Physics & Astronomy Community home pageA place to share course materials including videos, photos, tutorials, syllabi and other tools to assist with teaching and learning across all areas of undergraduate physics and astronomy. Please review the license information provided for each item as usage rights vary.
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Non-science majors learn the nature and workings of the Sun, stars, neutron stars, black holes, galaxies, quasars, structure and origins of the universe.
Covers special relativity, quantum theory, atomic physics, solid state and nuclear physics.
Theoretical Newtonian mechanics, including position and velocity dependent forces, oscillation, stability, non-inertial frames and gravitation from extended bodies. Ordinary differential equations, vector algebra, curvilinear coordinates, complex numbers, and Fourier series will be introduced in the context of the mechanics.
Introduces quantum mechanics with wave, operator and matrix computational techniques. Investigates solutions for harmonic oscillator, potential well and systems with angular momentum. Develops a quantitative description of one-electron atoms in lowest order.
Covers mathematical theory of electricity and magnetism, including electrostatics, magnetostatics, and polarized media, and provides an introduction to electromagnetic fields, waves, and special relativity.
Electromagnetic induction; magnetic energy; microscopic theory of magnetic properties; Ac circuits; Maxwell's Equations; planewaves; waveguides and transmission lines; radiation from electric and magnetic dipoles and from an accelerated charge.
Fluids, harmonic oscillator, travelling waves, standing waves, sound, and interference of light waves, including diffraction.
Wave-particle duality of matter, special relativity, processes in atomic, nuclear and solid state, and introduction to quantum mechanical devices and techniques.
Crystal structure, elasticity and phonons, elementary electronic transport, defects, alloys, liquid crystals and polymers.
Principles and applications of optical physics. Interference, diffraction, coherence, polarization, Fresnel relations, optical coatings, waves in dielectric media, Gaussian beams, waveguides, optical cavities, lasers, fibre optics, and Fourier optics.
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General principles of the celestial sphere, laws of motion and light, optics, and telescopes; current knowledge of the Sun and Solar System.
Modern stellar and extragalactic astronomy. Stars and stellar evolution from protostars to black holes; galaxies and quasars; cosmology.
Stellar masses and evolution. White dwarfs, neutron stars, and black holes. Extrasolar planet formation and detection. Dark matter in the Milky Way and other galaxies. Cosmological observations and principles.
Measurement of positions, motions, and distances in astronomy. Temperature, masses, and spectra of stars. Hertzsprung-Russell diagram. Quantitative stellar structure and evolution. Chemical composition of stars in different Galactic populations. Globular and open star clusters.
Structure and kinematics of our galaxy. Spiral arms and dynamics of stars in spiral and elliptical galaxies. Galactic formation, evolution, dynamics, and groups. Active galaxies and quasars.
A survey of recent discoveries about the planets and other objects in the solar system, without the use of advanced mathematics. The Sun, the existence of planetary systems around other stars, and the search for life.
A survey of recent discoveries in modern astronomy without the use of advanced mathematics. Stars, pulsars, black holes, galaxies, quasars and the origin and evolution of the Universe.
Observations and basic characteristics of extrasolar planets, including their formation, evolution, and potential for supporting life.
Introduction to the study of the Universe as a whole. Foundations of the Hot Big Bang model, the early Universe, nucleosynthesis, the cosmic microwave background, large-scale structure, galaxy formation and quasars.
Astronomical instrumentation and techniques for ground and space-based observations. Theory of measurement, imaging, interferometry and spectroscopy of electromagnetic radiation at optical, radio, infrared, and X-ray wavelengths. Astronomical data analysis.
Experiments in the use of astronomical instrumentation and data analysis. Use of the 40-cm reflector, spectrograph and electronic detectors. Photometric and spectroscopic analysis of digital data.
Radiative processes. White dwarfs, neutron stars, and black holes. Accreting systems. Gamma-ray bursts.
Structure of planetary systems, planetary interiors, planet formation, planetary atmospheres, meteoritics, impact cratering.
Practice in engineering design and instrument development including mechanical and electrical design, and communications with sensors, actuators. Micro-controller implementation and system integration. Engineering design review process and presentations. Engineering communication in design and product release.
Thermometry, thermal properties of matter; heat transfer by conduction; convection and radiation; kinetic theory of gases and gas laws; heat engines; refrigeration; change of state; first and second laws of thermodynamics.
Basic experimental techniques in acquisition, analysis, and presentation and communication of data and technical results.
