OC and AC circuit theory, p and n materials, pn diodes, junction and FET transistors. Transistor amplifiers and their equivalent circuits. Operational amplifiers. Feedback, oscillators and . power supplies.
Prereq: Knowledge of determinants, elementary calculus and elementary electricity.
Logic gates, flip-flops and shift registers. Binary numbers and Boolean algebra. An introduction to microprocessors is discussed based on the 6800. This will include arithmetic logic units, parallel input/output ports, assembly language and a number of examples.
The Schrédinger equation applied to simple one-and three-dimension potentials, hydrogen atoms, angular momentum and spin, molecular vibrations and rotations, many electron atoms, radiation processes.
Application of the methods of classical mechanics to central force motion, rigid body rotation, coupled oscillations and motion in non-inertial frames; survey of Hamiltonian dynamics.
Vector analysis and applications. Vector operators using curvilinear coordinates. Cartesian tensors. inertia tensor; stress, strain and rate of strain tensors.
Applications to elasticity, fluids, electromagnetism and relativity. Prereg: MATH 213a-213b and 216. Primarily intended for Honours Physics
Fourier series, integral and transform with applications. Use of the Laplace transform in physics. Partial differential equations of mathematical physics. Separation of variables. Bessel and Legendre functions with applications. Sturm-Liouville theory. Other special functions.
Prereq: MATH 213a-213b and 216. Primarily intended for Honours Physics students.
Introductory topics on the physics of the earth. Seismology and the earth's interior. Thermal history of the earth, gravity and isostasy. Origin of the continents and continental drift. (Identical to EARTH 368).
The geology of the ocean basins. Topics in physical oceanography. Physical properties of ocean water, heat budget of the world oceans. Oceanic circulations. Coriolis effects. Some idealized current regimes. (Identical to EARTH 369).
Macromolecular structure and function, weak interactions, DNA replication, protein synthesis, energy production, photosynthesis, control of intracellular processes, structure of viruses. physical techniques.
Structure and function of cellular membranes and organelles, membrane potentials and ion transport, nerve conduction, muscle contraction, vision and interaction of light with cells inter-
The theories of solid state physics are applied to explain the operation and use of several modern electronic devices, including the p-n junction, transistors, thyristors, tunnel diodes, field effect devices, optical devices, etc.
An experimental research project. This course is designed for students in the Honours Physics program and in the Cooperative Applied Physics program. Students in the regular Hons Physics program must take either PHYS 433 or PHYS 437.
Although students in the Co-operative Applied Physics (Hons) program are advised to take one of these courses, enroiment may be limited.
Origins and necessity for quantum ‘mechanics and its concepts and formulation. The Hamiltonian operator and Schrédinger’s equation, the harmonic oscillator (Schrédinger's treatment). The uncertainty principle. Momentum representation. One dimensional potential problems. Angular momentum. The hydrogen atom. Prereq: PHYS 354.
Introductory concepts in crystal diffraction and the reciprocal tattice. Crystal bonding, lattice vibrations, thermal properties of insulators, freeelectron theory of metals, band theory, semiconductors.
Selected subjects for advanced study by theoretically inclined students, topics in relativistic, quantum, and statistical physics. Fall term enrolment will be limited.
Course Descriptions
Physics
Students in the regular Hons Physics Program must take either PHYS 437A or PHYS 433.
Although students in the Co-operative Applied Physics (Hons) program are encouraged to take one of these courses, enrolment may be limited.
A continuation and extension of the project initiated in PHYS 437A. Available only to those students who have satisfactorily completed that portion of the project contained in PHYS 437A in the immediately preceeding term.
Students intending to take both PHYS 437A and 437B must register for both courses, and have their registration approved by the Theoretical Physics Project co-ordinator, at the start of the Fall term.
A generalized treatment of the basic laws of electricity and magnetism, mathematical techniques for the problems of electrostatics, solution of Maxwell's equations in free space and the study of plane waves, theory of waveguides and introduction to radiation.
A survey with emphasis on the physical Properties and behaviour of metals and alloys. Elastic and plastic deformations of crystals. Solidification, structure of alloys, free energy of alloy systems, equilibrium diagrams, diffusion, solid state phase transformations.
Theory of deuteron. Nucleon-nucleon scattering. Nuclear models. Basic concepts in particle physics. Conservation laws and invariance principles. SU (3) model. The quark model.
Basic electromagnetic wave theory. Polarization reflection, refraction and dispersion. Fibre optics and communications. Temporal coherence and spectra. Spatial coherence and diffraction. Phase contrast microscopy. Basics of Holography. Crystal optics and nonlinear effects. Lasers, modes, pulses and propagation of beams. Prereq: PHYS 256 and PHYS 354.
Radio telescopes. Radio sources including the sun. H {I regions, H | regions. The galactic centre, pulsars, quasars, other extragalactic sources, cosmological implications.
Prereq:PHYS 253 and PHYS 250-251 Offered in even calendar years.
Solar system astrophysics (excluding the sun). The physical nature of planetary (and satellite) surfaces, atmospheres and interiors. Asteroids, meteorites and comets. The interplanetary medium (solar wind). Solar interactions with the interplanetary medium and earth’s magnetosphere. Prereq: none.
Familiarity with the contents of PHYS 250-251, however, will be assumed.
The structure of stellar interiors, nuclear reactions and energy sources in the stars of the main sequence, early evolution of stars from the main sequence. Lifetimes of the stars.
Prereq: None. Familiarity with the contents of PHYS 250-251, however, will be assumed.
A variety of topics in the operation of systems. Transistors, modern circuit techniques, noise, stability under feedback, information theory, and possible student motivated topics. Includes laboratory demonstrations.
The matrix formulation of quantum mechanics. The harmonic oscillator (Heisenberg’s treatment). The matrices for angular momentum. Time-independent and time-dependent perturbation theory. The interaction of atomic systems with radiation. Multiparticie systems, identical particles. Pauli exclusion principle. The helium atom. Prereq: PHYS 434.
PHYS 454 is strongly recommended for students intending to do graduate work.
The effect of radiation of various kinds on cells and tissues, exposure calculations, mechanism of damage, repair theories, genetic effect, target theory.
Physics of hemeostasis, interactions with the environment, circulation of blood, temperature regulation, respiration, transport problems and special organ systems.
Neurons; nerve conduction, sensory transducers; coding, processing and storage of information; control of muscles and other effector organs. Recommended for third or fourth year