Dynamics: systems of particles, kinematics and kinetics of rigid bodies (plane motion), energy and momentum, rotating coordinates.
Project planning, management and reporting. This course involves writing a project proposal, carrying out an open-ended Engineering project, and reporting the results both orally and in writing.
Projects designed to give students research development and design experience. Projects are provided by research faculty in Science and Engineering and from local industry.
An optional course for those students wishing to continue their project work beyond the development in ENPH 479.
A project course for students pursuing entrepreneurial training within Engineering Physics, and wishing to further develop projects resulting from ENPH 459.
An introduction to fundamental concepts such as force, energy, momentum, and the use of graphs and vectors in physics; geometrical optics; electricity; laboratory exercises to familiarize the student with both the phenomena and the basic laboratory instruments commonly used to measure them.
Introduction to optics, electricity and magnetism, electric circuits, radioactivity, including biological applications.
Classical mechanics including conservation laws, angular momentum of rigid bodies and simple harmonic motion, wave phenomena, with an introduction to special relativity, quantum mechanics, nuclear physics, statistical mechanics and solid state physics.
Electricity and magnetism, electrical circuits, induction, electromagnetic waves, Maxwell's equations and applications.
A laboratory course accompanying PHYS 108 with emphasis on data collection and analysis and experimental techniques.
Kinematics including curvilinear motion. Forces and Newton's laws of motion. Work-energy theorem, conservation of energy. Conservation of momentum, collisions. Torque, rotational dynamics, angular momentum. Oscillations and waves.
Optics, electricity and magnetism, electric circuits, radioactivity, including biological applications.
Introductory laboratory course, with emphasis on data collection, data analysis techniques, and scientific reasoning.
Thermometry, thermal properties of matter, heat, oscillations, waves, sound, wave optics; geometrical optics, elementary electricity and magnetism, simple DC and AC circuits.
Heat, thermodynamics, oscillations, waves, and sound.
Electricity and magnetism, DC and AC circuits, optics.
A laboratory course with emphasis on experimental design, measurement and analysis techniques.
Statics of particles, equilibrium or rigid bodies, rigid body statics and internal forces, trusses; kinematics: rectilinear motion; dynamics: Newton's second law, friction, impulse, momentum, work and energy.
Special relativity: Lorentz transformation, dynamics and conservation laws. Quantum physics: the experimental evidence for quantization; a qualitative discussion of the concepts of quantum mechanics and their application to simple systems of atoms and nuclei.
Fundamentals of thermodynamics and statistical physics; entropy, laws of thermodynamics, heat engines, free energy, phase transitions, Boltzmann statistics, quantum statistics.
Use of analog electronics and amplifiers, digital electronics and analog-to-digital conversion and the use of computers in data analysis and simulations in thermodynamic, electronic and modern physics experiments.
Introduction to UNIX/Linux; software tools for processing, fitting and displaying data; numerical methods and application in the physical sciences.
Review of kinematics, Newton's laws, angular momentum and fixed axis rotation. Rigid body motion, central forces, non-inertial frames of reference. Introduction to Lagrangian and Hamiltonian mechanics.
Analog electronics and amplifiers, digital electronics, analog-to-digital converters and an introduction to use of computers in data analysis and simulations.
Thermodynamics experiments, modern physics experiments and use of computers in data analysis.
Maxwell's equations and their applications, electrical fields and potentials of static charge distributions, current, fields of moving charges, magnetic fields, electromagnetic induction.
Principles and applications of quantum mechanics, wave mechanics, the Schr�dinger equation, expectation values, Hermitian operators, commuting observables, one-dimensional systems, harmonic oscillators, angular momentum, three dimensional systems.
Physical principles involved in biological systems at the microscopic and molecular scales. Diffusion, low Reynolds number dynamics, the physicist's view of biomolecular structure, models of molecular motors and membranes.
Variational calculus, Lagrangian dynamics, rigid body motion including free and forced precession, Hamiltonian mechanics, Poisson brackets, canonical coordinates, Hamilton-Jacobi theory, action angle variables. Introduction to dynamical chaos: determinism, Lyapunov exponents.
Selected experiments in electromagnetism and electronics; computer data acquisition; advanced data analysis and simulation.
The application of ordinary and partial differential equations to physical problems; boundary and initial value problems associated with heat, wave and Laplace equations. Fourier analysis; expansions in Bessel and Legendre functions.
Kinetic theory: Diffusion, viscosity and sound waves. Introduction to hydrodynamics: Laminar flow, capillary and gravity waves, convection and turbulence. Dimensional analysis.
Experimental techniques of acoustics: data acquisition hardware and software, microphones, loudspeakers, noise, vibration and modal analysis.
A project-oriented lab introducing the design and construction of microprocessor-controlled devices.
Quantum physics, nuclear energy and particle physics at a level suitable for third- and fourth-year Science students not proceeding to a physics degree.
The fundamental physics behind global issues of energy use and climate change.
Ancient Greek ideas of substance and forms and modern concepts of forces and fields. The twentieth-century quantum revolution. The modern universe, from quarks and atoms to the big bang. Quantum paradoxes.
An introduction to the physical principles important to the production, transmission and perception of musical sounds. The treatment will be non-mathematical; with emphasis on demonstrations. Topics may include the description of sound waves, resonances, scales, physics of hearing, examination of specific musical instruments, etc.
A guided sequence of hands-on science modules intended primarily for prospective elementary schoolteachers, to help them to work constructively in a science teaching role.
Current research topics in physics and astronomy are investigated and explored. Technical communication and research skills are studied and developed via oral presentations and written scientific reports on these current research topics.
Review of principles. Particle mechanics: Euler's equations, tops and gyroscopes, motion of the Earth, Lagrangian and Hamiltonian methods. Variational principles in optics and mechanics, Liouville's theorem and statistical mechanics. The relationship between classical and quantum mechanics.
Applications of electricity and magnetism. Maxwell's equations.
Standard model, classification of elementary particles and forces of nature, symmetries, conservation laws, quark model, quantum electrodynamics, quantum chromodynamics, and the theory of weak interactions.
Applications of Maxwell's theory. Wave propagation in dielectrics, conductors and plasmas, wave guides, radiation, antennae, and special relativity.
Spin and angular momentum addition, perturbation methods, and applications in the fields of Atomic, Molecular, Nuclear, and Solid State Physics.
Principles and applications of statistical mechanics. Ideal gases, degenerate Fermi gases, Bose-Einstein condensation, black body radiation, fluctuations and phase transitions.
Radiotherapy, X-ray imaging, nuclear medicine, magnetic resonance imaging and biomedical optics.
Physical and chemical interactions of ionizing radiations and their biological effects at the cellular, tissue and whole-animal levels.
Physical consequences of Einstein's equations, including the principle of equivalence, curved space-time, geodesics, the Schwarzschild solution, deflection of light, black holes, and gravitational radiation.
A laboratory course with a wide choice of experiments for fourth year Honours and Major students. Topics include solid state, nuclear, classical, quantum, electromagnetic and low temperature physics.
Scientific programming applied to problems in physics. Fundamentals of numerical analysis for continuum problems. Solution of linear and non-linear algebraic systems, ordinary differential equations and stochastic problems.
Fundamentals of atomic, nuclear, particle, and condensed matter physics.
The students will prepare, under the supervision of a faculty member, a demonstration or series of demonstrations intended to illustrate physical principles to diverse audiences. Intended for third- or fourth-year Physics Majors and Math/Science Education students.
Molecular structure and architecture of biological cells, interactions of molecules in aqueous solution and at interfaces, physical properties of polymers and surfactants, mechanisms of cell membranes and cytoplasmic structures, thermodynamics of molecular machines and mechanical enzymes.
Animal systems viewed from a physicist's perspective. Topics include sensory systems, energy budgets, locomotion, internal flows, physical advantages of grouping. Equivalency: UBC BIOL 438
Postulates of quantum mechanics, expectation values, hermitian operators, commuting observables, applications to one-dimensional systems, harmonic oscillators, angular momentum, applications in three dimensions, hydrogen atom, time dependent perturbations.
Wave propagation and related phenomena in dielectrics, conductors and plasmas. Wave guides, radiation, antennae, special relativity.
Introduction to quantum statistical mechanics and its application to systems of varying complexity from the simple ideal gas to the degenerate gas. Quantum fluids, phase transitions and simulation methods will also be introduced.
Basic applications of lasers, geometrical optics, fibre optics, diffraction, and Fourier optics.
Radioactive decay and radiations, nuclear properties, interactions of neutrons, physical principles of power reactors, nuclear fusion, radiation monitoring, and safety.
Symmetry of crystal structures, reciprocal lattice, band theory, conduction in metals and semiconductors, phonons and superconductivity.